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Break libaxolotl out into an external project.

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// FREEBIE
This commit is contained in:
Moxie Marlinspike 2014-12-08 16:07:16 -08:00
parent c14945791c
commit 1833e57c38
175 changed files with 3 additions and 30659 deletions
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1
build.gradle
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@ -76,6 +76,7 @@ dependencyVerification {
'com.googlecode.libphonenumber:libphonenumber:eba17eae81dd622ea89a00a3a8c025b2f25d342e0d9644c5b62e16f15687c3ab',
'org.whispersystems:gson:08f4f7498455d1539c9233e5aac18e9b1805815ef29221572996508eb512fe51',
'org.whispersystems:jobmanager:adb4329b69035053a7b6a48e22a3280235ac405b225ed8679b994612a8e6f5b6',
'org.whispersystems:axolotl-android:7617256d05aaecd7b5475cd55e42773d7079167a22ca48512bcb0f84f8473cc9',
'com.android.support:support-annotations:1aa96ef0cc4a445bfc2f93ccf762305bc57fa107b12afe9d11f3863ae8a11036',
]
}

2
libaxolotl/.gitignore vendored
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@ -1,2 +0,0 @@
/build
/obj

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libaxolotl/README.md
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# Overview
This is a ratcheting forward secrecy protocol that works in synchronous and asynchronous messaging
environments. The protocol overview is available [here](https://github.com/trevp/axolotl/wiki),
and the details of the wire format are available [here](https://github.com/WhisperSystems/TextSecure/wiki/ProtocolV2).
## PreKeys
This protocol uses a concept called 'PreKeys'. A PreKey is an ECPublicKey and an associated unique
ID which are stored together by a server. PreKeys can also be signed.
At install time, clients generate a single signed PreKey, as well as a large list of unsigned
PreKeys, and transmit all of them to the server.
## Sessions
The axolotl protocol is session-oriented. Clients establish a "session," which is then used for
all subsequent encrypt/decrypt operations. There is no need to ever tear down a session once one
has been established.
Sessions are established in one of three ways:
1. PreKeyBundles. A client that wishes to send a message to a recipient can establish a session by
retrieving a PreKeyBundle for that recipient from the server.
1. PreKeyWhisperMessages. A client can receive a PreKeyWhisperMessage from a recipient and use it
to establish a session.
1. KeyExchangeMessages. Two clients can exchange KeyExchange messages to establish a session.
## State
An established session encapsulates a lot of state between two clients. That state is maintained
in durable records which need to be kept for the life of the session.
State is kept in the following places:
1. Identity State. Clients will need to maintain the state of their own identity key pair, as well
as identity keys received from other clients.
1. PreKey State. Clients will need to maintain the state of their generated PreKeys.
1. Signed PreKey States. Clients will need to maintain the state of their signed PreKeys.
1. Session State. Clients will need to maintain the state of the sessions they have established.
# Using libaxolotl
## Install time
At install time, a libaxolotl client needs to generate its identity keys, registration id, and
prekeys.
IdentityKeyPair identityKeyPair = KeyHelper.generateIdentityKeyPair();
int registrationId = KeyHelper.generateRegistrationId();
List<PreKeyRecord> preKeys = KeyHelper.generatePreKeys(startId, 100);
PreKeyRecord lastResortKey = KeyHelper.generateLastResortKey();
SignedPreKeyRecord signedPreKey = KeyHelper.generateSignedPreKey(identityKeyPair, 5);
// Store identityKeyPair somewhere durable and safe.
// Store registrationId somewhere durable and safe.
// Store preKeys in PreKeyStore.
// Store signed prekey in SignedPreKeyStore.
## Building a session
A libaxolotl client needs to implement four interfaces: IdentityKeyStore, PreKeyStore,
SignedPreKeyStore, and SessionStore. These will manage loading and storing of identity,
prekeys, signed prekeys, and session state.
Once those are implemented, building a session is fairly straightforward:
SessionStore sessionStore = new MySessionStore();
PreKeyStore preKeyStore = new MyPreKeyStore();
SignedPreKeyStore signedPreKeyStore = new MySignedPreKeyStore();
IdentityKeyStore identityStore = new MyIdentityKeyStore();
// Instantiate a SessionBuilder for a remote recipientId + deviceId tuple.
SessionBuilder sessionBuilder = new SessionBuilder(sessionStore, preKeyStore, signedPreKeyStore,
identityStore, recipientId, deviceId);
// Build a session with a PreKey retrieved from the server.
sessionBuilder.process(retrievedPreKey);
SessionCipher sessionCipher = new SessionCipher(sessionStore, recipientId, deviceId);
CiphertextMessage message = sessionCipher.encrypt("Hello world!".getBytes("UTF-8"));
deliver(message.serialize());

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libaxolotl/build.gradle
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@ -1,44 +0,0 @@
buildscript {
repositories {
mavenCentral()
}
dependencies {
classpath 'com.android.tools.build:gradle:1.0.0'
}
}
apply plugin: 'com.android.library'
repositories {
mavenCentral()
}
dependencies {
compile 'com.google.protobuf:protobuf-java:2.5.0'
}
android {
compileSdkVersion 21
buildToolsVersion '21.1.1'
compileOptions {
sourceCompatibility JavaVersion.VERSION_1_7
targetCompatibility JavaVersion.VERSION_1_7
}
android {
sourceSets {
main {
jniLibs.srcDirs = ['libs']
}
}
}
}
tasks.whenTaskAdded { task ->
if (task.name.equals("lint")) {
task.enabled = false
}
}

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libaxolotl/jni/Android.mk
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@ -1,27 +0,0 @@
LOCAL_PATH:= $(call my-dir)
include $(CLEAR_VARS)
LOCAL_MODULE := libcurve25519-donna
LOCAL_SRC_FILES := curve25519-donna.c
include $(BUILD_STATIC_LIBRARY)
include $(CLEAR_VARS)
LOCAL_MODULE := libcurve25519-ref10
LOCAL_SRC_FILES := $(wildcard ed25519/*.c) $(wildcard ed25519/additions/*.c) $(wildcard ed25519/nacl_sha512/*.c)
LOCAL_C_INCLUDES := ed25519/nacl_includes ed25519/additions ed25519/sha512 ed25519
include $(BUILD_STATIC_LIBRARY)
include $(CLEAR_VARS)
LOCAL_MODULE := libcurve25519
LOCAL_SRC_FILES := curve25519-jni.c
LOCAL_C_INCLUDES := ed25519/additions
LOCAL_STATIC_LIBRARIES := libcurve25519-donna libcurve25519-ref10
include $(BUILD_SHARED_LIBRARY)

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libaxolotl/jni/Application.mk
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@ -1 +0,0 @@
APP_ABI := armeabi armeabi-v7a x86 mips

870
libaxolotl/jni/curve25519-donna.c
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@ -1,870 +0,0 @@
/* Copyright 2008, Google Inc.
* All rights reserved.
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions are
* met:
*
* * Redistributions of source code must retain the above copyright
* notice, this list of conditions and the following disclaimer.
* * Redistributions in binary form must reproduce the above
* copyright notice, this list of conditions and the following disclaimer
* in the documentation and/or other materials provided with the
* distribution.
* * Neither the name of Google Inc. nor the names of its
* contributors may be used to endorse or promote products derived from
* this software without specific prior written permission.
*
* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
* "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
* LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
* A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
* OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
* SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
* LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
* DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
* THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
* (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
* OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
*
* curve25519-donna: Curve25519 elliptic curve, public key function
*
* http://code.google.com/p/curve25519-donna/
*
* Adam Langley <agl@imperialviolet.org>
*
* Derived from public domain C code by Daniel J. Bernstein <djb@cr.yp.to>
*
* More information about curve25519 can be found here
* http://cr.yp.to/ecdh.html
*
* djb's sample implementation of curve25519 is written in a special assembly
* language called qhasm and uses the floating point registers.
*
* This is, almost, a clean room reimplementation from the curve25519 paper. It
* uses many of the tricks described therein. Only the crecip function is taken
* from the sample implementation. */
#include <string.h>
#include <stdint.h>
#ifdef _MSC_VER
#define inline __inline
#endif
typedef uint8_t u8;
typedef int32_t s32;
typedef int64_t limb;
/* Field element representation:
*
* Field elements are written as an array of signed, 64-bit limbs, least
* significant first. The value of the field element is:
* x[0] + 2^26·x[1] + x^51·x[2] + 2^102·x[3] + ...
*
* i.e. the limbs are 26, 25, 26, 25, ... bits wide. */
/* Sum two numbers: output += in */
static void fsum(limb *output, const limb *in) {
unsigned i;
for (i = 0; i < 10; i += 2) {
output[0+i] = output[0+i] + in[0+i];
output[1+i] = output[1+i] + in[1+i];
}
}
/* Find the difference of two numbers: output = in - output
* (note the order of the arguments!). */
static void fdifference(limb *output, const limb *in) {
unsigned i;
for (i = 0; i < 10; ++i) {
output[i] = in[i] - output[i];
}
}
/* Multiply a number by a scalar: output = in * scalar */
static void fscalar_product(limb *output, const limb *in, const limb scalar) {
unsigned i;
for (i = 0; i < 10; ++i) {
output[i] = in[i] * scalar;
}
}
/* Multiply two numbers: output = in2 * in
*
* output must be distinct to both inputs. The inputs are reduced coefficient
* form, the output is not.
*
* output[x] <= 14 * the largest product of the input limbs. */
static void fproduct(limb *output, const limb *in2, const limb *in) {
output[0] = ((limb) ((s32) in2[0])) * ((s32) in[0]);
output[1] = ((limb) ((s32) in2[0])) * ((s32) in[1]) +
((limb) ((s32) in2[1])) * ((s32) in[0]);
output[2] = 2 * ((limb) ((s32) in2[1])) * ((s32) in[1]) +
((limb) ((s32) in2[0])) * ((s32) in[2]) +
((limb) ((s32) in2[2])) * ((s32) in[0]);
output[3] = ((limb) ((s32) in2[1])) * ((s32) in[2]) +
((limb) ((s32) in2[2])) * ((s32) in[1]) +
((limb) ((s32) in2[0])) * ((s32) in[3]) +
((limb) ((s32) in2[3])) * ((s32) in[0]);
output[4] = ((limb) ((s32) in2[2])) * ((s32) in[2]) +
2 * (((limb) ((s32) in2[1])) * ((s32) in[3]) +
((limb) ((s32) in2[3])) * ((s32) in[1])) +
((limb) ((s32) in2[0])) * ((s32) in[4]) +
((limb) ((s32) in2[4])) * ((s32) in[0]);
output[5] = ((limb) ((s32) in2[2])) * ((s32) in[3]) +
((limb) ((s32) in2[3])) * ((s32) in[2]) +
((limb) ((s32) in2[1])) * ((s32) in[4]) +
((limb) ((s32) in2[4])) * ((s32) in[1]) +
((limb) ((s32) in2[0])) * ((s32) in[5]) +
((limb) ((s32) in2[5])) * ((s32) in[0]);
output[6] = 2 * (((limb) ((s32) in2[3])) * ((s32) in[3]) +
((limb) ((s32) in2[1])) * ((s32) in[5]) +
((limb) ((s32) in2[5])) * ((s32) in[1])) +
((limb) ((s32) in2[2])) * ((s32) in[4]) +
((limb) ((s32) in2[4])) * ((s32) in[2]) +
((limb) ((s32) in2[0])) * ((s32) in[6]) +
((limb) ((s32) in2[6])) * ((s32) in[0]);
output[7] = ((limb) ((s32) in2[3])) * ((s32) in[4]) +
((limb) ((s32) in2[4])) * ((s32) in[3]) +
((limb) ((s32) in2[2])) * ((s32) in[5]) +
((limb) ((s32) in2[5])) * ((s32) in[2]) +
((limb) ((s32) in2[1])) * ((s32) in[6]) +
((limb) ((s32) in2[6])) * ((s32) in[1]) +
((limb) ((s32) in2[0])) * ((s32) in[7]) +
((limb) ((s32) in2[7])) * ((s32) in[0]);
output[8] = ((limb) ((s32) in2[4])) * ((s32) in[4]) +
2 * (((limb) ((s32) in2[3])) * ((s32) in[5]) +
((limb) ((s32) in2[5])) * ((s32) in[3]) +
((limb) ((s32) in2[1])) * ((s32) in[7]) +
((limb) ((s32) in2[7])) * ((s32) in[1])) +
((limb) ((s32) in2[2])) * ((s32) in[6]) +
((limb) ((s32) in2[6])) * ((s32) in[2]) +
((limb) ((s32) in2[0])) * ((s32) in[8]) +
((limb) ((s32) in2[8])) * ((s32) in[0]);
output[9] = ((limb) ((s32) in2[4])) * ((s32) in[5]) +
((limb) ((s32) in2[5])) * ((s32) in[4]) +
((limb) ((s32) in2[3])) * ((s32) in[6]) +
((limb) ((s32) in2[6])) * ((s32) in[3]) +
((limb) ((s32) in2[2])) * ((s32) in[7]) +
((limb) ((s32) in2[7])) * ((s32) in[2]) +
((limb) ((s32) in2[1])) * ((s32) in[8]) +
((limb) ((s32) in2[8])) * ((s32) in[1]) +
((limb) ((s32) in2[0])) * ((s32) in[9]) +
((limb) ((s32) in2[9])) * ((s32) in[0]);
output[10] = 2 * (((limb) ((s32) in2[5])) * ((s32) in[5]) +
((limb) ((s32) in2[3])) * ((s32) in[7]) +
((limb) ((s32) in2[7])) * ((s32) in[3]) +
((limb) ((s32) in2[1])) * ((s32) in[9]) +
((limb) ((s32) in2[9])) * ((s32) in[1])) +
((limb) ((s32) in2[4])) * ((s32) in[6]) +
((limb) ((s32) in2[6])) * ((s32) in[4]) +
((limb) ((s32) in2[2])) * ((s32) in[8]) +
((limb) ((s32) in2[8])) * ((s32) in[2]);
output[11] = ((limb) ((s32) in2[5])) * ((s32) in[6]) +
((limb) ((s32) in2[6])) * ((s32) in[5]) +
((limb) ((s32) in2[4])) * ((s32) in[7]) +
((limb) ((s32) in2[7])) * ((s32) in[4]) +
((limb) ((s32) in2[3])) * ((s32) in[8]) +
((limb) ((s32) in2[8])) * ((s32) in[3]) +
((limb) ((s32) in2[2])) * ((s32) in[9]) +
((limb) ((s32) in2[9])) * ((s32) in[2]);
output[12] = ((limb) ((s32) in2[6])) * ((s32) in[6]) +
2 * (((limb) ((s32) in2[5])) * ((s32) in[7]) +
((limb) ((s32) in2[7])) * ((s32) in[5]) +
((limb) ((s32) in2[3])) * ((s32) in[9]) +
((limb) ((s32) in2[9])) * ((s32) in[3])) +
((limb) ((s32) in2[4])) * ((s32) in[8]) +
((limb) ((s32) in2[8])) * ((s32) in[4]);
output[13] = ((limb) ((s32) in2[6])) * ((s32) in[7]) +
((limb) ((s32) in2[7])) * ((s32) in[6]) +
((limb) ((s32) in2[5])) * ((s32) in[8]) +
((limb) ((s32) in2[8])) * ((s32) in[5]) +
((limb) ((s32) in2[4])) * ((s32) in[9]) +
((limb) ((s32) in2[9])) * ((s32) in[4]);
output[14] = 2 * (((limb) ((s32) in2[7])) * ((s32) in[7]) +
((limb) ((s32) in2[5])) * ((s32) in[9]) +
((limb) ((s32) in2[9])) * ((s32) in[5])) +
((limb) ((s32) in2[6])) * ((s32) in[8]) +
((limb) ((s32) in2[8])) * ((s32) in[6]);
output[15] = ((limb) ((s32) in2[7])) * ((s32) in[8]) +
((limb) ((s32) in2[8])) * ((s32) in[7]) +
((limb) ((s32) in2[6])) * ((s32) in[9]) +
((limb) ((s32) in2[9])) * ((s32) in[6]);
output[16] = ((limb) ((s32) in2[8])) * ((s32) in[8]) +
2 * (((limb) ((s32) in2[7])) * ((s32) in[9]) +
((limb) ((s32) in2[9])) * ((s32) in[7]));
output[17] = ((limb) ((s32) in2[8])) * ((s32) in[9]) +
((limb) ((s32) in2[9])) * ((s32) in[8]);
output[18] = 2 * ((limb) ((s32) in2[9])) * ((s32) in[9]);
}
/* Reduce a long form to a short form by taking the input mod 2^255 - 19.
*
* On entry: |output[i]| < 14*2^54
* On exit: |output[0..8]| < 280*2^54 */
static void freduce_degree(limb *output) {
/* Each of these shifts and adds ends up multiplying the value by 19.
*
* For output[0..8], the absolute entry value is < 14*2^54 and we add, at
* most, 19*14*2^54 thus, on exit, |output[0..8]| < 280*2^54. */
output[8] += output[18] << 4;
output[8] += output[18] << 1;
output[8] += output[18];
output[7] += output[17] << 4;
output[7] += output[17] << 1;
output[7] += output[17];
output[6] += output[16] << 4;
output[6] += output[16] << 1;
output[6] += output[16];
output[5] += output[15] << 4;
output[5] += output[15] << 1;
output[5] += output[15];
output[4] += output[14] << 4;
output[4] += output[14] << 1;
output[4] += output[14];
output[3] += output[13] << 4;
output[3] += output[13] << 1;
output[3] += output[13];
output[2] += output[12] << 4;
output[2] += output[12] << 1;
output[2] += output[12];
output[1] += output[11] << 4;
output[1] += output[11] << 1;
output[1] += output[11];
output[0] += output[10] << 4;
output[0] += output[10] << 1;
output[0] += output[10];
}
#if (-1 & 3) != 3
#error "This code only works on a two's complement system"
#endif
/* return v / 2^26, using only shifts and adds.
*
* On entry: v can take any value. */
static inline limb
div_by_2_26(const limb v)
{
/* High word of v; no shift needed. */
const uint32_t highword = (uint32_t) (((uint64_t) v) >> 32);
/* Set to all 1s if v was negative; else set to 0s. */
const int32_t sign = ((int32_t) highword) >> 31;
/* Set to 0x3ffffff if v was negative; else set to 0. */
const int32_t roundoff = ((uint32_t) sign) >> 6;
/* Should return v / (1<<26) */
return (v + roundoff) >> 26;
}
/* return v / (2^25), using only shifts and adds.
*
* On entry: v can take any value. */
static inline limb
div_by_2_25(const limb v)
{
/* High word of v; no shift needed*/
const uint32_t highword = (uint32_t) (((uint64_t) v) >> 32);
/* Set to all 1s if v was negative; else set to 0s. */
const int32_t sign = ((int32_t) highword) >> 31;
/* Set to 0x1ffffff if v was negative; else set to 0. */
const int32_t roundoff = ((uint32_t) sign) >> 7;
/* Should return v / (1<<25) */
return (v + roundoff) >> 25;
}
/* return v / (2^25), using only shifts and adds.
*
* On entry: v can take any value. */
static inline s32
div_s32_by_2_25(const s32 v)
{
const s32 roundoff = ((uint32_t)(v >> 31)) >> 7;
return (v + roundoff) >> 25;
}
/* Reduce all coefficients of the short form input so that |x| < 2^26.
*
* On entry: |output[i]| < 280*2^54 */
static void freduce_coefficients(limb *output) {
unsigned i;
output[10] = 0;
for (i = 0; i < 10; i += 2) {
limb over = div_by_2_26(output[i]);
/* The entry condition (that |output[i]| < 280*2^54) means that over is, at
* most, 280*2^28 in the first iteration of this loop. This is added to the
* next limb and we can approximate the resulting bound of that limb by
* 281*2^54. */
output[i] -= over << 26;
output[i+1] += over;
/* For the first iteration, |output[i+1]| < 281*2^54, thus |over| <
* 281*2^29. When this is added to the next limb, the resulting bound can
* be approximated as 281*2^54.
*
* For subsequent iterations of the loop, 281*2^54 remains a conservative
* bound and no overflow occurs. */
over = div_by_2_25(output[i+1]);
output[i+1] -= over << 25;
output[i+2] += over;
}
/* Now |output[10]| < 281*2^29 and all other coefficients are reduced. */
output[0] += output[10] << 4;
output[0] += output[10] << 1;
output[0] += output[10];
output[10] = 0;
/* Now output[1..9] are reduced, and |output[0]| < 2^26 + 19*281*2^29
* So |over| will be no more than 2^16. */
{
limb over = div_by_2_26(output[0]);
output[0] -= over << 26;
output[1] += over;
}
/* Now output[0,2..9] are reduced, and |output[1]| < 2^25 + 2^16 < 2^26. The
* bound on |output[1]| is sufficient to meet our needs. */
}
/* A helpful wrapper around fproduct: output = in * in2.
*
* On entry: |in[i]| < 2^27 and |in2[i]| < 2^27.
*
* output must be distinct to both inputs. The output is reduced degree
* (indeed, one need only provide storage for 10 limbs) and |output[i]| < 2^26. */
static void
fmul(limb *output, const limb *in, const limb *in2) {
limb t[19];
fproduct(t, in, in2);
/* |t[i]| < 14*2^54 */
freduce_degree(t);
freduce_coefficients(t);
/* |t[i]| < 2^26 */
memcpy(output, t, sizeof(limb) * 10);
}
/* Square a number: output = in**2
*
* output must be distinct from the input. The inputs are reduced coefficient
* form, the output is not.
*
* output[x] <= 14 * the largest product of the input limbs. */
static void fsquare_inner(limb *output, const limb *in) {
output[0] = ((limb) ((s32) in[0])) * ((s32) in[0]);
output[1] = 2 * ((limb) ((s32) in[0])) * ((s32) in[1]);
output[2] = 2 * (((limb) ((s32) in[1])) * ((s32) in[1]) +
((limb) ((s32) in[0])) * ((s32) in[2]));
output[3] = 2 * (((limb) ((s32) in[1])) * ((s32) in[2]) +
((limb) ((s32) in[0])) * ((s32) in[3]));
output[4] = ((limb) ((s32) in[2])) * ((s32) in[2]) +
4 * ((limb) ((s32) in[1])) * ((s32) in[3]) +
2 * ((limb) ((s32) in[0])) * ((s32) in[4]);
output[5] = 2 * (((limb) ((s32) in[2])) * ((s32) in[3]) +
((limb) ((s32) in[1])) * ((s32) in[4]) +
((limb) ((s32) in[0])) * ((s32) in[5]));
output[6] = 2 * (((limb) ((s32) in[3])) * ((s32) in[3]) +
((limb) ((s32) in[2])) * ((s32) in[4]) +
((limb) ((s32) in[0])) * ((s32) in[6]) +
2 * ((limb) ((s32) in[1])) * ((s32) in[5]));
output[7] = 2 * (((limb) ((s32) in[3])) * ((s32) in[4]) +
((limb) ((s32) in[2])) * ((s32) in[5]) +
((limb) ((s32) in[1])) * ((s32) in[6]) +
((limb) ((s32) in[0])) * ((s32) in[7]));
output[8] = ((limb) ((s32) in[4])) * ((s32) in[4]) +
2 * (((limb) ((s32) in[2])) * ((s32) in[6]) +
((limb) ((s32) in[0])) * ((s32) in[8]) +
2 * (((limb) ((s32) in[1])) * ((s32) in[7]) +
((limb) ((s32) in[3])) * ((s32) in[5])));
output[9] = 2 * (((limb) ((s32) in[4])) * ((s32) in[5]) +
((limb) ((s32) in[3])) * ((s32) in[6]) +
((limb) ((s32) in[2])) * ((s32) in[7]) +
((limb) ((s32) in[1])) * ((s32) in[8]) +
((limb) ((s32) in[0])) * ((s32) in[9]));
output[10] = 2 * (((limb) ((s32) in[5])) * ((s32) in[5]) +
((limb) ((s32) in[4])) * ((s32) in[6]) +
((limb) ((s32) in[2])) * ((s32) in[8]) +
2 * (((limb) ((s32) in[3])) * ((s32) in[7]) +
((limb) ((s32) in[1])) * ((s32) in[9])));
output[11] = 2 * (((limb) ((s32) in[5])) * ((s32) in[6]) +
((limb) ((s32) in[4])) * ((s32) in[7]) +
((limb) ((s32) in[3])) * ((s32) in[8]) +
((limb) ((s32) in[2])) * ((s32) in[9]));
output[12] = ((limb) ((s32) in[6])) * ((s32) in[6]) +
2 * (((limb) ((s32) in[4])) * ((s32) in[8]) +
2 * (((limb) ((s32) in[5])) * ((s32) in[7]) +
((limb) ((s32) in[3])) * ((s32) in[9])));
output[13] = 2 * (((limb) ((s32) in[6])) * ((s32) in[7]) +
((limb) ((s32) in[5])) * ((s32) in[8]) +
((limb) ((s32) in[4])) * ((s32) in[9]));
output[14] = 2 * (((limb) ((s32) in[7])) * ((s32) in[7]) +
((limb) ((s32) in[6])) * ((s32) in[8]) +
2 * ((limb) ((s32) in[5])) * ((s32) in[9]));
output[15] = 2 * (((limb) ((s32) in[7])) * ((s32) in[8]) +
((limb) ((s32) in[6])) * ((s32) in[9]));
output[16] = ((limb) ((s32) in[8])) * ((s32) in[8]) +
4 * ((limb) ((s32) in[7])) * ((s32) in[9]);
output[17] = 2 * ((limb) ((s32) in[8])) * ((s32) in[9]);
output[18] = 2 * ((limb) ((s32) in[9])) * ((s32) in[9]);
}
/* fsquare sets output = in^2.
*
* On entry: The |in| argument is in reduced coefficients form and |in[i]| <
* 2^27.
*
* On exit: The |output| argument is in reduced coefficients form (indeed, one
* need only provide storage for 10 limbs) and |out[i]| < 2^26. */
static void
fsquare(limb *output, const limb *in) {
limb t[19];
fsquare_inner(t, in);
/* |t[i]| < 14*2^54 because the largest product of two limbs will be <
* 2^(27+27) and fsquare_inner adds together, at most, 14 of those
* products. */
freduce_degree(t);
freduce_coefficients(t);
/* |t[i]| < 2^26 */
memcpy(output, t, sizeof(limb) * 10);
}
/* Take a little-endian, 32-byte number and expand it into polynomial form */
static void
fexpand(limb *output, const u8 *input) {
#define F(n,start,shift,mask) \
output[n] = ((((limb) input[start + 0]) | \
((limb) input[start + 1]) << 8 | \
((limb) input[start + 2]) << 16 | \
((limb) input[start + 3]) << 24) >> shift) & mask;
F(0, 0, 0, 0x3ffffff);
F(1, 3, 2, 0x1ffffff);
F(2, 6, 3, 0x3ffffff);
F(3, 9, 5, 0x1ffffff);
F(4, 12, 6, 0x3ffffff);
F(5, 16, 0, 0x1ffffff);
F(6, 19, 1, 0x3ffffff);
F(7, 22, 3, 0x1ffffff);
F(8, 25, 4, 0x3ffffff);
F(9, 28, 6, 0x1ffffff);
#undef F
}
#if (-32 >> 1) != -16
#error "This code only works when >> does sign-extension on negative numbers"
#endif
/* s32_eq returns 0xffffffff iff a == b and zero otherwise. */
static s32 s32_eq(s32 a, s32 b) {
a = ~(a ^ b);
a &= a << 16;
a &= a << 8;
a &= a << 4;
a &= a << 2;
a &= a << 1;
return a >> 31;
}
/* s32_gte returns 0xffffffff if a >= b and zero otherwise, where a and b are
* both non-negative. */
static s32 s32_gte(s32 a, s32 b) {
a -= b;
/* a >= 0 iff a >= b. */
return ~(a >> 31);
}
/* Take a fully reduced polynomial form number and contract it into a
* little-endian, 32-byte array.
*
* On entry: |input_limbs[i]| < 2^26 */
static void
fcontract(u8 *output, limb *input_limbs) {
int i;
int j;
s32 input[10];
s32 mask;
/* |input_limbs[i]| < 2^26, so it's valid to convert to an s32. */
for (i = 0; i < 10; i++) {
input[i] = input_limbs[i];
}
for (j = 0; j < 2; ++j) {
for (i = 0; i < 9; ++i) {
if ((i & 1) == 1) {
/* This calculation is a time-invariant way to make input[i]
* non-negative by borrowing from the next-larger limb. */
const s32 mask = input[i] >> 31;
const s32 carry = -((input[i] & mask) >> 25);
input[i] = input[i] + (carry << 25);
input[i+1] = input[i+1] - carry;
} else {
const s32 mask = input[i] >> 31;
const s32 carry = -((input[i] & mask) >> 26);
input[i] = input[i] + (carry << 26);
input[i+1] = input[i+1] - carry;
}
}
/* There's no greater limb for input[9] to borrow from, but we can multiply
* by 19 and borrow from input[0], which is valid mod 2^255-19. */
{
const s32 mask = input[9] >> 31;
const s32 carry = -((input[9] & mask) >> 25);
input[9] = input[9] + (carry << 25);
input[0] = input[0] - (carry * 19);
}
/* After the first iteration, input[1..9] are non-negative and fit within
* 25 or 26 bits, depending on position. However, input[0] may be
* negative. */
}
/* The first borrow-propagation pass above ended with every limb
except (possibly) input[0] non-negative.
If input[0] was negative after the first pass, then it was because of a
carry from input[9]. On entry, input[9] < 2^26 so the carry was, at most,
one, since (2**26-1) >> 25 = 1. Thus input[0] >= -19.
In the second pass, each limb is decreased by at most one. Thus the second
borrow-propagation pass could only have wrapped around to decrease
input[0] again if the first pass left input[0] negative *and* input[1]
through input[9] were all zero. In that case, input[1] is now 2^25 - 1,
and this last borrow-propagation step will leave input[1] non-negative. */
{
const s32 mask = input[0] >> 31;
const s32 carry = -((input[0] & mask) >> 26);
input[0] = input[0] + (carry << 26);
input[1] = input[1] - carry;
}
/* All input[i] are now non-negative. However, there might be values between
* 2^25 and 2^26 in a limb which is, nominally, 25 bits wide. */
for (j = 0; j < 2; j++) {
for (i = 0; i < 9; i++) {
if ((i & 1) == 1) {
const s32 carry = input[i] >> 25;
input[i] &= 0x1ffffff;
input[i+1] += carry;
} else {
const s32 carry = input[i] >> 26;
input[i] &= 0x3ffffff;
input[i+1] += carry;
}
}
{
const s32 carry = input[9] >> 25;
input[9] &= 0x1ffffff;
input[0] += 19*carry;
}
}
/* If the first carry-chain pass, just above, ended up with a carry from
* input[9], and that caused input[0] to be out-of-bounds, then input[0] was
* < 2^26 + 2*19, because the carry was, at most, two.
*
* If the second pass carried from input[9] again then input[0] is < 2*19 and
* the input[9] -> input[0] carry didn't push input[0] out of bounds. */
/* It still remains the case that input might be between 2^255-19 and 2^255.
* In this case, input[1..9] must take their maximum value and input[0] must
* be >= (2^255-19) & 0x3ffffff, which is 0x3ffffed. */
mask = s32_gte(input[0], 0x3ffffed);
for (i = 1; i < 10; i++) {
if ((i & 1) == 1) {
mask &= s32_eq(input[i], 0x1ffffff);
} else {
mask &= s32_eq(input[i], 0x3ffffff);
}
}
/* mask is either 0xffffffff (if input >= 2^255-19) and zero otherwise. Thus
* this conditionally subtracts 2^255-19. */
input[0] -= mask & 0x3ffffed;
for (i = 1; i < 10; i++) {
if ((i & 1) == 1) {
input[i] -= mask & 0x1ffffff;
} else {
input[i] -= mask & 0x3ffffff;
}
}
input[1] <<= 2;
input[2] <<= 3;
input[3] <<= 5;
input[4] <<= 6;
input[6] <<= 1;
input[7] <<= 3;
input[8] <<= 4;
input[9] <<= 6;
#define F(i, s) \
output[s+0] |= input[i] & 0xff; \
output[s+1] = (input[i] >> 8) & 0xff; \
output[s+2] = (input[i] >> 16) & 0xff; \
output[s+3] = (input[i] >> 24) & 0xff;
output[0] = 0;
output[16] = 0;
F(0,0);
F(1,3);
F(2,6);
F(3,9);
F(4,12);
F(5,16);
F(6,19);
F(7,22);
F(8,25);
F(9,28);
#undef F
}
/* Input: Q, Q', Q-Q'
* Output: 2Q, Q+Q'
*
* x2 z3: long form
* x3 z3: long form
* x z: short form, destroyed
* xprime zprime: short form, destroyed
* qmqp: short form, preserved
*
* On entry and exit, the absolute value of the limbs of all inputs and outputs
* are < 2^26. */
static void fmonty(limb *x2, limb *z2, /* output 2Q */
limb *x3, limb *z3, /* output Q + Q' */
limb *x, limb *z, /* input Q */
limb *xprime, limb *zprime, /* input Q' */
const limb *qmqp /* input Q - Q' */) {
limb origx[10], origxprime[10], zzz[19], xx[19], zz[19], xxprime[19],
zzprime[19], zzzprime[19], xxxprime[19];
memcpy(origx, x, 10 * sizeof(limb));
fsum(x, z);
/* |x[i]| < 2^27 */
fdifference(z, origx); /* does x - z */
/* |z[i]| < 2^27 */
memcpy(origxprime, xprime, sizeof(limb) * 10);
fsum(xprime, zprime);
/* |xprime[i]| < 2^27 */
fdifference(zprime, origxprime);
/* |zprime[i]| < 2^27 */
fproduct(xxprime, xprime, z);
/* |xxprime[i]| < 14*2^54: the largest product of two limbs will be <
* 2^(27+27) and fproduct adds together, at most, 14 of those products.
* (Approximating that to 2^58 doesn't work out.) */
fproduct(zzprime, x, zprime);
/* |zzprime[i]| < 14*2^54 */
freduce_degree(xxprime);
freduce_coefficients(xxprime);
/* |xxprime[i]| < 2^26 */
freduce_degree(zzprime);
freduce_coefficients(zzprime);
/* |zzprime[i]| < 2^26 */
memcpy(origxprime, xxprime, sizeof(limb) * 10);
fsum(xxprime, zzprime);
/* |xxprime[i]| < 2^27 */
fdifference(zzprime, origxprime);
/* |zzprime[i]| < 2^27 */
fsquare(xxxprime, xxprime);
/* |xxxprime[i]| < 2^26 */
fsquare(zzzprime, zzprime);
/* |zzzprime[i]| < 2^26 */
fproduct(zzprime, zzzprime, qmqp);
/* |zzprime[i]| < 14*2^52 */
freduce_degree(zzprime);
freduce_coefficients(zzprime);
/* |zzprime[i]| < 2^26 */
memcpy(x3, xxxprime, sizeof(limb) * 10);
memcpy(z3, zzprime, sizeof(limb) * 10);
fsquare(xx, x);
/* |xx[i]| < 2^26 */
fsquare(zz, z);
/* |zz[i]| < 2^26 */
fproduct(x2, xx, zz);
/* |x2[i]| < 14*2^52 */
freduce_degree(x2);
freduce_coefficients(x2);
/* |x2[i]| < 2^26 */
fdifference(zz, xx); // does zz = xx - zz
/* |zz[i]| < 2^27 */
memset(zzz + 10, 0, sizeof(limb) * 9);
fscalar_product(zzz, zz, 121665);
/* |zzz[i]| < 2^(27+17) */
/* No need to call freduce_degree here:
fscalar_product doesn't increase the degree of its input. */
freduce_coefficients(zzz);
/* |zzz[i]| < 2^26 */
fsum(zzz, xx);
/* |zzz[i]| < 2^27 */
fproduct(z2, zz, zzz);
/* |z2[i]| < 14*2^(26+27) */
freduce_degree(z2);
freduce_coefficients(z2);
/* |z2|i| < 2^26 */
}
/* Conditionally swap two reduced-form limb arrays if 'iswap' is 1, but leave
* them unchanged if 'iswap' is 0. Runs in data-invariant time to avoid
* side-channel attacks.
*
* NOTE that this function requires that 'iswap' be 1 or 0; other values give
* wrong results. Also, the two limb arrays must be in reduced-coefficient,
* reduced-degree form: the values in a[10..19] or b[10..19] aren't swapped,
* and all all values in a[0..9],b[0..9] must have magnitude less than
* INT32_MAX. */
static void
swap_conditional(limb a[19], limb b[19], limb iswap) {
unsigned i;
const s32 swap = (s32) -iswap;
for (i = 0; i < 10; ++i) {
const s32 x = swap & ( ((s32)a[i]) ^ ((s32)b[i]) );
a[i] = ((s32)a[i]) ^ x;
b[i] = ((s32)b[i]) ^ x;
}
}
/* Calculates nQ where Q is the x-coordinate of a point on the curve
*
* resultx/resultz: the x coordinate of the resulting curve point (short form)
* n: a little endian, 32-byte number
* q: a point of the curve (short form) */
static void
cmult(limb *resultx, limb *resultz, const u8 *n, const limb *q) {
limb a[19] = {0}, b[19] = {1}, c[19] = {1}, d[19] = {0};
limb *nqpqx = a, *nqpqz = b, *nqx = c, *nqz = d, *t;
limb e[19] = {0}, f[19] = {1}, g[19] = {0}, h[19] = {1};
limb *nqpqx2 = e, *nqpqz2 = f, *nqx2 = g, *nqz2 = h;
unsigned i, j;
memcpy(nqpqx, q, sizeof(limb) * 10);
for (i = 0; i < 32; ++i) {
u8 byte = n[31 - i];
for (j = 0; j < 8; ++j) {
const limb bit = byte >> 7;
swap_conditional(nqx, nqpqx, bit);
swap_conditional(nqz, nqpqz, bit);
fmonty(nqx2, nqz2,
nqpqx2, nqpqz2,
nqx, nqz,
nqpqx, nqpqz,
q);
swap_conditional(nqx2, nqpqx2, bit);
swap_conditional(nqz2, nqpqz2, bit);
t = nqx;
nqx = nqx2;
nqx2 = t;
t = nqz;
nqz = nqz2;
nqz2 = t;
t = nqpqx;
nqpqx = nqpqx2;
nqpqx2 = t;
t = nqpqz;
nqpqz = nqpqz2;
nqpqz2 = t;
byte <<= 1;
}
}
memcpy(resultx, nqx, sizeof(limb) * 10);
memcpy(resultz, nqz, sizeof(limb) * 10);
}
// -----------------------------------------------------------------------------
// Shamelessly copied from djb's code
// -----------------------------------------------------------------------------
static void
crecip(limb *out, const limb *z) {
limb z2[10];
limb z9[10];
limb z11[10];
limb z2_5_0[10];
limb z2_10_0[10];
limb z2_20_0[10];
limb z2_50_0[10];
limb z2_100_0[10];
limb t0[10];
limb t1[10];
int i;
/* 2 */ fsquare(z2,z);
/* 4 */ fsquare(t1,z2);
/* 8 */ fsquare(t0,t1);
/* 9 */ fmul(z9,t0,z);
/* 11 */ fmul(z11,z9,z2);
/* 22 */ fsquare(t0,z11);
/* 2^5 - 2^0 = 31 */ fmul(z2_5_0,t0,z9);
/* 2^6 - 2^1 */ fsquare(t0,z2_5_0);
/* 2^7 - 2^2 */ fsquare(t1,t0);
/* 2^8 - 2^3 */ fsquare(t0,t1);
/* 2^9 - 2^4 */ fsquare(t1,t0);
/* 2^10 - 2^5 */ fsquare(t0,t1);
/* 2^10 - 2^0 */ fmul(z2_10_0,t0,z2_5_0);
/* 2^11 - 2^1 */ fsquare(t0,z2_10_0);
/* 2^12 - 2^2 */ fsquare(t1,t0);
/* 2^20 - 2^10 */ for (i = 2;i < 10;i += 2) { fsquare(t0,t1); fsquare(t1,t0); }
/* 2^20 - 2^0 */ fmul(z2_20_0,t1,z2_10_0);
/* 2^21 - 2^1 */ fsquare(t0,z2_20_0);
/* 2^22 - 2^2 */ fsquare(t1,t0);
/* 2^40 - 2^20 */ for (i = 2;i < 20;i += 2) { fsquare(t0,t1); fsquare(t1,t0); }
/* 2^40 - 2^0 */ fmul(t0,t1,z2_20_0);
/* 2^41 - 2^1 */ fsquare(t1,t0);
/* 2^42 - 2^2 */ fsquare(t0,t1);
/* 2^50 - 2^10 */ for (i = 2;i < 10;i += 2) { fsquare(t1,t0); fsquare(t0,t1); }
/* 2^50 - 2^0 */ fmul(z2_50_0,t0,z2_10_0);
/* 2^51 - 2^1 */ fsquare(t0,z2_50_0);
/* 2^52 - 2^2 */ fsquare(t1,t0);
/* 2^100 - 2^50 */ for (i = 2;i < 50;i += 2) { fsquare(t0,t1); fsquare(t1,t0); }
/* 2^100 - 2^0 */ fmul(z2_100_0,t1,z2_50_0);
/* 2^101 - 2^1 */ fsquare(t1,z2_100_0);
/* 2^102 - 2^2 */ fsquare(t0,t1);
/* 2^200 - 2^100 */ for (i = 2;i < 100;i += 2) { fsquare(t1,t0); fsquare(t0,t1); }
/* 2^200 - 2^0 */ fmul(t1,t0,z2_100_0);
/* 2^201 - 2^1 */ fsquare(t0,t1);
/* 2^202 - 2^2 */ fsquare(t1,t0);
/* 2^250 - 2^50 */ for (i = 2;i < 50;i += 2) { fsquare(t0,t1); fsquare(t1,t0); }
/* 2^250 - 2^0 */ fmul(t0,t1,z2_50_0);
/* 2^251 - 2^1 */ fsquare(t1,t0);
/* 2^252 - 2^2 */ fsquare(t0,t1);
/* 2^253 - 2^3 */ fsquare(t1,t0);
/* 2^254 - 2^4 */ fsquare(t0,t1);
/* 2^255 - 2^5 */ fsquare(t1,t0);
/* 2^255 - 21 */ fmul(out,t1,z11);
}
int
curve25519_donna(u8 *mypublic, const u8 *secret, const u8 *basepoint) {
limb bp[10], x[10], z[11], zmone[10];
uint8_t e[32];
int i;
for (i = 0; i < 32; ++i) e[i] = secret[i];
// e[0] &= 248;
// e[31] &= 127;
// e[31] |= 64;
fexpand(bp, basepoint);
cmult(x, z, e, bp);
crecip(zmone, z);
fmul(z, x, zmone);
fcontract(mypublic, z);
return 0;
}

6
libaxolotl/jni/curve25519-donna.h
View File

@ -1,6 +0,0 @@
#ifndef CURVE25519_DONNA_H
#define CURVE25519_DONNA_H
extern int curve25519_donna(uint8_t *, const uint8_t *, const uint8_t *);
#endif

109
libaxolotl/jni/curve25519-jni.c
View File

@ -1,109 +0,0 @@
/**
* Copyright (C) 2013-2014 Open Whisper Systems
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include <string.h>
#include <stdint.h>
#include <jni.h>
#include "curve25519-donna.h"
#include "curve_sigs.h"
JNIEXPORT jbyteArray JNICALL Java_org_whispersystems_libaxolotl_ecc_Curve25519_generatePrivateKey
(JNIEnv *env, jclass clazz, jbyteArray random)
{
uint8_t* privateKey = (uint8_t*)(*env)->GetByteArrayElements(env, random, 0);
privateKey[0] &= 248;
privateKey[31] &= 127;
privateKey[31] |= 64;
(*env)->ReleaseByteArrayElements(env, random, privateKey, 0);
return random;
}
JNIEXPORT jbyteArray JNICALL Java_org_whispersystems_libaxolotl_ecc_Curve25519_generatePublicKey
(JNIEnv *env, jclass clazz, jbyteArray privateKey)
{
static const uint8_t basepoint[32] = {9};
jbyteArray publicKey = (*env)->NewByteArray(env, 32);
uint8_t* publicKeyBytes = (uint8_t*)(*env)->GetByteArrayElements(env, publicKey, 0);
uint8_t* privateKeyBytes = (uint8_t*)(*env)->GetByteArrayElements(env, privateKey, 0);
curve25519_donna(publicKeyBytes, privateKeyBytes, basepoint);
(*env)->ReleaseByteArrayElements(env, publicKey, publicKeyBytes, 0);
(*env)->ReleaseByteArrayElements(env, privateKey, privateKeyBytes, 0);
return publicKey;
}
JNIEXPORT jbyteArray JNICALL Java_org_whispersystems_libaxolotl_ecc_Curve25519_calculateAgreement
(JNIEnv *env, jclass clazz, jbyteArray privateKey, jbyteArray publicKey)
{
jbyteArray sharedKey = (*env)->NewByteArray(env, 32);
uint8_t* sharedKeyBytes = (uint8_t*)(*env)->GetByteArrayElements(env, sharedKey, 0);
uint8_t* privateKeyBytes = (uint8_t*)(*env)->GetByteArrayElements(env, privateKey, 0);
uint8_t* publicKeyBytes = (uint8_t*)(*env)->GetByteArrayElements(env, publicKey, 0);
curve25519_donna(sharedKeyBytes, privateKeyBytes, publicKeyBytes);
(*env)->ReleaseByteArrayElements(env, sharedKey, sharedKeyBytes, 0);
(*env)->ReleaseByteArrayElements(env, publicKey, publicKeyBytes, 0);
(*env)->ReleaseByteArrayElements(env, privateKey, privateKeyBytes, 0);
return sharedKey;
}
JNIEXPORT jbyteArray JNICALL Java_org_whispersystems_libaxolotl_ecc_Curve25519_calculateSignature
(JNIEnv *env, jclass clazz, jbyteArray random, jbyteArray privateKey, jbyteArray message)
{
jbyteArray signature = (*env)->NewByteArray(env, 64);
uint8_t* signatureBytes = (uint8_t*)(*env)->GetByteArrayElements(env, signature, 0);
uint8_t* randomBytes = (uint8_t*)(*env)->GetByteArrayElements(env, random, 0);
uint8_t* privateKeyBytes = (uint8_t*)(*env)->GetByteArrayElements(env, privateKey, 0);
uint8_t* messageBytes = (uint8_t*)(*env)->GetByteArrayElements(env, message, 0);
jsize messageLength = (*env)->GetArrayLength(env, message);
int result = curve25519_sign(signatureBytes, privateKeyBytes, messageBytes, messageLength, randomBytes);
(*env)->ReleaseByteArrayElements(env, signature, signatureBytes, 0);
(*env)->ReleaseByteArrayElements(env, random, randomBytes, 0);
(*env)->ReleaseByteArrayElements(env, privateKey, privateKeyBytes, 0);
(*env)->ReleaseByteArrayElements(env, message, messageBytes, 0);
if (result == 0) return signature;
else (*env)->ThrowNew(env, (*env)->FindClass(env, "java/lang/AssertionError"), "Signature failed!");
}
JNIEXPORT jboolean JNICALL Java_org_whispersystems_libaxolotl_ecc_Curve25519_verifySignature
(JNIEnv *env, jclass clazz, jbyteArray publicKey, jbyteArray message, jbyteArray signature)
{
uint8_t* signatureBytes = (uint8_t*)(*env)->GetByteArrayElements(env, signature, 0);
uint8_t* publicKeyBytes = (uint8_t*)(*env)->GetByteArrayElements(env, publicKey, 0);
uint8_t* messageBytes = (uint8_t*)(*env)->GetByteArrayElements(env, message, 0);
jsize messageLength = (*env)->GetArrayLength(env, message);
jboolean result = (curve25519_verify(signatureBytes, publicKeyBytes, messageBytes, messageLength) == 0);
(*env)->ReleaseByteArrayElements(env, signature, signatureBytes, 0);
(*env)->ReleaseByteArrayElements(env, publicKey, publicKeyBytes, 0);
(*env)->ReleaseByteArrayElements(env, message, messageBytes, 0);
return result;
}

44
libaxolotl/jni/ed25519/additions/compare.c
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@ -1,44 +0,0 @@
#include <string.h>
#include "compare.h"
/* Const-time comparison from SUPERCOP, but here it's only used for
signature verification, so doesn't need to be const-time. But
copied the nacl version anyways. */
int crypto_verify_32_ref(const unsigned char *x, const unsigned char *y)
{
unsigned int differentbits = 0;
#define F(i) differentbits |= x[i] ^ y[i];
F(0)
F(1)
F(2)
F(3)
F(4)
F(5)
F(6)
F(7)
F(8)
F(9)
F(10)
F(11)
F(12)
F(13)
F(14)
F(15)
F(16)
F(17)
F(18)
F(19)
F(20)
F(21)
F(22)
F(23)
F(24)
F(25)
F(26)
F(27)
F(28)
F(29)
F(30)
F(31)
return (1 & ((differentbits - 1) >> 8)) - 1;
}

6
libaxolotl/jni/ed25519/additions/compare.h
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@ -1,6 +0,0 @@
#ifndef __COMPARE_H__
#define __COMPARE_H__
int crypto_verify_32_ref(const unsigned char *b1, const unsigned char *b2);
#endif

6
libaxolotl/jni/ed25519/additions/crypto_hash_sha512.h
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@ -1,6 +0,0 @@
#ifndef crypto_hash_sha512_H
#define crypto_hash_sha512_H
extern int crypto_hash_sha512(unsigned char *,const unsigned char *,unsigned long long);
#endif

116
libaxolotl/jni/ed25519/additions/curve_sigs.c
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@ -1,116 +0,0 @@
#include <string.h>
#include "ge.h"
#include "curve_sigs.h"
#include "crypto_sign.h"
void curve25519_keygen(unsigned char* curve25519_pubkey_out,
const unsigned char* curve25519_privkey_in)
{
ge_p3 ed; /* Ed25519 pubkey point */
fe ed_y, ed_y_plus_one, one_minus_ed_y, inv_one_minus_ed_y;
fe mont_x;
/* Perform a fixed-base multiplication of the Edwards base point,
(which is efficient due to precalculated tables), then convert
to the Curve25519 montgomery-format public key. In particular,
convert Curve25519's "montgomery" x-coordinate into an Ed25519
"edwards" y-coordinate:
mont_x = (ed_y + 1) / (1 - ed_y)
with projective coordinates:
mont_x = (ed_y + ed_z) / (ed_z - ed_y)
NOTE: ed_y=1 is converted to mont_x=0 since fe_invert is mod-exp
*/
ge_scalarmult_base(&ed, curve25519_privkey_in);
fe_add(ed_y_plus_one, ed.Y, ed.Z);
fe_sub(one_minus_ed_y, ed.Z, ed.Y);
fe_invert(inv_one_minus_ed_y, one_minus_ed_y);
fe_mul(mont_x, ed_y_plus_one, inv_one_minus_ed_y);
fe_tobytes(curve25519_pubkey_out, mont_x);
}
int curve25519_sign(unsigned char* signature_out,
const unsigned char* curve25519_privkey,
const unsigned char* msg, const unsigned long msg_len,
const unsigned char* random)
{
ge_p3 ed_pubkey_point; /* Ed25519 pubkey point */
unsigned char ed_pubkey[32]; /* Ed25519 encoded pubkey */
unsigned char sigbuf[MAX_MSG_LEN + 128]; /* working buffer */
unsigned char sign_bit = 0;
if (msg_len > MAX_MSG_LEN) {
memset(signature_out, 0, 64);
return -1;
}
/* Convert the Curve25519 privkey to an Ed25519 public key */
ge_scalarmult_base(&ed_pubkey_point, curve25519_privkey);
ge_p3_tobytes(ed_pubkey, &ed_pubkey_point);
sign_bit = ed_pubkey[31] & 0x80;
/* Perform an Ed25519 signature with explicit private key */
crypto_sign_modified(sigbuf, msg, msg_len, curve25519_privkey,
ed_pubkey, random);
memmove(signature_out, sigbuf, 64);
/* Encode the sign bit into signature (in unused high bit of S) */
signature_out[63] &= 0x7F; /* bit should be zero already, but just in case */
signature_out[63] |= sign_bit;
return 0;
}
int curve25519_verify(const unsigned char* signature,
const unsigned char* curve25519_pubkey,
const unsigned char* msg, const unsigned long msg_len)
{
fe mont_x, mont_x_minus_one, mont_x_plus_one, inv_mont_x_plus_one;
fe one;
fe ed_y;
unsigned char ed_pubkey[32];
unsigned long long some_retval;
unsigned char verifybuf[MAX_MSG_LEN + 64]; /* working buffer */
unsigned char verifybuf2[MAX_MSG_LEN + 64]; /* working buffer #2 */
if (msg_len > MAX_MSG_LEN) {
return -1;
}
/* Convert the Curve25519 public key into an Ed25519 public key. In
particular, convert Curve25519's "montgomery" x-coordinate into an
Ed25519 "edwards" y-coordinate:
ed_y = (mont_x - 1) / (mont_x + 1)
NOTE: mont_x=-1 is converted to ed_y=0 since fe_invert is mod-exp
Then move the sign bit into the pubkey from the signature.
*/
fe_frombytes(mont_x, curve25519_pubkey);
fe_1(one);
fe_sub(mont_x_minus_one, mont_x, one);
fe_add(mont_x_plus_one, mont_x, one);
fe_invert(inv_mont_x_plus_one, mont_x_plus_one);
fe_mul(ed_y, mont_x_minus_one, inv_mont_x_plus_one);
fe_tobytes(ed_pubkey, ed_y);
/* Copy the sign bit, and remove it from signature */
ed_pubkey[31] &= 0x7F; /* bit should be zero already, but just in case */
ed_pubkey[31] |= (signature[63] & 0x80);
memmove(verifybuf, signature, 64);
verifybuf[63] &= 0x7F;
memmove(verifybuf+64, msg, msg_len);
/* Then perform a normal Ed25519 verification, return 0 on success */
/* The below call has a strange API: */
/* verifybuf = R || S || message */
/* verifybuf2 = internal to next call gets a copy of verifybuf, S gets
replaced with pubkey for hashing, then the whole thing gets zeroized
(if bad sig), or contains a copy of msg (good sig) */
return crypto_sign_open(verifybuf2, &some_retval, verifybuf, 64 + msg_len, ed_pubkey);
}

50
libaxolotl/jni/ed25519/additions/curve_sigs.h
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@ -1,50 +0,0 @@
#ifndef __CURVE_SIGS_H__
#define __CURVE_SIGS_H__
#define MAX_MSG_LEN 256
void curve25519_keygen(unsigned char* curve25519_pubkey_out, /* 32 bytes */
const unsigned char* curve25519_privkey_in); /* 32 bytes */
/* returns 0 on success */
int curve25519_sign(unsigned char* signature_out, /* 64 bytes */
const unsigned char* curve25519_privkey, /* 32 bytes */
const unsigned char* msg, const unsigned long msg_len,
const unsigned char* random); /* 64 bytes */
/* returns 0 on success */
int curve25519_verify(const unsigned char* signature, /* 64 bytes */
const unsigned char* curve25519_pubkey, /* 32 bytes */
const unsigned char* msg, const unsigned long msg_len);
/* helper function - modified version of crypto_sign() to use
explicit private key. In particular:
sk : private key
pk : public key
msg : message
prefix : 0xFE || [0xFF]*31
random : 64 bytes random
q : main subgroup order
The prefix is chosen to distinguish the two SHA512 uses below, since
prefix is an invalid encoding for R (it would encode a "field element"
of 2^255 - 2). 0xFF*32 is set aside for use in ECDH protocols, which
is why the first byte here ix 0xFE.
sig_nonce = SHA512(prefix || sk || msg || random) % q
R = g^sig_nonce
M = SHA512(R || pk || m)
S = sig_nonce + (m * sk)
signature = (R || S)
*/
int crypto_sign_modified(
unsigned char *sm,
const unsigned char *m,unsigned long long mlen,
const unsigned char *sk, /* Curve/Ed25519 private key */
const unsigned char *pk, /* Ed25519 public key */
const unsigned char *random /* 64 bytes random to hash into nonce */
);
#endif

47
libaxolotl/jni/ed25519/additions/sign_modified.c
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@ -1,47 +0,0 @@
#include <string.h>
#include "crypto_sign.h"
#include "crypto_hash_sha512.h"
#include "ge.h"
#include "sc.h"
#include "zeroize.h"
/* NEW: Compare to pristine crypto_sign()
Uses explicit private key for nonce derivation and as scalar,
instead of deriving both from a master key.
*/
int crypto_sign_modified(
unsigned char *sm,
const unsigned char *m,unsigned long long mlen,
const unsigned char *sk, const unsigned char* pk,
const unsigned char* random
)
{
unsigned char nonce[64];
unsigned char hram[64];
ge_p3 R;
int count=0;
memmove(sm + 64,m,mlen);
memmove(sm + 32,sk,32); /* NEW: Use privkey directly for nonce derivation */
/* NEW : add prefix to separate hash uses - see .h */
sm[0] = 0xFE;
for (count = 1; count < 32; count++)
sm[count] = 0xFF;
/* NEW: add suffix of random data */
memmove(sm + mlen + 64, random, 64);
crypto_hash_sha512(nonce,sm,mlen + 128);
memmove(sm + 32,pk,32);
sc_reduce(nonce);
ge_scalarmult_base(&R,nonce);
ge_p3_tobytes(sm,&R);
crypto_hash_sha512(hram,sm,mlen + 64);
sc_reduce(hram);
sc_muladd(sm + 32,hram,sk,nonce); /* NEW: Use privkey directly */
return 0;
}

17
libaxolotl/jni/ed25519/additions/zeroize.c
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@ -1,17 +0,0 @@
#include "zeroize.h"
void zeroize(unsigned char* b, size_t len)
{
size_t count = 0;
unsigned long retval = 0;
volatile unsigned char *p = b;
for (count = 0; count < len; count++)
p[count] = 0;
}
void zeroize_stack()
{
unsigned char m[ZEROIZE_STACK_SIZE];
zeroize(m, sizeof m);
}

12
libaxolotl/jni/ed25519/additions/zeroize.h
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@ -1,12 +0,0 @@
#ifndef __ZEROIZE_H__
#define __ZEROIZE_H__
#include <stdlib.h>
#define ZEROIZE_STACK_SIZE 2048
void zeroize(unsigned char* b, size_t len);
void zeroize_stack();
#endif

4
libaxolotl/jni/ed25519/api.h
View File

@ -1,4 +0,0 @@
#define CRYPTO_SECRETKEYBYTES 64
#define CRYPTO_PUBLICKEYBYTES 32
#define CRYPTO_BYTES 64
#define CRYPTO_DETERMINISTIC 1

1344
libaxolotl/jni/ed25519/base.h
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File diff suppressed because it is too large Load Diff

40
libaxolotl/jni/ed25519/base2.h
View File

@ -1,40 +0,0 @@
{
{ 25967493,-14356035,29566456,3660896,-12694345,4014787,27544626,-11754271,-6079156,2047605 },
{ -12545711,934262,-2722910,3049990,-727428,9406986,12720692,5043384,19500929,-15469378 },
{ -8738181,4489570,9688441,-14785194,10184609,-12363380,29287919,11864899,-24514362,-4438546 },
},
{
{ 15636291,-9688557,24204773,-7912398,616977,-16685262,27787600,-14772189,28944400,-1550024 },
{ 16568933,4717097,-11556148,-1102322,15682896,-11807043,16354577,-11775962,7689662,11199574 },
{ 30464156,-5976125,-11779434,-15670865,23220365,15915852,7512774,10017326,-17749093,-9920357 },
},
{
{ 10861363,11473154,27284546,1981175,-30064349,12577861,32867885,14515107,-15438304,10819380 },
{ 4708026,6336745,20377586,9066809,-11272109,6594696,-25653668,12483688,-12668491,5581306 },
{ 19563160,16186464,-29386857,4097519,10237984,-4348115,28542350,13850243,-23678021,-15815942 },
},
{
{ 5153746,9909285,1723747,-2777874,30523605,5516873,19480852,5230134,-23952439,-15175766 },
{ -30269007,-3463509,7665486,10083793,28475525,1649722,20654025,16520125,30598449,7715701 },
{ 28881845,14381568,9657904,3680757,-20181635,7843316,-31400660,1370708,29794553,-1409300 },
},
{
{ -22518993,-6692182,14201702,-8745502,-23510406,8844726,18474211,-1361450,-13062696,13821877 },
{ -6455177,-7839871,3374702,-4740862,-27098617,-10571707,31655028,-7212327,18853322,-14220951 },
{ 4566830,-12963868,-28974889,-12240689,-7602672,-2830569,-8514358,-10431137,2207753,-3209784 },
},
{
{ -25154831,-4185821,29681144,7868801,-6854661,-9423865,-12437364,-663000,-31111463,-16132436 },
{ 25576264,-2703214,7349804,-11814844,16472782,9300885,3844789,15725684,171356,6466918 },
{ 23103977,13316479,9739013,-16149481,817875,-15038942,8965339,-14088058,-30714912,16193877 },
},
{
{ -33521811,3180713,-2394130,14003687,-16903474,-16270840,17238398,4729455,-18074513,9256800 },
{ -25182317,-4174131,32336398,5036987,-21236817,11360617,22616405,9761698,-19827198,630305 },
{ -13720693,2639453,-24237460,-7406481,9494427,-5774029,-6554551,-15960994,-2449256,-14291300 },
},
{
{ -3151181,-5046075,9282714,6866145,-31907062,-863023,-18940575,15033784,25105118,-7894876 },
{ -24326370,15950226,-31801215,-14592823,-11662737,-5090925,1573892,-2625887,2198790,-15804619 },
{ -3099351,10324967,-2241613,7453183,-5446979,-2735503,-13812022,-16236442,-32461234,-12290683 },
},

1
libaxolotl/jni/ed25519/d.h
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@ -1 +0,0 @@
-10913610,13857413,-15372611,6949391,114729,-8787816,-6275908,-3247719,-18696448,-12055116

1
libaxolotl/jni/ed25519/d2.h
View File

@ -1 +0,0 @@
-21827239,-5839606,-30745221,13898782,229458,15978800,-12551817,-6495438,29715968,9444199

56
libaxolotl/jni/ed25519/fe.h
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@ -1,56 +0,0 @@
#ifndef FE_H
#define FE_H
#include "crypto_int32.h"
typedef crypto_int32 fe[10];
/*
fe means field element.
Here the field is \Z/(2^255-19).
An element t, entries t[0]...t[9], represents the integer
t[0]+2^26 t[1]+2^51 t[2]+2^77 t[3]+2^102 t[4]+...+2^230 t[9].
Bounds on each t[i] vary depending on context.
*/
#define fe_frombytes crypto_sign_ed25519_ref10_fe_frombytes
#define fe_tobytes crypto_sign_ed25519_ref10_fe_tobytes
#define fe_copy crypto_sign_ed25519_ref10_fe_copy
#define fe_isnonzero crypto_sign_ed25519_ref10_fe_isnonzero
#define fe_isnegative crypto_sign_ed25519_ref10_fe_isnegative
#define fe_0 crypto_sign_ed25519_ref10_fe_0
#define fe_1 crypto_sign_ed25519_ref10_fe_1
#define fe_cswap crypto_sign_ed25519_ref10_fe_cswap
#define fe_cmov crypto_sign_ed25519_ref10_fe_cmov
#define fe_add crypto_sign_ed25519_ref10_fe_add
#define fe_sub crypto_sign_ed25519_ref10_fe_sub
#define fe_neg crypto_sign_ed25519_ref10_fe_neg
#define fe_mul crypto_sign_ed25519_ref10_fe_mul
#define fe_sq crypto_sign_ed25519_ref10_fe_sq
#define fe_sq2 crypto_sign_ed25519_ref10_fe_sq2
#define fe_mul121666 crypto_sign_ed25519_ref10_fe_mul121666
#define fe_invert crypto_sign_ed25519_ref10_fe_invert
#define fe_pow22523 crypto_sign_ed25519_ref10_fe_pow22523
extern void fe_frombytes(fe,const unsigned char *);
extern void fe_tobytes(unsigned char *,const fe);
extern void fe_copy(fe,const fe);
extern int fe_isnonzero(const fe);
extern int fe_isnegative(const fe);
extern void fe_0(fe);
extern void fe_1(fe);
extern void fe_cswap(fe,fe,unsigned int);
extern void fe_cmov(fe,const fe,unsigned int);
extern void fe_add(fe,const fe,const fe);
extern void fe_sub(fe,const fe,const fe);
extern void fe_neg(fe,const fe);
extern void fe_mul(fe,const fe,const fe);
extern void fe_sq(fe,const fe);
extern void fe_sq2(fe,const fe);
extern void fe_mul121666(fe,const fe);
extern void fe_invert(fe,const fe);
extern void fe_pow22523(fe,const fe);
#endif

19
libaxolotl/jni/ed25519/fe_0.c
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@ -1,19 +0,0 @@
#include "fe.h"
/*
h = 0
*/
void fe_0(fe h)
{
h[0] = 0;
h[1] = 0;
h[2] = 0;
h[3] = 0;
h[4] = 0;
h[5] = 0;
h[6] = 0;
h[7] = 0;
h[8] = 0;
h[9] = 0;
}

19
libaxolotl/jni/ed25519/fe_1.c
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@ -1,19 +0,0 @@
#include "fe.h"
/*
h = 1
*/
void fe_1(fe h)
{
h[0] = 1;
h[1] = 0;
h[2] = 0;
h[3] = 0;
h[4] = 0;
h[5] = 0;
h[6] = 0;
h[7] = 0;
h[8] = 0;
h[9] = 0;
}

57
libaxolotl/jni/ed25519/fe_add.c
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@ -1,57 +0,0 @@
#include "fe.h"
/*
h = f + g
Can overlap h with f or g.
Preconditions:
|f| bounded by 1.1*2^25,1.1*2^24,1.1*2^25,1.1*2^24,etc.
|g| bounded by 1.1*2^25,1.1*2^24,1.1*2^25,1.1*2^24,etc.
Postconditions:
|h| bounded by 1.1*2^26,1.1*2^25,1.1*2^26,1.1*2^25,etc.
*/
void fe_add(fe h,const fe f,const fe g)
{
crypto_int32 f0 = f[0];
crypto_int32 f1 = f[1];
crypto_int32 f2 = f[2];
crypto_int32 f3 = f[3];
crypto_int32 f4 = f[4];
crypto_int32 f5 = f[5];
crypto_int32 f6 = f[6];
crypto_int32 f7 = f[7];
crypto_int32 f8 = f[8];
crypto_int32 f9 = f[9];
crypto_int32 g0 = g[0];
crypto_int32 g1 = g[1];
crypto_int32 g2 = g[2];
crypto_int32 g3 = g[3];
crypto_int32 g4 = g[4];
crypto_int32 g5 = g[5];
crypto_int32 g6 = g[6];
crypto_int32 g7 = g[7];
crypto_int32 g8 = g[8];
crypto_int32 g9 = g[9];
crypto_int32 h0 = f0 + g0;
crypto_int32 h1 = f1 + g1;
crypto_int32 h2 = f2 + g2;
crypto_int32 h3 = f3 + g3;
crypto_int32 h4 = f4 + g4;
crypto_int32 h5 = f5 + g5;
crypto_int32 h6 = f6 + g6;
crypto_int32 h7 = f7 + g7;
crypto_int32 h8 = f8 + g8;
crypto_int32 h9 = f9 + g9;
h[0] = h0;
h[1] = h1;
h[2] = h2;
h[3] = h3;
h[4] = h4;
h[5] = h5;
h[6] = h6;
h[7] = h7;
h[8] = h8;
h[9] = h9;
}

63
libaxolotl/jni/ed25519/fe_cmov.c
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@ -1,63 +0,0 @@
#include "fe.h"
/*
Replace (f,g) with (g,g) if b == 1;
replace (f,g) with (f,g) if b == 0.
Preconditions: b in {0,1}.
*/
void fe_cmov(fe f,const fe g,unsigned int b)
{
crypto_int32 f0 = f[0];
crypto_int32 f1 = f[1];
crypto_int32 f2 = f[2];
crypto_int32 f3 = f[3];
crypto_int32 f4 = f[4];
crypto_int32 f5 = f[5];
crypto_int32 f6 = f[6];
crypto_int32 f7 = f[7];
crypto_int32 f8 = f[8];
crypto_int32 f9 = f[9];
crypto_int32 g0 = g[0];
crypto_int32 g1 = g[1];
crypto_int32 g2 = g[2];
crypto_int32 g3 = g[3];
crypto_int32 g4 = g[4];
crypto_int32 g5 = g[5];
crypto_int32 g6 = g[6];
crypto_int32 g7 = g[7];
crypto_int32 g8 = g[8];
crypto_int32 g9 = g[9];
crypto_int32 x0 = f0 ^ g0;
crypto_int32 x1 = f1 ^ g1;
crypto_int32 x2 = f2 ^ g2;
crypto_int32 x3 = f3 ^ g3;
crypto_int32 x4 = f4 ^ g4;
crypto_int32 x5 = f5 ^ g5;
crypto_int32 x6 = f6 ^ g6;
crypto_int32 x7 = f7 ^ g7;
crypto_int32 x8 = f8 ^ g8;
crypto_int32 x9 = f9 ^ g9;
b = -b;
x0 &= b;
x1 &= b;
x2 &= b;
x3 &= b;
x4 &= b;
x5 &= b;
x6 &= b;
x7 &= b;
x8 &= b;
x9 &= b;
f[0] = f0 ^ x0;
f[1] = f1 ^ x1;
f[2] = f2 ^ x2;
f[3] = f3 ^ x3;
f[4] = f4 ^ x4;
f[5] = f5 ^ x5;
f[6] = f6 ^ x6;
f[7] = f7 ^ x7;
f[8] = f8 ^ x8;
f[9] = f9 ^ x9;
}

29
libaxolotl/jni/ed25519/fe_copy.c
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#include "fe.h"
/*
h = f
*/
void fe_copy(fe h,const fe f)
{
crypto_int32 f0 = f[0];
crypto_int32 f1 = f[1];
crypto_int32 f2 = f[2];
crypto_int32 f3 = f[3];
crypto_int32 f4 = f[4];
crypto_int32 f5 = f[5];
crypto_int32 f6 = f[6];
crypto_int32 f7 = f[7];
crypto_int32 f8 = f[8];
crypto_int32 f9 = f[9];
h[0] = f0;
h[1] = f1;
h[2] = f2;
h[3] = f3;
h[4] = f4;
h[5] = f5;
h[6] = f6;
h[7] = f7;
h[8] = f8;
h[9] = f9;
}

73
libaxolotl/jni/ed25519/fe_frombytes.c
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#include "fe.h"
#include "crypto_int64.h"
#include "crypto_uint64.h"
static crypto_uint64 load_3(const unsigned char *in)
{
crypto_uint64 result;
result = (crypto_uint64) in[0];
result |= ((crypto_uint64) in[1]) << 8;
result |= ((crypto_uint64) in[2]) << 16;
return result;
}
static crypto_uint64 load_4(const unsigned char *in)
{
crypto_uint64 result;
result = (crypto_uint64) in[0];
result |= ((crypto_uint64) in[1]) << 8;
result |= ((crypto_uint64) in[2]) << 16;
result |= ((crypto_uint64) in[3]) << 24;
return result;
}
/*
Ignores top bit of h.
*/
void fe_frombytes(fe h,const unsigned char *s)
{
crypto_int64 h0 = load_4(s);
crypto_int64 h1 = load_3(s + 4) << 6;
crypto_int64 h2 = load_3(s + 7) << 5;
crypto_int64 h3 = load_3(s + 10) << 3;
crypto_int64 h4 = load_3(s + 13) << 2;
crypto_int64 h5 = load_4(s + 16);
crypto_int64 h6 = load_3(s + 20) << 7;
crypto_int64 h7 = load_3(s + 23) << 5;
crypto_int64 h8 = load_3(s + 26) << 4;
crypto_int64 h9 = (load_3(s + 29) & 8388607) << 2;
crypto_int64 carry0;
crypto_int64 carry1;
crypto_int64 carry2;
crypto_int64 carry3;
crypto_int64 carry4;
crypto_int64 carry5;
crypto_int64 carry6;
crypto_int64 carry7;
crypto_int64 carry8;
crypto_int64 carry9;
carry9 = (h9 + (crypto_int64) (1<<24)) >> 25; h0 += carry9 * 19; h9 -= carry9 << 25;
carry1 = (h1 + (crypto_int64) (1<<24)) >> 25; h2 += carry1; h1 -= carry1 << 25;
carry3 = (h3 + (crypto_int64) (1<<24)) >> 25; h4 += carry3; h3 -= carry3 << 25;
carry5 = (h5 + (crypto_int64) (1<<24)) >> 25; h6 += carry5; h5 -= carry5 << 25;
carry7 = (h7 + (crypto_int64) (1<<24)) >> 25; h8 += carry7; h7 -= carry7 << 25;
carry0 = (h0 + (crypto_int64) (1<<25)) >> 26; h1 += carry0; h0 -= carry0 << 26;
carry2 = (h2 + (crypto_int64) (1<<25)) >> 26; h3 += carry2; h2 -= carry2 << 26;
carry4 = (h4 + (crypto_int64) (1<<25)) >> 26; h5 += carry4; h4 -= carry4 << 26;
carry6 = (h6 + (crypto_int64) (1<<25)) >> 26; h7 += carry6; h6 -= carry6 << 26;
carry8 = (h8 + (crypto_int64) (1<<25)) >> 26; h9 += carry8; h8 -= carry8 << 26;
h[0] = h0;
h[1] = h1;
h[2] = h2;
h[3] = h3;
h[4] = h4;
h[5] = h5;
h[6] = h6;
h[7] = h7;
h[8] = h8;
h[9] = h9;
}

14
libaxolotl/jni/ed25519/fe_invert.c
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#include "fe.h"
void fe_invert(fe out,const fe z)
{
fe t0;
fe t1;
fe t2;
fe t3;
int i;
#include "pow225521.h"
return;
}

16
libaxolotl/jni/ed25519/fe_isnegative.c
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#include "fe.h"
/*
return 1 if f is in {1,3,5,...,q-2}
return 0 if f is in {0,2,4,...,q-1}
Preconditions:
|f| bounded by 1.1*2^26,1.1*2^25,1.1*2^26,1.1*2^25,etc.
*/
int fe_isnegative(const fe f)
{
unsigned char s[32];
fe_tobytes(s,f);
return s[0] & 1;
}

19
libaxolotl/jni/ed25519/fe_isnonzero.c
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#include "fe.h"
#include "crypto_verify_32.h"
/*
return 1 if f == 0
return 0 if f != 0
Preconditions:
|f| bounded by 1.1*2^26,1.1*2^25,1.1*2^26,1.1*2^25,etc.
*/
static const unsigned char zero[32];
int fe_isnonzero(const fe f)
{
unsigned char s[32];
fe_tobytes(s,f);
return crypto_verify_32(s,zero);
}

253
libaxolotl/jni/ed25519/fe_mul.c
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#include "fe.h"
#include "crypto_int64.h"
/*
h = f * g
Can overlap h with f or g.
Preconditions:
|f| bounded by 1.65*2^26,1.65*2^25,1.65*2^26,1.65*2^25,etc.
|g| bounded by 1.65*2^26,1.65*2^25,1.65*2^26,1.65*2^25,etc.
Postconditions:
|h| bounded by 1.01*2^25,1.01*2^24,1.01*2^25,1.01*2^24,etc.
*/
/*
Notes on implementation strategy:
Using schoolbook multiplication.
Karatsuba would save a little in some cost models.
Most multiplications by 2 and 19 are 32-bit precomputations;
cheaper than 64-bit postcomputations.
There is one remaining multiplication by 19 in the carry chain;
one *19 precomputation can be merged into this,
but the resulting data flow is considerably less clean.
There are 12 carries below.
10 of them are 2-way parallelizable and vectorizable.
Can get away with 11 carries, but then data flow is much deeper.
With tighter constraints on inputs can squeeze carries into int32.
*/
void fe_mul(fe h,const fe f,const fe g)
{
crypto_int32 f0 = f[0];
crypto_int32 f1 = f[1];
crypto_int32 f2 = f[2];
crypto_int32 f3 = f[3];
crypto_int32 f4 = f[4];
crypto_int32 f5 = f[5];
crypto_int32 f6 = f[6];
crypto_int32 f7 = f[7];
crypto_int32 f8 = f[8];
crypto_int32 f9 = f[9];
crypto_int32 g0 = g[0];
crypto_int32 g1 = g[1];
crypto_int32 g2 = g[2];
crypto_int32 g3 = g[3];
crypto_int32 g4 = g[4];
crypto_int32 g5 = g[5];
crypto_int32 g6 = g[6];
crypto_int32 g7 = g[7];
crypto_int32 g8 = g[8];
crypto_int32 g9 = g[9];
crypto_int32 g1_19 = 19 * g1; /* 1.959375*2^29 */
crypto_int32 g2_19 = 19 * g2; /* 1.959375*2^30; still ok */
crypto_int32 g3_19 = 19 * g3;
crypto_int32 g4_19 = 19 * g4;
crypto_int32 g5_19 = 19 * g5;
crypto_int32 g6_19 = 19 * g6;
crypto_int32 g7_19 = 19 * g7;
crypto_int32 g8_19 = 19 * g8;
crypto_int32 g9_19 = 19 * g9;
crypto_int32 f1_2 = 2 * f1;
crypto_int32 f3_2 = 2 * f3;
crypto_int32 f5_2 = 2 * f5;
crypto_int32 f7_2 = 2 * f7;
crypto_int32 f9_2 = 2 * f9;
crypto_int64 f0g0 = f0 * (crypto_int64) g0;
crypto_int64 f0g1 = f0 * (crypto_int64) g1;
crypto_int64 f0g2 = f0 * (crypto_int64) g2;
crypto_int64 f0g3 = f0 * (crypto_int64) g3;
crypto_int64 f0g4 = f0 * (crypto_int64) g4;
crypto_int64 f0g5 = f0 * (crypto_int64) g5;
crypto_int64 f0g6 = f0 * (crypto_int64) g6;
crypto_int64 f0g7 = f0 * (crypto_int64) g7;
crypto_int64 f0g8 = f0 * (crypto_int64) g8;
crypto_int64 f0g9 = f0 * (crypto_int64) g9;
crypto_int64 f1g0 = f1 * (crypto_int64) g0;
crypto_int64 f1g1_2 = f1_2 * (crypto_int64) g1;
crypto_int64 f1g2 = f1 * (crypto_int64) g2;
crypto_int64 f1g3_2 = f1_2 * (crypto_int64) g3;
crypto_int64 f1g4 = f1 * (crypto_int64) g4;
crypto_int64 f1g5_2 = f1_2 * (crypto_int64) g5;
crypto_int64 f1g6 = f1 * (crypto_int64) g6;
crypto_int64 f1g7_2 = f1_2 * (crypto_int64) g7;
crypto_int64 f1g8 = f1 * (crypto_int64) g8;
crypto_int64 f1g9_38 = f1_2 * (crypto_int64) g9_19;
crypto_int64 f2g0 = f2 * (crypto_int64) g0;
crypto_int64 f2g1 = f2 * (crypto_int64) g1;
crypto_int64 f2g2 = f2 * (crypto_int64) g2;
crypto_int64 f2g3 = f2 * (crypto_int64) g3;
crypto_int64 f2g4 = f2 * (crypto_int64) g4;
crypto_int64 f2g5 = f2 * (crypto_int64) g5;
crypto_int64 f2g6 = f2 * (crypto_int64) g6;
crypto_int64 f2g7 = f2 * (crypto_int64) g7;
crypto_int64 f2g8_19 = f2 * (crypto_int64) g8_19;
crypto_int64 f2g9_19 = f2 * (crypto_int64) g9_19;
crypto_int64 f3g0 = f3 * (crypto_int64) g0;
crypto_int64 f3g1_2 = f3_2 * (crypto_int64) g1;
crypto_int64 f3g2 = f3 * (crypto_int64) g2;
crypto_int64 f3g3_2 = f3_2 * (crypto_int64) g3;
crypto_int64 f3g4 = f3 * (crypto_int64) g4;
crypto_int64 f3g5_2 = f3_2 * (crypto_int64) g5;
crypto_int64 f3g6 = f3 * (crypto_int64) g6;
crypto_int64 f3g7_38 = f3_2 * (crypto_int64) g7_19;
crypto_int64 f3g8_19 = f3 * (crypto_int64) g8_19;
crypto_int64 f3g9_38 = f3_2 * (crypto_int64) g9_19;
crypto_int64 f4g0 = f4 * (crypto_int64) g0;
crypto_int64 f4g1 = f4 * (crypto_int64) g1;
crypto_int64 f4g2 = f4 * (crypto_int64) g2;
crypto_int64 f4g3 = f4 * (crypto_int64) g3;
crypto_int64 f4g4 = f4 * (crypto_int64) g4;
crypto_int64 f4g5 = f4 * (crypto_int64) g5;
crypto_int64 f4g6_19 = f4 * (crypto_int64) g6_19;
crypto_int64 f4g7_19 = f4 * (crypto_int64) g7_19;
crypto_int64 f4g8_19 = f4 * (crypto_int64) g8_19;
crypto_int64 f4g9_19 = f4 * (crypto_int64) g9_19;
crypto_int64 f5g0 = f5 * (crypto_int64) g0;
crypto_int64 f5g1_2 = f5_2 * (crypto_int64) g1;
crypto_int64 f5g2 = f5 * (crypto_int64) g2;
crypto_int64 f5g3_2 = f5_2 * (crypto_int64) g3;
crypto_int64 f5g4 = f5 * (crypto_int64) g4;
crypto_int64 f5g5_38 = f5_2 * (crypto_int64) g5_19;
crypto_int64 f5g6_19 = f5 * (crypto_int64) g6_19;
crypto_int64 f5g7_38 = f5_2 * (crypto_int64) g7_19;
crypto_int64 f5g8_19 = f5 * (crypto_int64) g8_19;
crypto_int64 f5g9_38 = f5_2 * (crypto_int64) g9_19;
crypto_int64 f6g0 = f6 * (crypto_int64) g0;
crypto_int64 f6g1 = f6 * (crypto_int64) g1;
crypto_int64 f6g2 = f6 * (crypto_int64) g2;
crypto_int64 f6g3 = f6 * (crypto_int64) g3;
crypto_int64 f6g4_19 = f6 * (crypto_int64) g4_19;
crypto_int64 f6g5_19 = f6 * (crypto_int64) g5_19;
crypto_int64 f6g6_19 = f6 * (crypto_int64) g6_19;
crypto_int64 f6g7_19 = f6 * (crypto_int64) g7_19;
crypto_int64 f6g8_19 = f6 * (crypto_int64) g8_19;
crypto_int64 f6g9_19 = f6 * (crypto_int64) g9_19;
crypto_int64 f7g0 = f7 * (crypto_int64) g0;
crypto_int64 f7g1_2 = f7_2 * (crypto_int64) g1;
crypto_int64 f7g2 = f7 * (crypto_int64) g2;
crypto_int64 f7g3_38 = f7_2 * (crypto_int64) g3_19;
crypto_int64 f7g4_19 = f7 * (crypto_int64) g4_19;
crypto_int64 f7g5_38 = f7_2 * (crypto_int64) g5_19;
crypto_int64 f7g6_19 = f7 * (crypto_int64) g6_19;
crypto_int64 f7g7_38 = f7_2 * (crypto_int64) g7_19;
crypto_int64 f7g8_19 = f7 * (crypto_int64) g8_19;
crypto_int64 f7g9_38 = f7_2 * (crypto_int64) g9_19;
crypto_int64 f8g0 = f8 * (crypto_int64) g0;
crypto_int64 f8g1 = f8 * (crypto_int64) g1;
crypto_int64 f8g2_19 = f8 * (crypto_int64) g2_19;
crypto_int64 f8g3_19 = f8 * (crypto_int64) g3_19;
crypto_int64 f8g4_19 = f8 * (crypto_int64) g4_19;
crypto_int64 f8g5_19 = f8 * (crypto_int64) g5_19;
crypto_int64 f8g6_19 = f8 * (crypto_int64) g6_19;
crypto_int64 f8g7_19 = f8 * (crypto_int64) g7_19;
crypto_int64 f8g8_19 = f8 * (crypto_int64) g8_19;
crypto_int64 f8g9_19 = f8 * (crypto_int64) g9_19;
crypto_int64 f9g0 = f9 * (crypto_int64) g0;
crypto_int64 f9g1_38 = f9_2 * (crypto_int64) g1_19;
crypto_int64 f9g2_19 = f9 * (crypto_int64) g2_19;
crypto_int64 f9g3_38 = f9_2 * (crypto_int64) g3_19;
crypto_int64 f9g4_19 = f9 * (crypto_int64) g4_19;
crypto_int64 f9g5_38 = f9_2 * (crypto_int64) g5_19;
crypto_int64 f9g6_19 = f9 * (crypto_int64) g6_19;
crypto_int64 f9g7_38 = f9_2 * (crypto_int64) g7_19;
crypto_int64 f9g8_19 = f9 * (crypto_int64) g8_19;
crypto_int64 f9g9_38 = f9_2 * (crypto_int64) g9_19;
crypto_int64 h0 = f0g0+f1g9_38+f2g8_19+f3g7_38+f4g6_19+f5g5_38+f6g4_19+f7g3_38+f8g2_19+f9g1_38;
crypto_int64 h1 = f0g1+f1g0 +f2g9_19+f3g8_19+f4g7_19+f5g6_19+f6g5_19+f7g4_19+f8g3_19+f9g2_19;
crypto_int64 h2 = f0g2+f1g1_2 +f2g0 +f3g9_38+f4g8_19+f5g7_38+f6g6_19+f7g5_38+f8g4_19+f9g3_38;
crypto_int64 h3 = f0g3+f1g2 +f2g1 +f3g0 +f4g9_19+f5g8_19+f6g7_19+f7g6_19+f8g5_19+f9g4_19;
crypto_int64 h4 = f0g4+f1g3_2 +f2g2 +f3g1_2 +f4g0 +f5g9_38+f6g8_19+f7g7_38+f8g6_19+f9g5_38;
crypto_int64 h5 = f0g5+f1g4 +f2g3 +f3g2 +f4g1 +f5g0 +f6g9_19+f7g8_19+f8g7_19+f9g6_19;
crypto_int64 h6 = f0g6+f1g5_2 +f2g4 +f3g3_2 +f4g2 +f5g1_2 +f6g0 +f7g9_38+f8g8_19+f9g7_38;
crypto_int64 h7 = f0g7+f1g6 +f2g5 +f3g4 +f4g3 +f5g2 +f6g1 +f7g0 +f8g9_19+f9g8_19;
crypto_int64 h8 = f0g8+f1g7_2 +f2g6 +f3g5_2 +f4g4 +f5g3_2 +f6g2 +f7g1_2 +f8g0 +f9g9_38;
crypto_int64 h9 = f0g9+f1g8 +f2g7 +f3g6 +f4g5 +f5g4 +f6g3 +f7g2 +f8g1 +f9g0 ;
crypto_int64 carry0;
crypto_int64 carry1;
crypto_int64 carry2;
crypto_int64 carry3;
crypto_int64 carry4;
crypto_int64 carry5;
crypto_int64 carry6;
crypto_int64 carry7;
crypto_int64 carry8;
crypto_int64 carry9;
/*
|h0| <= (1.65*1.65*2^52*(1+19+19+19+19)+1.65*1.65*2^50*(38+38+38+38+38))
i.e. |h0| <= 1.4*2^60; narrower ranges for h2, h4, h6, h8
|h1| <= (1.65*1.65*2^51*(1+1+19+19+19+19+19+19+19+19))
i.e. |h1| <= 1.7*2^59; narrower ranges for h3, h5, h7, h9
*/
carry0 = (h0 + (crypto_int64) (1<<25)) >> 26; h1 += carry0; h0 -= carry0 << 26;
carry4 = (h4 + (crypto_int64) (1<<25)) >> 26; h5 += carry4; h4 -= carry4 << 26;
/* |h0| <= 2^25 */
/* |h4| <= 2^25 */
/* |h1| <= 1.71*2^59 */
/* |h5| <= 1.71*2^59 */
carry1 = (h1 + (crypto_int64) (1<<24)) >> 25; h2 += carry1; h1 -= carry1 << 25;
carry5 = (h5 + (crypto_int64) (1<<24)) >> 25; h6 += carry5; h5 -= carry5 << 25;
/* |h1| <= 2^24; from now on fits into int32 */
/* |h5| <= 2^24; from now on fits into int32 */
/* |h2| <= 1.41*2^60 */
/* |h6| <= 1.41*2^60 */
carry2 = (h2 + (crypto_int64) (1<<25)) >> 26; h3 += carry2; h2 -= carry2 << 26;
carry6 = (h6 + (crypto_int64) (1<<25)) >> 26; h7 += carry6; h6 -= carry6 << 26;
/* |h2| <= 2^25; from now on fits into int32 unchanged */
/* |h6| <= 2^25; from now on fits into int32 unchanged */
/* |h3| <= 1.71*2^59 */
/* |h7| <= 1.71*2^59 */
carry3 = (h3 + (crypto_int64) (1<<24)) >> 25; h4 += carry3; h3 -= carry3 << 25;
carry7 = (h7 + (crypto_int64) (1<<24)) >> 25; h8 += carry7; h7 -= carry7 << 25;
/* |h3| <= 2^24; from now on fits into int32 unchanged */
/* |h7| <= 2^24; from now on fits into int32 unchanged */
/* |h4| <= 1.72*2^34 */
/* |h8| <= 1.41*2^60 */
carry4 = (h4 + (crypto_int64) (1<<25)) >> 26; h5 += carry4; h4 -= carry4 << 26;
carry8 = (h8 + (crypto_int64) (1<<25)) >> 26; h9 += carry8; h8 -= carry8 << 26;
/* |h4| <= 2^25; from now on fits into int32 unchanged */
/* |h8| <= 2^25; from now on fits into int32 unchanged */
/* |h5| <= 1.01*2^24 */
/* |h9| <= 1.71*2^59 */
carry9 = (h9 + (crypto_int64) (1<<24)) >> 25; h0 += carry9 * 19; h9 -= carry9 << 25;
/* |h9| <= 2^24; from now on fits into int32 unchanged */
/* |h0| <= 1.1*2^39 */
carry0 = (h0 + (crypto_int64) (1<<25)) >> 26; h1 += carry0; h0 -= carry0 << 26;
/* |h0| <= 2^25; from now on fits into int32 unchanged */
/* |h1| <= 1.01*2^24 */
h[0] = h0;
h[1] = h1;
h[2] = h2;
h[3] = h3;
h[4] = h4;
h[5] = h5;
h[6] = h6;
h[7] = h7;
h[8] = h8;
h[9] = h9;
}

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libaxolotl/jni/ed25519/fe_neg.c
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#include "fe.h"
/*
h = -f
Preconditions:
|f| bounded by 1.1*2^25,1.1*2^24,1.1*2^25,1.1*2^24,etc.
Postconditions:
|h| bounded by 1.1*2^25,1.1*2^24,1.1*2^25,1.1*2^24,etc.
*/
void fe_neg(fe h,const fe f)
{
crypto_int32 f0 = f[0];
crypto_int32 f1 = f[1];
crypto_int32 f2 = f[2];
crypto_int32 f3 = f[3];
crypto_int32 f4 = f[4];
crypto_int32 f5 = f[5];
crypto_int32 f6 = f[6];
crypto_int32 f7 = f[7];
crypto_int32 f8 = f[8];
crypto_int32 f9 = f[9];
crypto_int32 h0 = -f0;
crypto_int32 h1 = -f1;
crypto_int32 h2 = -f2;
crypto_int32 h3 = -f3;
crypto_int32 h4 = -f4;
crypto_int32 h5 = -f5;
crypto_int32 h6 = -f6;
crypto_int32 h7 = -f7;
crypto_int32 h8 = -f8;
crypto_int32 h9 = -f9;
h[0] = h0;
h[1] = h1;
h[2] = h2;
h[3] = h3;
h[4] = h4;
h[5] = h5;
h[6] = h6;
h[7] = h7;
h[8] = h8;
h[9] = h9;
}

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libaxolotl/jni/ed25519/fe_pow22523.c
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#include "fe.h"
void fe_pow22523(fe out,const fe z)
{
fe t0;
fe t1;
fe t2;
int i;
#include "pow22523.h"
return;
}

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libaxolotl/jni/ed25519/fe_sq.c
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#include "fe.h"
#include "crypto_int64.h"
/*
h = f * f
Can overlap h with f.
Preconditions:
|f| bounded by 1.65*2^26,1.65*2^25,1.65*2^26,1.65*2^25,etc.
Postconditions:
|h| bounded by 1.01*2^25,1.01*2^24,1.01*2^25,1.01*2^24,etc.
*/
/*
See fe_mul.c for discussion of implementation strategy.
*/
void fe_sq(fe h,const fe f)
{
crypto_int32 f0 = f[0];
crypto_int32 f1 = f[1];
crypto_int32 f2 = f[2];
crypto_int32 f3 = f[3];
crypto_int32 f4 = f[4];
crypto_int32 f5 = f[5];
crypto_int32 f6 = f[6];
crypto_int32 f7 = f[7];
crypto_int32 f8 = f[8];
crypto_int32 f9 = f[9];
crypto_int32 f0_2 = 2 * f0;
crypto_int32 f1_2 = 2 * f1;
crypto_int32 f2_2 = 2 * f2;
crypto_int32 f3_2 = 2 * f3;
crypto_int32 f4_2 = 2 * f4;
crypto_int32 f5_2 = 2 * f5;
crypto_int32 f6_2 = 2 * f6;
crypto_int32 f7_2 = 2 * f7;
crypto_int32 f5_38 = 38 * f5; /* 1.959375*2^30 */
crypto_int32 f6_19 = 19 * f6; /* 1.959375*2^30 */
crypto_int32 f7_38 = 38 * f7; /* 1.959375*2^30 */
crypto_int32 f8_19 = 19 * f8; /* 1.959375*2^30 */
crypto_int32 f9_38 = 38 * f9; /* 1.959375*2^30 */
crypto_int64 f0f0 = f0 * (crypto_int64) f0;
crypto_int64 f0f1_2 = f0_2 * (crypto_int64) f1;
crypto_int64 f0f2_2 = f0_2 * (crypto_int64) f2;
crypto_int64 f0f3_2 = f0_2 * (crypto_int64) f3;
crypto_int64 f0f4_2 = f0_2 * (crypto_int64) f4;
crypto_int64 f0f5_2 = f0_2 * (crypto_int64) f5;
crypto_int64 f0f6_2 = f0_2 * (crypto_int64) f6;
crypto_int64 f0f7_2 = f0_2 * (crypto_int64) f7;
crypto_int64 f0f8_2 = f0_2 * (crypto_int64) f8;
crypto_int64 f0f9_2 = f0_2 * (crypto_int64) f9;
crypto_int64 f1f1_2 = f1_2 * (crypto_int64) f1;
crypto_int64 f1f2_2 = f1_2 * (crypto_int64) f2;
crypto_int64 f1f3_4 = f1_2 * (crypto_int64) f3_2;
crypto_int64 f1f4_2 = f1_2 * (crypto_int64) f4;
crypto_int64 f1f5_4 = f1_2 * (crypto_int64) f5_2;
crypto_int64 f1f6_2 = f1_2 * (crypto_int64) f6;
crypto_int64 f1f7_4 = f1_2 * (crypto_int64) f7_2;
crypto_int64 f1f8_2 = f1_2 * (crypto_int64) f8;
crypto_int64 f1f9_76 = f1_2 * (crypto_int64) f9_38;
crypto_int64 f2f2 = f2 * (crypto_int64) f2;
crypto_int64 f2f3_2 = f2_2 * (crypto_int64) f3;
crypto_int64 f2f4_2 = f2_2 * (crypto_int64) f4;
crypto_int64 f2f5_2 = f2_2 * (crypto_int64) f5;
crypto_int64 f2f6_2 = f2_2 * (crypto_int64) f6;
crypto_int64 f2f7_2 = f2_2 * (crypto_int64) f7;
crypto_int64 f2f8_38 = f2_2 * (crypto_int64) f8_19;
crypto_int64 f2f9_38 = f2 * (crypto_int64) f9_38;
crypto_int64 f3f3_2 = f3_2 * (crypto_int64) f3;
crypto_int64 f3f4_2 = f3_2 * (crypto_int64) f4;
crypto_int64 f3f5_4 = f3_2 * (crypto_int64) f5_2;
crypto_int64 f3f6_2 = f3_2 * (crypto_int64) f6;
crypto_int64 f3f7_76 = f3_2 * (crypto_int64) f7_38;
crypto_int64 f3f8_38 = f3_2 * (crypto_int64) f8_19;
crypto_int64 f3f9_76 = f3_2 * (crypto_int64) f9_38;
crypto_int64 f4f4 = f4 * (crypto_int64) f4;
crypto_int64 f4f5_2 = f4_2 * (crypto_int64) f5;
crypto_int64 f4f6_38 = f4_2 * (crypto_int64) f6_19;
crypto_int64 f4f7_38 = f4 * (crypto_int64) f7_38;
crypto_int64 f4f8_38 = f4_2 * (crypto_int64) f8_19;
crypto_int64 f4f9_38 = f4 * (crypto_int64) f9_38;
crypto_int64 f5f5_38 = f5 * (crypto_int64) f5_38;
crypto_int64 f5f6_38 = f5_2 * (crypto_int64) f6_19;
crypto_int64 f5f7_76 = f5_2 * (crypto_int64) f7_38;
crypto_int64 f5f8_38 = f5_2 * (crypto_int64) f8_19;
crypto_int64 f5f9_76 = f5_2 * (crypto_int64) f9_38;
crypto_int64 f6f6_19 = f6 * (crypto_int64) f6_19;
crypto_int64 f6f7_38 = f6 * (crypto_int64) f7_38;
crypto_int64 f6f8_38 = f6_2 * (crypto_int64) f8_19;
crypto_int64 f6f9_38 = f6 * (crypto_int64) f9_38;
crypto_int64 f7f7_38 = f7 * (crypto_int64) f7_38;
crypto_int64 f7f8_38 = f7_2 * (crypto_int64) f8_19;
crypto_int64 f7f9_76 = f7_2 * (crypto_int64) f9_38;
crypto_int64 f8f8_19 = f8 * (crypto_int64) f8_19;
crypto_int64 f8f9_38 = f8 * (crypto_int64) f9_38;
crypto_int64 f9f9_38 = f9 * (crypto_int64) f9_38;
crypto_int64 h0 = f0f0 +f1f9_76+f2f8_38+f3f7_76+f4f6_38+f5f5_38;
crypto_int64 h1 = f0f1_2+f2f9_38+f3f8_38+f4f7_38+f5f6_38;
crypto_int64 h2 = f0f2_2+f1f1_2 +f3f9_76+f4f8_38+f5f7_76+f6f6_19;
crypto_int64 h3 = f0f3_2+f1f2_2 +f4f9_38+f5f8_38+f6f7_38;
crypto_int64 h4 = f0f4_2+f1f3_4 +f2f2 +f5f9_76+f6f8_38+f7f7_38;
crypto_int64 h5 = f0f5_2+f1f4_2 +f2f3_2 +f6f9_38+f7f8_38;
crypto_int64 h6 = f0f6_2+f1f5_4 +f2f4_2 +f3f3_2 +f7f9_76+f8f8_19;
crypto_int64 h7 = f0f7_2+f1f6_2 +f2f5_2 +f3f4_2 +f8f9_38;
crypto_int64 h8 = f0f8_2+f1f7_4 +f2f6_2 +f3f5_4 +f4f4 +f9f9_38;
crypto_int64 h9 = f0f9_2+f1f8_2 +f2f7_2 +f3f6_2 +f4f5_2;
crypto_int64 carry0;
crypto_int64 carry1;
crypto_int64 carry2;
crypto_int64 carry3;
crypto_int64 carry4;
crypto_int64 carry5;
crypto_int64 carry6;
crypto_int64 carry7;
crypto_int64 carry8;
crypto_int64 carry9;
carry0 = (h0 + (crypto_int64) (1<<25)) >> 26; h1 += carry0; h0 -= carry0 << 26;
carry4 = (h4 + (crypto_int64) (1<<25)) >> 26; h5 += carry4; h4 -= carry4 << 26;
carry1 = (h1 + (crypto_int64) (1<<24)) >> 25; h2 += carry1; h1 -= carry1 << 25;
carry5 = (h5 + (crypto_int64) (1<<24)) >> 25; h6 += carry5; h5 -= carry5 << 25;
carry2 = (h2 + (crypto_int64) (1<<25)) >> 26; h3 += carry2; h2 -= carry2 << 26;
carry6 = (h6 + (crypto_int64) (1<<25)) >> 26; h7 += carry6; h6 -= carry6 << 26;
carry3 = (h3 + (crypto_int64) (1<<24)) >> 25; h4 += carry3; h3 -= carry3 << 25;
carry7 = (h7 + (crypto_int64) (1<<24)) >> 25; h8 += carry7; h7 -= carry7 << 25;
carry4 = (h4 + (crypto_int64) (1<<25)) >> 26; h5 += carry4; h4 -= carry4 << 26;
carry8 = (h8 + (crypto_int64) (1<<25)) >> 26; h9 += carry8; h8 -= carry8 << 26;
carry9 = (h9 + (crypto_int64) (1<<24)) >> 25; h0 += carry9 * 19; h9 -= carry9 << 25;
carry0 = (h0 + (crypto_int64) (1<<25)) >> 26; h1 += carry0; h0 -= carry0 << 26;
h[0] = h0;
h[1] = h1;
h[2] = h2;
h[3] = h3;
h[4] = h4;
h[5] = h5;
h[6] = h6;
h[7] = h7;
h[8] = h8;
h[9] = h9;
}

160
libaxolotl/jni/ed25519/fe_sq2.c
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#include "fe.h"
#include "crypto_int64.h"
/*
h = 2 * f * f
Can overlap h with f.
Preconditions:
|f| bounded by 1.65*2^26,1.65*2^25,1.65*2^26,1.65*2^25,etc.
Postconditions:
|h| bounded by 1.01*2^25,1.01*2^24,1.01*2^25,1.01*2^24,etc.
*/
/*
See fe_mul.c for discussion of implementation strategy.
*/
void fe_sq2(fe h,const fe f)
{
crypto_int32 f0 = f[0];
crypto_int32 f1 = f[1];
crypto_int32 f2 = f[2];
crypto_int32 f3 = f[3];
crypto_int32 f4 = f[4];
crypto_int32 f5 = f[5];
crypto_int32 f6 = f[6];
crypto_int32 f7 = f[7];
crypto_int32 f8 = f[8];
crypto_int32 f9 = f[9];
crypto_int32 f0_2 = 2 * f0;
crypto_int32 f1_2 = 2 * f1;
crypto_int32 f2_2 = 2 * f2;
crypto_int32 f3_2 = 2 * f3;
crypto_int32 f4_2 = 2 * f4;
crypto_int32 f5_2 = 2 * f5;
crypto_int32 f6_2 = 2 * f6;
crypto_int32 f7_2 = 2 * f7;
crypto_int32 f5_38 = 38 * f5; /* 1.959375*2^30 */
crypto_int32 f6_19 = 19 * f6; /* 1.959375*2^30 */
crypto_int32 f7_38 = 38 * f7; /* 1.959375*2^30 */
crypto_int32 f8_19 = 19 * f8; /* 1.959375*2^30 */
crypto_int32 f9_38 = 38 * f9; /* 1.959375*2^30 */
crypto_int64 f0f0 = f0 * (crypto_int64) f0;
crypto_int64 f0f1_2 = f0_2 * (crypto_int64) f1;
crypto_int64 f0f2_2 = f0_2 * (crypto_int64) f2;
crypto_int64 f0f3_2 = f0_2 * (crypto_int64) f3;
crypto_int64 f0f4_2 = f0_2 * (crypto_int64) f4;
crypto_int64 f0f5_2 = f0_2 * (crypto_int64) f5;
crypto_int64 f0f6_2 = f0_2 * (crypto_int64) f6;
crypto_int64 f0f7_2 = f0_2 * (crypto_int64) f7;
crypto_int64 f0f8_2 = f0_2 * (crypto_int64) f8;
crypto_int64 f0f9_2 = f0_2 * (crypto_int64) f9;
crypto_int64 f1f1_2 = f1_2 * (crypto_int64) f1;
crypto_int64 f1f2_2 = f1_2 * (crypto_int64) f2;
crypto_int64 f1f3_4 = f1_2 * (crypto_int64) f3_2;
crypto_int64 f1f4_2 = f1_2 * (crypto_int64) f4;
crypto_int64 f1f5_4 = f1_2 * (crypto_int64) f5_2;
crypto_int64 f1f6_2 = f1_2 * (crypto_int64) f6;
crypto_int64 f1f7_4 = f1_2 * (crypto_int64) f7_2;
crypto_int64 f1f8_2 = f1_2 * (crypto_int64) f8;
crypto_int64 f1f9_76 = f1_2 * (crypto_int64) f9_38;
crypto_int64 f2f2 = f2 * (crypto_int64) f2;
crypto_int64 f2f3_2 = f2_2 * (crypto_int64) f3;
crypto_int64 f2f4_2 = f2_2 * (crypto_int64) f4;
crypto_int64 f2f5_2 = f2_2 * (crypto_int64) f5;
crypto_int64 f2f6_2 = f2_2 * (crypto_int64) f6;
crypto_int64 f2f7_2 = f2_2 * (crypto_int64) f7;
crypto_int64 f2f8_38 = f2_2 * (crypto_int64) f8_19;
crypto_int64 f2f9_38 = f2 * (crypto_int64) f9_38;
crypto_int64 f3f3_2 = f3_2 * (crypto_int64) f3;
crypto_int64 f3f4_2 = f3_2 * (crypto_int64) f4;
crypto_int64 f3f5_4 = f3_2 * (crypto_int64) f5_2;
crypto_int64 f3f6_2 = f3_2 * (crypto_int64) f6;
crypto_int64 f3f7_76 = f3_2 * (crypto_int64) f7_38;
crypto_int64 f3f8_38 = f3_2 * (crypto_int64) f8_19;
crypto_int64 f3f9_76 = f3_2 * (crypto_int64) f9_38;
crypto_int64 f4f4 = f4 * (crypto_int64) f4;
crypto_int64 f4f5_2 = f4_2 * (crypto_int64) f5;
crypto_int64 f4f6_38 = f4_2 * (crypto_int64) f6_19;
crypto_int64 f4f7_38 = f4 * (crypto_int64) f7_38;
crypto_int64 f4f8_38 = f4_2 * (crypto_int64) f8_19;
crypto_int64 f4f9_38 = f4 * (crypto_int64) f9_38;
crypto_int64 f5f5_38 = f5 * (crypto_int64) f5_38;
crypto_int64 f5f6_38 = f5_2 * (crypto_int64) f6_19;
crypto_int64 f5f7_76 = f5_2 * (crypto_int64) f7_38;
crypto_int64 f5f8_38 = f5_2 * (crypto_int64) f8_19;
crypto_int64 f5f9_76 = f5_2 * (crypto_int64) f9_38;
crypto_int64 f6f6_19 = f6 * (crypto_int64) f6_19;
crypto_int64 f6f7_38 = f6 * (crypto_int64) f7_38;
crypto_int64 f6f8_38 = f6_2 * (crypto_int64) f8_19;
crypto_int64 f6f9_38 = f6 * (crypto_int64) f9_38;
crypto_int64 f7f7_38 = f7 * (crypto_int64) f7_38;
crypto_int64 f7f8_38 = f7_2 * (crypto_int64) f8_19;
crypto_int64 f7f9_76 = f7_2 * (crypto_int64) f9_38;
crypto_int64 f8f8_19 = f8 * (crypto_int64) f8_19;
crypto_int64 f8f9_38 = f8 * (crypto_int64) f9_38;
crypto_int64 f9f9_38 = f9 * (crypto_int64) f9_38;
crypto_int64 h0 = f0f0 +f1f9_76+f2f8_38+f3f7_76+f4f6_38+f5f5_38;
crypto_int64 h1 = f0f1_2+f2f9_38+f3f8_38+f4f7_38+f5f6_38;
crypto_int64 h2 = f0f2_2+f1f1_2 +f3f9_76+f4f8_38+f5f7_76+f6f6_19;
crypto_int64 h3 = f0f3_2+f1f2_2 +f4f9_38+f5f8_38+f6f7_38;
crypto_int64 h4 = f0f4_2+f1f3_4 +f2f2 +f5f9_76+f6f8_38+f7f7_38;
crypto_int64 h5 = f0f5_2+f1f4_2 +f2f3_2 +f6f9_38+f7f8_38;
crypto_int64 h6 = f0f6_2+f1f5_4 +f2f4_2 +f3f3_2 +f7f9_76+f8f8_19;
crypto_int64 h7 = f0f7_2+f1f6_2 +f2f5_2 +f3f4_2 +f8f9_38;
crypto_int64 h8 = f0f8_2+f1f7_4 +f2f6_2 +f3f5_4 +f4f4 +f9f9_38;
crypto_int64 h9 = f0f9_2+f1f8_2 +f2f7_2 +f3f6_2 +f4f5_2;
crypto_int64 carry0;
crypto_int64 carry1;
crypto_int64 carry2;
crypto_int64 carry3;
crypto_int64 carry4;
crypto_int64 carry5;
crypto_int64 carry6;
crypto_int64 carry7;
crypto_int64 carry8;
crypto_int64 carry9;
h0 += h0;
h1 += h1;
h2 += h2;
h3 += h3;
h4 += h4;
h5 += h5;
h6 += h6;
h7 += h7;
h8 += h8;
h9 += h9;
carry0 = (h0 + (crypto_int64) (1<<25)) >> 26; h1 += carry0; h0 -= carry0 << 26;
carry4 = (h4 + (crypto_int64) (1<<25)) >> 26; h5 += carry4; h4 -= carry4 << 26;
carry1 = (h1 + (crypto_int64) (1<<24)) >> 25; h2 += carry1; h1 -= carry1 << 25;
carry5 = (h5 + (crypto_int64) (1<<24)) >> 25; h6 += carry5; h5 -= carry5 << 25;
carry2 = (h2 + (crypto_int64) (1<<25)) >> 26; h3 += carry2; h2 -= carry2 << 26;
carry6 = (h6 + (crypto_int64) (1<<25)) >> 26; h7 += carry6; h6 -= carry6 << 26;
carry3 = (h3 + (crypto_int64) (1<<24)) >> 25; h4 += carry3; h3 -= carry3 << 25;
carry7 = (h7 + (crypto_int64) (1<<24)) >> 25; h8 += carry7; h7 -= carry7 << 25;
carry4 = (h4 + (crypto_int64) (1<<25)) >> 26; h5 += carry4; h4 -= carry4 << 26;
carry8 = (h8 + (crypto_int64) (1<<25)) >> 26; h9 += carry8; h8 -= carry8 << 26;
carry9 = (h9 + (crypto_int64) (1<<24)) >> 25; h0 += carry9 * 19; h9 -= carry9 << 25;
carry0 = (h0 + (crypto_int64) (1<<25)) >> 26; h1 += carry0; h0 -= carry0 << 26;
h[0] = h0;
h[1] = h1;
h[2] = h2;
h[3] = h3;
h[4] = h4;
h[5] = h5;
h[6] = h6;
h[7] = h7;
h[8] = h8;
h[9] = h9;
}

57
libaxolotl/jni/ed25519/fe_sub.c
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#include "fe.h"
/*
h = f - g
Can overlap h with f or g.
Preconditions:
|f| bounded by 1.1*2^25,1.1*2^24,1.1*2^25,1.1*2^24,etc.
|g| bounded by 1.1*2^25,1.1*2^24,1.1*2^25,1.1*2^24,etc.
Postconditions:
|h| bounded by 1.1*2^26,1.1*2^25,1.1*2^26,1.1*2^25,etc.
*/
void fe_sub(fe h,const fe f,const fe g)
{
crypto_int32 f0 = f[0];
crypto_int32 f1 = f[1];
crypto_int32 f2 = f[2];
crypto_int32 f3 = f[3];
crypto_int32 f4 = f[4];
crypto_int32 f5 = f[5];
crypto_int32 f6 = f[6];
crypto_int32 f7 = f[7];
crypto_int32 f8 = f[8];
crypto_int32 f9 = f[9];
crypto_int32 g0 = g[0];
crypto_int32 g1 = g[1];
crypto_int32 g2 = g[2];
crypto_int32 g3 = g[3];
crypto_int32 g4 = g[4];
crypto_int32 g5 = g[5];
crypto_int32 g6 = g[6];
crypto_int32 g7 = g[7];
crypto_int32 g8 = g[8];
crypto_int32 g9 = g[9];
crypto_int32 h0 = f0 - g0;
crypto_int32 h1 = f1 - g1;
crypto_int32 h2 = f2 - g2;
crypto_int32 h3 = f3 - g3;
crypto_int32 h4 = f4 - g4;
crypto_int32 h5 = f5 - g5;
crypto_int32 h6 = f6 - g6;
crypto_int32 h7 = f7 - g7;
crypto_int32 h8 = f8 - g8;
crypto_int32 h9 = f9 - g9;
h[0] = h0;
h[1] = h1;
h[2] = h2;
h[3] = h3;
h[4] = h4;
h[5] = h5;
h[6] = h6;
h[7] = h7;
h[8] = h8;
h[9] = h9;
}

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libaxolotl/jni/ed25519/fe_tobytes.c
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#include "fe.h"
/*
Preconditions:
|h| bounded by 1.1*2^26,1.1*2^25,1.1*2^26,1.1*2^25,etc.
Write p=2^255-19; q=floor(h/p).
Basic claim: q = floor(2^(-255)(h + 19 2^(-25)h9 + 2^(-1))).
Proof:
Have |h|<=p so |q|<=1 so |19^2 2^(-255) q|<1/4.
Also have |h-2^230 h9|<2^231 so |19 2^(-255)(h-2^230 h9)|<1/4.
Write y=2^(-1)-19^2 2^(-255)q-19 2^(-255)(h-2^230 h9).
Then 0<y<1.
Write r=h-pq.
Have 0<=r<=p-1=2^255-20.
Thus 0<=r+19(2^-255)r<r+19(2^-255)2^255<=2^255-1.
Write x=r+19(2^-255)r+y.
Then 0<x<2^255 so floor(2^(-255)x) = 0 so floor(q+2^(-255)x) = q.
Have q+2^(-255)x = 2^(-255)(h + 19 2^(-25) h9 + 2^(-1))
so floor(2^(-255)(h + 19 2^(-25) h9 + 2^(-1))) = q.
*/
void fe_tobytes(unsigned char *s,const fe h)
{
crypto_int32 h0 = h[0];
crypto_int32 h1 = h[1];
crypto_int32 h2 = h[2];
crypto_int32 h3 = h[3];
crypto_int32 h4 = h[4];
crypto_int32 h5 = h[5];
crypto_int32 h6 = h[6];
crypto_int32 h7 = h[7];
crypto_int32 h8 = h[8];
crypto_int32 h9 = h[9];
crypto_int32 q;
crypto_int32 carry0;
crypto_int32 carry1;
crypto_int32 carry2;
crypto_int32 carry3;
crypto_int32 carry4;
crypto_int32 carry5;
crypto_int32 carry6;
crypto_int32 carry7;
crypto_int32 carry8;
crypto_int32 carry9;
q = (19 * h9 + (((crypto_int32) 1) << 24)) >> 25;
q = (h0 + q) >> 26;
q = (h1 + q) >> 25;
q = (h2 + q) >> 26;
q = (h3 + q) >> 25;
q = (h4 + q) >> 26;
q = (h5 + q) >> 25;
q = (h6 + q) >> 26;
q = (h7 + q) >> 25;
q = (h8 + q) >> 26;
q = (h9 + q) >> 25;
/* Goal: Output h-(2^255-19)q, which is between 0 and 2^255-20. */
h0 += 19 * q;
/* Goal: Output h-2^255 q, which is between 0 and 2^255-20. */
carry0 = h0 >> 26; h1 += carry0; h0 -= carry0 << 26;
carry1 = h1 >> 25; h2 += carry1; h1 -= carry1 << 25;
carry2 = h2 >> 26; h3 += carry2; h2 -= carry2 << 26;
carry3 = h3 >> 25; h4 += carry3; h3 -= carry3 << 25;
carry4 = h4 >> 26; h5 += carry4; h4 -= carry4 << 26;
carry5 = h5 >> 25; h6 += carry5; h5 -= carry5 << 25;
carry6 = h6 >> 26; h7 += carry6; h6 -= carry6 << 26;
carry7 = h7 >> 25; h8 += carry7; h7 -= carry7 << 25;
carry8 = h8 >> 26; h9 += carry8; h8 -= carry8 << 26;
carry9 = h9 >> 25; h9 -= carry9 << 25;
/* h10 = carry9 */
/*
Goal: Output h0+...+2^255 h10-2^255 q, which is between 0 and 2^255-20.
Have h0+...+2^230 h9 between 0 and 2^255-1;
evidently 2^255 h10-2^255 q = 0.
Goal: Output h0+...+2^230 h9.
*/
s[0] = h0 >> 0;
s[1] = h0 >> 8;
s[2] = h0 >> 16;
s[3] = (h0 >> 24) | (h1 << 2);
s[4] = h1 >> 6;
s[5] = h1 >> 14;
s[6] = (h1 >> 22) | (h2 << 3);
s[7] = h2 >> 5;
s[8] = h2 >> 13;
s[9] = (h2 >> 21) | (h3 << 5);
s[10] = h3 >> 3;
s[11] = h3 >> 11;
s[12] = (h3 >> 19) | (h4 << 6);
s[13] = h4 >> 2;
s[14] = h4 >> 10;
s[15] = h4 >> 18;
s[16] = h5 >> 0;
s[17] = h5 >> 8;
s[18] = h5 >> 16;
s[19] = (h5 >> 24) | (h6 << 1);
s[20] = h6 >> 7;
s[21] = h6 >> 15;
s[22] = (h6 >> 23) | (h7 << 3);
s[23] = h7 >> 5;
s[24] = h7 >> 13;
s[25] = (h7 >> 21) | (h8 << 4);
s[26] = h8 >> 4;
s[27] = h8 >> 12;
s[28] = (h8 >> 20) | (h9 << 6);
s[29] = h9 >> 2;
s[30] = h9 >> 10;
s[31] = h9 >> 18;
}

95
libaxolotl/jni/ed25519/ge.h
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#ifndef GE_H
#define GE_H
/*
ge means group element.
Here the group is the set of pairs (x,y) of field elements (see fe.h)
satisfying -x^2 + y^2 = 1 + d x^2y^2
where d = -121665/121666.
Representations:
ge_p2 (projective): (X:Y:Z) satisfying x=X/Z, y=Y/Z
ge_p3 (extended): (X:Y:Z:T) satisfying x=X/Z, y=Y/Z, XY=ZT
ge_p1p1 (completed): ((X:Z),(Y:T)) satisfying x=X/Z, y=Y/T
ge_precomp (Duif): (y+x,y-x,2dxy)
*/
#include "fe.h"
typedef struct {
fe X;
fe Y;
fe Z;
} ge_p2;
typedef struct {
fe X;
fe Y;
fe Z;
fe T;
} ge_p3;
typedef struct {
fe X;
fe Y;
fe Z;
fe T;
} ge_p1p1;
typedef struct {
fe yplusx;
fe yminusx;
fe xy2d;
} ge_precomp;
typedef struct {
fe YplusX;
fe YminusX;
fe Z;
fe T2d;
} ge_cached;
#define ge_frombytes_negate_vartime crypto_sign_ed25519_ref10_ge_frombytes_negate_vartime
#define ge_tobytes crypto_sign_ed25519_ref10_ge_tobytes
#define ge_p3_tobytes crypto_sign_ed25519_ref10_ge_p3_tobytes
#define ge_p2_0 crypto_sign_ed25519_ref10_ge_p2_0
#define ge_p3_0 crypto_sign_ed25519_ref10_ge_p3_0
#define ge_precomp_0 crypto_sign_ed25519_ref10_ge_precomp_0
#define ge_p3_to_p2 crypto_sign_ed25519_ref10_ge_p3_to_p2
#define ge_p3_to_cached crypto_sign_ed25519_ref10_ge_p3_to_cached
#define ge_p1p1_to_p2 crypto_sign_ed25519_ref10_ge_p1p1_to_p2
#define ge_p1p1_to_p3 crypto_sign_ed25519_ref10_ge_p1p1_to_p3
#define ge_p2_dbl crypto_sign_ed25519_ref10_ge_p2_dbl
#define ge_p3_dbl crypto_sign_ed25519_ref10_ge_p3_dbl
#define ge_madd crypto_sign_ed25519_ref10_ge_madd
#define ge_msub crypto_sign_ed25519_ref10_ge_msub
#define ge_add crypto_sign_ed25519_ref10_ge_add
#define ge_sub crypto_sign_ed25519_ref10_ge_sub
#define ge_scalarmult_base crypto_sign_ed25519_ref10_ge_scalarmult_base
#define ge_double_scalarmult_vartime crypto_sign_ed25519_ref10_ge_double_scalarmult_vartime
extern void ge_tobytes(unsigned char *,const ge_p2 *);
extern void ge_p3_tobytes(unsigned char *,const ge_p3 *);
extern int ge_frombytes_negate_vartime(ge_p3 *,const unsigned char *);
extern void ge_p2_0(ge_p2 *);
extern void ge_p3_0(ge_p3 *);
extern void ge_precomp_0(ge_precomp *);
extern void ge_p3_to_p2(ge_p2 *,const ge_p3 *);
extern void ge_p3_to_cached(ge_cached *,const ge_p3 *);
extern void ge_p1p1_to_p2(ge_p2 *,const ge_p1p1 *);
extern void ge_p1p1_to_p3(ge_p3 *,const ge_p1p1 *);
extern void ge_p2_dbl(ge_p1p1 *,const ge_p2 *);
extern void ge_p3_dbl(ge_p1p1 *,const ge_p3 *);
extern void ge_madd(ge_p1p1 *,const ge_p3 *,const ge_precomp *);
extern void ge_msub(ge_p1p1 *,const ge_p3 *,const ge_precomp *);
extern void ge_add(ge_p1p1 *,const ge_p3 *,const ge_cached *);
extern void ge_sub(ge_p1p1 *,const ge_p3 *,const ge_cached *);
extern void ge_scalarmult_base(ge_p3 *,const unsigned char *);
extern void ge_double_scalarmult_vartime(ge_p2 *,const unsigned char *,const ge_p3 *,const unsigned char *);
#endif

11
libaxolotl/jni/ed25519/ge_add.c
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#include "ge.h"
/*
r = p + q
*/
void ge_add(ge_p1p1 *r,const ge_p3 *p,const ge_cached *q)
{
fe t0;
#include "ge_add.h"
}

97
libaxolotl/jni/ed25519/ge_add.h
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/* qhasm: enter ge_add */
/* qhasm: fe X1 */
/* qhasm: fe Y1 */
/* qhasm: fe Z1 */
/* qhasm: fe Z2 */
/* qhasm: fe T1 */
/* qhasm: fe ZZ */
/* qhasm: fe YpX2 */
/* qhasm: fe YmX2 */
/* qhasm: fe T2d2 */
/* qhasm: fe X3 */
/* qhasm: fe Y3 */
/* qhasm: fe Z3 */
/* qhasm: fe T3 */
/* qhasm: fe YpX1 */
/* qhasm: fe YmX1 */
/* qhasm: fe A */
/* qhasm: fe B */
/* qhasm: fe C */
/* qhasm: fe D */
/* qhasm: YpX1 = Y1+X1 */
/* asm 1: fe_add(>YpX1=fe#1,<Y1=fe#12,<X1=fe#11); */
/* asm 2: fe_add(>YpX1=r->X,<Y1=p->Y,<X1=p->X); */
fe_add(r->X,p->Y,p->X);
/* qhasm: YmX1 = Y1-X1 */
/* asm 1: fe_sub(>YmX1=fe#2,<Y1=fe#12,<X1=fe#11); */
/* asm 2: fe_sub(>YmX1=r->Y,<Y1=p->Y,<X1=p->X); */
fe_sub(r->Y,p->Y,p->X);
/* qhasm: A = YpX1*YpX2 */
/* asm 1: fe_mul(>A=fe#3,<YpX1=fe#1,<YpX2=fe#15); */
/* asm 2: fe_mul(>A=r->Z,<YpX1=r->X,<YpX2=q->YplusX); */
fe_mul(r->Z,r->X,q->YplusX);
/* qhasm: B = YmX1*YmX2 */
/* asm 1: fe_mul(>B=fe#2,<YmX1=fe#2,<YmX2=fe#16); */
/* asm 2: fe_mul(>B=r->Y,<YmX1=r->Y,<YmX2=q->YminusX); */
fe_mul(r->Y,r->Y,q->YminusX);
/* qhasm: C = T2d2*T1 */
/* asm 1: fe_mul(>C=fe#4,<T2d2=fe#18,<T1=fe#14); */
/* asm 2: fe_mul(>C=r->T,<T2d2=q->T2d,<T1=p->T); */
fe_mul(r->T,q->T2d,p->T);
/* qhasm: ZZ = Z1*Z2 */
/* asm 1: fe_mul(>ZZ=fe#1,<Z1=fe#13,<Z2=fe#17); */
/* asm 2: fe_mul(>ZZ=r->X,<Z1=p->Z,<Z2=q->Z); */
fe_mul(r->X,p->Z,q->Z);
/* qhasm: D = 2*ZZ */
/* asm 1: fe_add(>D=fe#5,<ZZ=fe#1,<ZZ=fe#1); */
/* asm 2: fe_add(>D=t0,<ZZ=r->X,<ZZ=r->X); */
fe_add(t0,r->X,r->X);
/* qhasm: X3 = A-B */
/* asm 1: fe_sub(>X3=fe#1,<A=fe#3,<B=fe#2); */
/* asm 2: fe_sub(>X3=r->X,<A=r->Z,<B=r->Y); */
fe_sub(r->X,r->Z,r->Y);
/* qhasm: Y3 = A+B */
/* asm 1: fe_add(>Y3=fe#2,<A=fe#3,<B=fe#2); */
/* asm 2: fe_add(>Y3=r->Y,<A=r->Z,<B=r->Y); */
fe_add(r->Y,r->Z,r->Y);
/* qhasm: Z3 = D+C */
/* asm 1: fe_add(>Z3=fe#3,<D=fe#5,<C=fe#4); */
/* asm 2: fe_add(>Z3=r->Z,<D=t0,<C=r->T); */
fe_add(r->Z,t0,r->T);
/* qhasm: T3 = D-C */
/* asm 1: fe_sub(>T3=fe#4,<D=fe#5,<C=fe#4); */
/* asm 2: fe_sub(>T3=r->T,<D=t0,<C=r->T); */
fe_sub(r->T,t0,r->T);
/* qhasm: return */

96
libaxolotl/jni/ed25519/ge_double_scalarmult.c
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#include "ge.h"
static void slide(signed char *r,const unsigned char *a)
{
int i;
int b;
int k;
for (i = 0;i < 256;++i)
r[i] = 1 & (a[i >> 3] >> (i & 7));
for (i = 0;i < 256;++i)
if (r[i]) {
for (b = 1;b <= 6 && i + b < 256;++b) {
if (r[i + b]) {
if (r[i] + (r[i + b] << b) <= 15) {
r[i] += r[i + b] << b; r[i + b] = 0;
} else if (r[i] - (r[i + b] << b) >= -15) {
r[i] -= r[i + b] << b;
for (k = i + b;k < 256;++k) {
if (!r[k]) {
r[k] = 1;
break;
}
r[k] = 0;
}
} else
break;
}
}
}
}
static ge_precomp Bi[8] = {
#include "base2.h"
} ;
/*
r = a * A + b * B
where a = a[0]+256*a[1]+...+256^31 a[31].
and b = b[0]+256*b[1]+...+256^31 b[31].
B is the Ed25519 base point (x,4/5) with x positive.
*/
void ge_double_scalarmult_vartime(ge_p2 *r,const unsigned char *a,const ge_p3 *A,const unsigned char *b)
{
signed char aslide[256];
signed char bslide[256];
ge_cached Ai[8]; /* A,3A,5A,7A,9A,11A,13A,15A */
ge_p1p1 t;
ge_p3 u;
ge_p3 A2;
int i;
slide(aslide,a);
slide(bslide,b);
ge_p3_to_cached(&Ai[0],A);
ge_p3_dbl(&t,A); ge_p1p1_to_p3(&A2,&t);
ge_add(&t,&A2,&Ai[0]); ge_p1p1_to_p3(&u,&t); ge_p3_to_cached(&Ai[1],&u);
ge_add(&t,&A2,&Ai[1]); ge_p1p1_to_p3(&u,&t); ge_p3_to_cached(&Ai[2],&u);
ge_add(&t,&A2,&Ai[2]); ge_p1p1_to_p3(&u,&t); ge_p3_to_cached(&Ai[3],&u);
ge_add(&t,&A2,&Ai[3]); ge_p1p1_to_p3(&u,&t); ge_p3_to_cached(&Ai[4],&u);
ge_add(&t,&A2,&Ai[4]); ge_p1p1_to_p3(&u,&t); ge_p3_to_cached(&Ai[5],&u);
ge_add(&t,&A2,&Ai[5]); ge_p1p1_to_p3(&u,&t); ge_p3_to_cached(&Ai[6],&u);
ge_add(&t,&A2,&Ai[6]); ge_p1p1_to_p3(&u,&t); ge_p3_to_cached(&Ai[7],&u);
ge_p2_0(r);
for (i = 255;i >= 0;--i) {
if (aslide[i] || bslide[i]) break;
}
for (;i >= 0;--i) {
ge_p2_dbl(&t,r);
if (aslide[i] > 0) {
ge_p1p1_to_p3(&u,&t);
ge_add(&t,&u,&Ai[aslide[i]/2]);
} else if (aslide[i] < 0) {
ge_p1p1_to_p3(&u,&t);
ge_sub(&t,&u,&Ai[(-aslide[i])/2]);
}
if (bslide[i] > 0) {
ge_p1p1_to_p3(&u,&t);
ge_madd(&t,&u,&Bi[bslide[i]/2]);
} else if (bslide[i] < 0) {
ge_p1p1_to_p3(&u,&t);
ge_msub(&t,&u,&Bi[(-bslide[i])/2]);
}
ge_p1p1_to_p2(r,&t);
}
}

50
libaxolotl/jni/ed25519/ge_frombytes.c
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#include "ge.h"
static const fe d = {
#include "d.h"
} ;
static const fe sqrtm1 = {
#include "sqrtm1.h"
} ;
int ge_frombytes_negate_vartime(ge_p3 *h,const unsigned char *s)
{
fe u;
fe v;
fe v3;
fe vxx;
fe check;
fe_frombytes(h->Y,s);
fe_1(h->Z);
fe_sq(u,h->Y);
fe_mul(v,u,d);
fe_sub(u,u,h->Z); /* u = y^2-1 */
fe_add(v,v,h->Z); /* v = dy^2+1 */
fe_sq(v3,v);
fe_mul(v3,v3,v); /* v3 = v^3 */
fe_sq(h->X,v3);
fe_mul(h->X,h->X,v);
fe_mul(h->X,h->X,u); /* x = uv^7 */
fe_pow22523(h->X,h->X); /* x = (uv^7)^((q-5)/8) */
fe_mul(h->X,h->X,v3);
fe_mul(h->X,h->X,u); /* x = uv^3(uv^7)^((q-5)/8) */
fe_sq(vxx,h->X);
fe_mul(vxx,vxx,v);
fe_sub(check,vxx,u); /* vx^2-u */
if (fe_isnonzero(check)) {
fe_add(check,vxx,u); /* vx^2+u */
if (fe_isnonzero(check)) return -1;
fe_mul(h->X,h->X,sqrtm1);
}
if (fe_isnegative(h->X) == (s[31] >> 7))
fe_neg(h->X,h->X);
fe_mul(h->T,h->X,h->Y);
return 0;
}

11
libaxolotl/jni/ed25519/ge_madd.c
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#include "ge.h"
/*
r = p + q
*/
void ge_madd(ge_p1p1 *r,const ge_p3 *p,const ge_precomp *q)
{
fe t0;
#include "ge_madd.h"
}

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libaxolotl/jni/ed25519/ge_madd.h
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/* qhasm: enter ge_madd */
/* qhasm: fe X1 */
/* qhasm: fe Y1 */
/* qhasm: fe Z1 */
/* qhasm: fe T1 */
/* qhasm: fe ypx2 */
/* qhasm: fe ymx2 */
/* qhasm: fe xy2d2 */
/* qhasm: fe X3 */
/* qhasm: fe Y3 */
/* qhasm: fe Z3 */
/* qhasm: fe T3 */
/* qhasm: fe YpX1 */
/* qhasm: fe YmX1 */
/* qhasm: fe A */
/* qhasm: fe B */
/* qhasm: fe C */
/* qhasm: fe D */
/* qhasm: YpX1 = Y1+X1 */
/* asm 1: fe_add(>YpX1=fe#1,<Y1=fe#12,<X1=fe#11); */
/* asm 2: fe_add(>YpX1=r->X,<Y1=p->Y,<X1=p->X); */
fe_add(r->X,p->Y,p->X);
/* qhasm: YmX1 = Y1-X1 */
/* asm 1: fe_sub(>YmX1=fe#2,<Y1=fe#12,<X1=fe#11); */
/* asm 2: fe_sub(>YmX1=r->Y,<Y1=p->Y,<X1=p->X); */
fe_sub(r->Y,p->Y,p->X);
/* qhasm: A = YpX1*ypx2 */
/* asm 1: fe_mul(>A=fe#3,<YpX1=fe#1,<ypx2=fe#15); */
/* asm 2: fe_mul(>A=r->Z,<YpX1=r->X,<ypx2=q->yplusx); */
fe_mul(r->Z,r->X,q->yplusx);
/* qhasm: B = YmX1*ymx2 */
/* asm 1: fe_mul(>B=fe#2,<YmX1=fe#2,<ymx2=fe#16); */
/* asm 2: fe_mul(>B=r->Y,<YmX1=r->Y,<ymx2=q->yminusx); */
fe_mul(r->Y,r->Y,q->yminusx);
/* qhasm: C = xy2d2*T1 */
/* asm 1: fe_mul(>C=fe#4,<xy2d2=fe#17,<T1=fe#14); */
/* asm 2: fe_mul(>C=r->T,<xy2d2=q->xy2d,<T1=p->T); */
fe_mul(r->T,q->xy2d,p->T);
/* qhasm: D = 2*Z1 */
/* asm 1: fe_add(>D=fe#5,<Z1=fe#13,<Z1=fe#13); */
/* asm 2: fe_add(>D=t0,<Z1=p->Z,<Z1=p->Z); */
fe_add(t0,p->Z,p->Z);
/* qhasm: X3 = A-B */
/* asm 1: fe_sub(>X3=fe#1,<A=fe#3,<B=fe#2); */
/* asm 2: fe_sub(>X3=r->X,<A=r->Z,<B=r->Y); */
fe_sub(r->X,r->Z,r->Y);
/* qhasm: Y3 = A+B */
/* asm 1: fe_add(>Y3=fe#2,<A=fe#3,<B=fe#2); */
/* asm 2: fe_add(>Y3=r->Y,<A=r->Z,<B=r->Y); */
fe_add(r->Y,r->Z,r->Y);
/* qhasm: Z3 = D+C */
/* asm 1: fe_add(>Z3=fe#3,<D=fe#5,<C=fe#4); */
/* asm 2: fe_add(>Z3=r->Z,<D=t0,<C=r->T); */
fe_add(r->Z,t0,r->T);
/* qhasm: T3 = D-C */
/* asm 1: fe_sub(>T3=fe#4,<D=fe#5,<C=fe#4); */
/* asm 2: fe_sub(>T3=r->T,<D=t0,<C=r->T); */
fe_sub(r->T,t0,r->T);
/* qhasm: return */

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libaxolotl/jni/ed25519/ge_msub.c
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#include "ge.h"
/*
r = p - q
*/
void ge_msub(ge_p1p1 *r,const ge_p3 *p,const ge_precomp *q)
{
fe t0;
#include "ge_msub.h"
}

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libaxolotl/jni/ed25519/ge_msub.h
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/* qhasm: enter ge_msub */
/* qhasm: fe X1 */
/* qhasm: fe Y1 */
/* qhasm: fe Z1 */
/* qhasm: fe T1 */
/* qhasm: fe ypx2 */
/* qhasm: fe ymx2 */
/* qhasm: fe xy2d2 */
/* qhasm: fe X3 */
/* qhasm: fe Y3 */
/* qhasm: fe Z3 */
/* qhasm: fe T3 */
/* qhasm: fe YpX1 */
/* qhasm: fe YmX1 */
/* qhasm: fe A */
/* qhasm: fe B */
/* qhasm: fe C */
/* qhasm: fe D */
/* qhasm: YpX1 = Y1+X1 */
/* asm 1: fe_add(>YpX1=fe#1,<Y1=fe#12,<X1=fe#11); */
/* asm 2: fe_add(>YpX1=r->X,<Y1=p->Y,<X1=p->X); */
fe_add(r->X,p->Y,p->X);
/* qhasm: YmX1 = Y1-X1 */
/* asm 1: fe_sub(>YmX1=fe#2,<Y1=fe#12,<X1=fe#11); */
/* asm 2: fe_sub(>YmX1=r->Y,<Y1=p->Y,<X1=p->X); */
fe_sub(r->Y,p->Y,p->X);
/* qhasm: A = YpX1*ymx2 */
/* asm 1: fe_mul(>A=fe#3,<YpX1=fe#1,<ymx2=fe#16); */
/* asm 2: fe_mul(>A=r->Z,<YpX1=r->X,<ymx2=q->yminusx); */
fe_mul(r->Z,r->X,q->yminusx);
/* qhasm: B = YmX1*ypx2 */
/* asm 1: fe_mul(>B=fe#2,<YmX1=fe#2,<ypx2=fe#15); */
/* asm 2: fe_mul(>B=r->Y,<YmX1=r->Y,<ypx2=q->yplusx); */
fe_mul(r->Y,r->Y,q->yplusx);
/* qhasm: C = xy2d2*T1 */
/* asm 1: fe_mul(>C=fe#4,<xy2d2=fe#17,<T1=fe#14); */
/* asm 2: fe_mul(>C=r->T,<xy2d2=q->xy2d,<T1=p->T); */
fe_mul(r->T,q->xy2d,p->T);
/* qhasm: D = 2*Z1 */
/* asm 1: fe_add(>D=fe#5,<Z1=fe#13,<Z1=fe#13); */
/* asm 2: fe_add(>D=t0,<Z1=p->Z,<Z1=p->Z); */
fe_add(t0,p->Z,p->Z);
/* qhasm: X3 = A-B */
/* asm 1: fe_sub(>X3=fe#1,<A=fe#3,<B=fe#2); */
/* asm 2: fe_sub(>X3=r->X,<A=r->Z,<B=r->Y); */
fe_sub(r->X,r->Z,r->Y);
/* qhasm: Y3 = A+B */
/* asm 1: fe_add(>Y3=fe#2,<A=fe#3,<B=fe#2); */
/* asm 2: fe_add(>Y3=r->Y,<A=r->Z,<B=r->Y); */
fe_add(r->Y,r->Z,r->Y);
/* qhasm: Z3 = D-C */
/* asm 1: fe_sub(>Z3=fe#3,<D=fe#5,<C=fe#4); */
/* asm 2: fe_sub(>Z3=r->Z,<D=t0,<C=r->T); */
fe_sub(r->Z,t0,r->T);
/* qhasm: T3 = D+C */
/* asm 1: fe_add(>T3=fe#4,<D=fe#5,<C=fe#4); */
/* asm 2: fe_add(>T3=r->T,<D=t0,<C=r->T); */
fe_add(r->T,t0,r->T);
/* qhasm: return */

12
libaxolotl/jni/ed25519/ge_p1p1_to_p2.c
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@ -1,12 +0,0 @@
#include "ge.h"
/*
r = p
*/
extern void ge_p1p1_to_p2(ge_p2 *r,const ge_p1p1 *p)
{
fe_mul(r->X,p->X,p->T);
fe_mul(r->Y,p->Y,p->Z);
fe_mul(r->Z,p->Z,p->T);
}

13
libaxolotl/jni/ed25519/ge_p1p1_to_p3.c
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@ -1,13 +0,0 @@
#include "ge.h"
/*
r = p
*/
extern void ge_p1p1_to_p3(ge_p3 *r,const ge_p1p1 *p)
{
fe_mul(r->X,p->X,p->T);
fe_mul(r->Y,p->Y,p->Z);
fe_mul(r->Z,p->Z,p->T);
fe_mul(r->T,p->X,p->Y);
}

8
libaxolotl/jni/ed25519/ge_p2_0.c
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@ -1,8 +0,0 @@
#include "ge.h"
void ge_p2_0(ge_p2 *h)
{
fe_0(h->X);
fe_1(h->Y);
fe_1(h->Z);
}

11
libaxolotl/jni/ed25519/ge_p2_dbl.c
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@ -1,11 +0,0 @@
#include "ge.h"
/*
r = 2 * p
*/
void ge_p2_dbl(ge_p1p1 *r,const ge_p2 *p)
{
fe t0;
#include "ge_p2_dbl.h"
}

73
libaxolotl/jni/ed25519/ge_p2_dbl.h
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@ -1,73 +0,0 @@
/* qhasm: enter ge_p2_dbl */
/* qhasm: fe X1 */
/* qhasm: fe Y1 */
/* qhasm: fe Z1 */
/* qhasm: fe A */
/* qhasm: fe AA */
/* qhasm: fe XX */
/* qhasm: fe YY */
/* qhasm: fe B */
/* qhasm: fe X3 */
/* qhasm: fe Y3 */
/* qhasm: fe Z3 */
/* qhasm: fe T3 */
/* qhasm: XX=X1^2 */
/* asm 1: fe_sq(>XX=fe#1,<X1=fe#11); */
/* asm 2: fe_sq(>XX=r->X,<X1=p->X); */
fe_sq(r->X,p->X);
/* qhasm: YY=Y1^2 */
/* asm 1: fe_sq(>YY=fe#3,<Y1=fe#12); */
/* asm 2: fe_sq(>YY=r->Z,<Y1=p->Y); */
fe_sq(r->Z,p->Y);
/* qhasm: B=2*Z1^2 */
/* asm 1: fe_sq2(>B=fe#4,<Z1=fe#13); */
/* asm 2: fe_sq2(>B=r->T,<Z1=p->Z); */
fe_sq2(r->T,p->Z);
/* qhasm: A=X1+Y1 */
/* asm 1: fe_add(>A=fe#2,<X1=fe#11,<Y1=fe#12); */
/* asm 2: fe_add(>A=r->Y,<X1=p->X,<Y1=p->Y); */
fe_add(r->Y,p->X,p->Y);
/* qhasm: AA=A^2 */
/* asm 1: fe_sq(>AA=fe#5,<A=fe#2); */
/* asm 2: fe_sq(>AA=t0,<A=r->Y); */
fe_sq(t0,r->Y);
/* qhasm: Y3=YY+XX */
/* asm 1: fe_add(>Y3=fe#2,<YY=fe#3,<XX=fe#1); */
/* asm 2: fe_add(>Y3=r->Y,<YY=r->Z,<XX=r->X); */
fe_add(r->Y,r->Z,r->X);
/* qhasm: Z3=YY-XX */
/* asm 1: fe_sub(>Z3=fe#3,<YY=fe#3,<XX=fe#1); */
/* asm 2: fe_sub(>Z3=r->Z,<YY=r->Z,<XX=r->X); */
fe_sub(r->Z,r->Z,r->X);
/* qhasm: X3=AA-Y3 */
/* asm 1: fe_sub(>X3=fe#1,<AA=fe#5,<Y3=fe#2); */
/* asm 2: fe_sub(>X3=r->X,<AA=t0,<Y3=r->Y); */
fe_sub(r->X,t0,r->Y);
/* qhasm: T3=B-Z3 */
/* asm 1: fe_sub(>T3=fe#4,<B=fe#4,<Z3=fe#3); */
/* asm 2: fe_sub(>T3=r->T,<B=r->T,<Z3=r->Z); */
fe_sub(r->T,r->T,r->Z);
/* qhasm: return */

9
libaxolotl/jni/ed25519/ge_p3_0.c
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@ -1,9 +0,0 @@
#include "ge.h"
void ge_p3_0(ge_p3 *h)
{
fe_0(h->X);
fe_1(h->Y);
fe_1(h->Z);
fe_0(h->T);
}

12
libaxolotl/jni/ed25519/ge_p3_dbl.c
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@ -1,12 +0,0 @@
#include "ge.h"
/*
r = 2 * p
*/
void ge_p3_dbl(ge_p1p1 *r,const ge_p3 *p)
{
ge_p2 q;
ge_p3_to_p2(&q,p);
ge_p2_dbl(r,&q);
}

17
libaxolotl/jni/ed25519/ge_p3_to_cached.c
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@ -1,17 +0,0 @@
#include "ge.h"
/*
r = p
*/
static const fe d2 = {
#include "d2.h"
} ;
extern void ge_p3_to_cached(ge_cached *r,const ge_p3 *p)
{
fe_add(r->YplusX,p->Y,p->X);
fe_sub(r->YminusX,p->Y,p->X);
fe_copy(r->Z,p->Z);
fe_mul(r->T2d,p->T,d2);
}

12
libaxolotl/jni/ed25519/ge_p3_to_p2.c
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@ -1,12 +0,0 @@
#include "ge.h"
/*
r = p
*/
extern void ge_p3_to_p2(ge_p2 *r,const ge_p3 *p)
{
fe_copy(r->X,p->X);
fe_copy(r->Y,p->Y);
fe_copy(r->Z,p->Z);
}

14
libaxolotl/jni/ed25519/ge_p3_tobytes.c
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@ -1,14 +0,0 @@
#include "ge.h"
void ge_p3_tobytes(unsigned char *s,const ge_p3 *h)
{
fe recip;
fe x;
fe y;
fe_invert(recip,h->Z);
fe_mul(x,h->X,recip);
fe_mul(y,h->Y,recip);
fe_tobytes(s,y);
s[31] ^= fe_isnegative(x) << 7;
}

8
libaxolotl/jni/ed25519/ge_precomp_0.c
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@ -1,8 +0,0 @@
#include "ge.h"
void ge_precomp_0(ge_precomp *h)
{
fe_1(h->yplusx);
fe_1(h->yminusx);
fe_0(h->xy2d);
}

105
libaxolotl/jni/ed25519/ge_scalarmult_base.c
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@ -1,105 +0,0 @@
#include "ge.h"
#include "crypto_uint32.h"
static unsigned char equal(signed char b,signed char c)
{
unsigned char ub = b;
unsigned char uc = c;
unsigned char x = ub ^ uc; /* 0: yes; 1..255: no */
crypto_uint32 y = x; /* 0: yes; 1..255: no */
y -= 1; /* 4294967295: yes; 0..254: no */
y >>= 31; /* 1: yes; 0: no */
return y;
}
static unsigned char negative(signed char b)
{
unsigned long long x = b; /* 18446744073709551361..18446744073709551615: yes; 0..255: no */
x >>= 63; /* 1: yes; 0: no */
return x;
}
static void cmov(ge_precomp *t,ge_precomp *u,unsigned char b)
{
fe_cmov(t->yplusx,u->yplusx,b);
fe_cmov(t->yminusx,u->yminusx,b);
fe_cmov(t->xy2d,u->xy2d,b);
}
/* base[i][j] = (j+1)*256^i*B */
static ge_precomp base[32][8] = {
#include "base.h"
} ;
static void select(ge_precomp *t,int pos,signed char b)
{
ge_precomp minust;
unsigned char bnegative = negative(b);
unsigned char babs = b - (((-bnegative) & b) << 1);
ge_precomp_0(t);
cmov(t,&base[pos][0],equal(babs,1));
cmov(t,&base[pos][1],equal(babs,2));
cmov(t,&base[pos][2],equal(babs,3));
cmov(t,&base[pos][3],equal(babs,4));
cmov(t,&base[pos][4],equal(babs,5));
cmov(t,&base[pos][5],equal(babs,6));
cmov(t,&base[pos][6],equal(babs,7));
cmov(t,&base[pos][7],equal(babs,8));
fe_copy(minust.yplusx,t->yminusx);
fe_copy(minust.yminusx,t->yplusx);
fe_neg(minust.xy2d,t->xy2d);
cmov(t,&minust,bnegative);
}
/*
h = a * B
where a = a[0]+256*a[1]+...+256^31 a[31]
B is the Ed25519 base point (x,4/5) with x positive.
Preconditions:
a[31] <= 127
*/
void ge_scalarmult_base(ge_p3 *h,const unsigned char *a)
{
signed char e[64];
signed char carry;
ge_p1p1 r;
ge_p2 s;
ge_precomp t;
int i;
for (i = 0;i < 32;++i) {
e[2 * i + 0] = (a[i] >> 0) & 15;
e[2 * i + 1] = (a[i] >> 4) & 15;
}
/* each e[i] is between 0 and 15 */
/* e[63] is between 0 and 7 */
carry = 0;
for (i = 0;i < 63;++i) {
e[i] += carry;
carry = e[i] + 8;
carry >>= 4;
e[i] -= carry << 4;
}
e[63] += carry;
/* each e[i] is between -8 and 8 */
ge_p3_0(h);
for (i = 1;i < 64;i += 2) {
select(&t,i / 2,e[i]);
ge_madd(&r,h,&t); ge_p1p1_to_p3(h,&r);
}
ge_p3_dbl(&r,h); ge_p1p1_to_p2(&s,&r);
ge_p2_dbl(&r,&s); ge_p1p1_to_p2(&s,&r);
ge_p2_dbl(&r,&s); ge_p1p1_to_p2(&s,&r);
ge_p2_dbl(&r,&s); ge_p1p1_to_p3(h,&r);
for (i = 0;i < 64;i += 2) {
select(&t,i / 2,e[i]);
ge_madd(&r,h,&t); ge_p1p1_to_p3(h,&r);
}
}

11
libaxolotl/jni/ed25519/ge_sub.c
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@ -1,11 +0,0 @@
#include "ge.h"
/*
r = p - q
*/
void ge_sub(ge_p1p1 *r,const ge_p3 *p,const ge_cached *q)
{
fe t0;
#include "ge_sub.h"
}

97
libaxolotl/jni/ed25519/ge_sub.h
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@ -1,97 +0,0 @@
/* qhasm: enter ge_sub */
/* qhasm: fe X1 */
/* qhasm: fe Y1 */
/* qhasm: fe Z1 */
/* qhasm: fe Z2 */
/* qhasm: fe T1 */
/* qhasm: fe ZZ */
/* qhasm: fe YpX2 */
/* qhasm: fe YmX2 */
/* qhasm: fe T2d2 */
/* qhasm: fe X3 */
/* qhasm: fe Y3 */
/* qhasm: fe Z3 */
/* qhasm: fe T3 */
/* qhasm: fe YpX1 */
/* qhasm: fe YmX1 */
/* qhasm: fe A */
/* qhasm: fe B */
/* qhasm: fe C */
/* qhasm: fe D */
/* qhasm: YpX1 = Y1+X1 */
/* asm 1: fe_add(>YpX1=fe#1,<Y1=fe#12,<X1=fe#11); */
/* asm 2: fe_add(>YpX1=r->X,<Y1=p->Y,<X1=p->X); */
fe_add(r->X,p->Y,p->X);
/* qhasm: YmX1 = Y1-X1 */
/* asm 1: fe_sub(>YmX1=fe#2,<Y1=fe#12,<X1=fe#11); */
/* asm 2: fe_sub(>YmX1=r->Y,<Y1=p->Y,<X1=p->X); */
fe_sub(r->Y,p->Y,p->X);
/* qhasm: A = YpX1*YmX2 */
/* asm 1: fe_mul(>A=fe#3,<YpX1=fe#1,<YmX2=fe#16); */
/* asm 2: fe_mul(>A=r->Z,<YpX1=r->X,<YmX2=q->YminusX); */
fe_mul(r->Z,r->X,q->YminusX);
/* qhasm: B = YmX1*YpX2 */
/* asm 1: fe_mul(>B=fe#2,<YmX1=fe#2,<YpX2=fe#15); */
/* asm 2: fe_mul(>B=r->Y,<YmX1=r->Y,<YpX2=q->YplusX); */
fe_mul(r->Y,r->Y,q->YplusX);
/* qhasm: C = T2d2*T1 */
/* asm 1: fe_mul(>C=fe#4,<T2d2=fe#18,<T1=fe#14); */
/* asm 2: fe_mul(>C=r->T,<T2d2=q->T2d,<T1=p->T); */
fe_mul(r->T,q->T2d,p->T);
/* qhasm: ZZ = Z1*Z2 */
/* asm 1: fe_mul(>ZZ=fe#1,<Z1=fe#13,<Z2=fe#17); */
/* asm 2: fe_mul(>ZZ=r->X,<Z1=p->Z,<Z2=q->Z); */
fe_mul(r->X,p->Z,q->Z);
/* qhasm: D = 2*ZZ */
/* asm 1: fe_add(>D=fe#5,<ZZ=fe#1,<ZZ=fe#1); */
/* asm 2: fe_add(>D=t0,<ZZ=r->X,<ZZ=r->X); */
fe_add(t0,r->X,r->X);
/* qhasm: X3 = A-B */
/* asm 1: fe_sub(>X3=fe#1,<A=fe#3,<B=fe#2); */
/* asm 2: fe_sub(>X3=r->X,<A=r->Z,<B=r->Y); */
fe_sub(r->X,r->Z,r->Y);
/* qhasm: Y3 = A+B */
/* asm 1: fe_add(>Y3=fe#2,<A=fe#3,<B=fe#2); */
/* asm 2: fe_add(>Y3=r->Y,<A=r->Z,<B=r->Y); */
fe_add(r->Y,r->Z,r->Y);
/* qhasm: Z3 = D-C */
/* asm 1: fe_sub(>Z3=fe#3,<D=fe#5,<C=fe#4); */
/* asm 2: fe_sub(>Z3=r->Z,<D=t0,<C=r->T); */
fe_sub(r->Z,t0,r->T);
/* qhasm: T3 = D+C */
/* asm 1: fe_add(>T3=fe#4,<D=fe#5,<C=fe#4); */
/* asm 2: fe_add(>T3=r->T,<D=t0,<C=r->T); */
fe_add(r->T,t0,r->T);
/* qhasm: return */

14
libaxolotl/jni/ed25519/ge_tobytes.c
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@ -1,14 +0,0 @@
#include "ge.h"
void ge_tobytes(unsigned char *s,const ge_p2 *h)
{
fe recip;
fe x;
fe y;
fe_invert(recip,h->Z);
fe_mul(x,h->X,recip);
fe_mul(y,h->Y,recip);
fe_tobytes(s,y);
s[31] ^= fe_isnegative(x) << 7;
}

106
libaxolotl/jni/ed25519/main/main.c
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@ -1,106 +0,0 @@
#include <stdio.h>
#include <string.h>
#include "crypto_hash_sha512.h"
#include "curve_sigs.h"
#define MSG_LEN 200
int main(int argc, char* argv[])
{
unsigned char privkey[32];
unsigned char pubkey[32];
unsigned char signature[64];
unsigned char msg[MSG_LEN];
unsigned char random[64];
/* Initialize pubkey, privkey, msg */
memset(msg, 0, MSG_LEN);
memset(privkey, 0, 32);
memset(pubkey, 0, 32);
privkey[0] &= 248;
privkey[31] &= 63;
privkey[31] |= 64;
privkey[8] = 189; /* just so there's some bits set */
/* SHA512 test */
unsigned char sha512_input[112] = "abcdefghbcdefghicdefghijdefghijkefghijklfghijklmghijklmnhijklmnoijklmnopjklmnopqklmnopqrlmnopqrsmnopqrstnopqrstu";
unsigned char sha512_correct_output[64] =
{
0x8E, 0x95, 0x9B, 0x75, 0xDA, 0xE3, 0x13, 0xDA,
0x8C, 0xF4, 0xF7, 0x28, 0x14, 0xFC, 0x14, 0x3F,
0x8F, 0x77, 0x79, 0xC6, 0xEB, 0x9F, 0x7F, 0xA1,
0x72, 0x99, 0xAE, 0xAD, 0xB6, 0x88, 0x90, 0x18,
0x50, 0x1D, 0x28, 0x9E, 0x49, 0x00, 0xF7, 0xE4,
0x33, 0x1B, 0x99, 0xDE, 0xC4, 0xB5, 0x43, 0x3A,
0xC7, 0xD3, 0x29, 0xEE, 0xB6, 0xDD, 0x26, 0x54,
0x5E, 0x96, 0xE5, 0x5B, 0x87, 0x4B, 0xE9, 0x09
};
unsigned char sha512_actual_output[64];
crypto_hash_sha512(sha512_actual_output, sha512_input, sizeof(sha512_input));
if (memcmp(sha512_actual_output, sha512_correct_output, 64) != 0)
printf("SHA512 bad #1\n");
else
printf("SHA512 good #1\n");
sha512_input[111] ^= 1;
crypto_hash_sha512(sha512_actual_output, sha512_input, sizeof(sha512_input));
if (memcmp(sha512_actual_output, sha512_correct_output, 64) != 0)
printf("SHA512 good #2\n");
else
printf("SHA512 bad #2\n");
/* Signature test */
curve25519_keygen(pubkey, privkey);
curve25519_sign(signature, privkey, msg, MSG_LEN, random);
if (curve25519_verify(signature, pubkey, msg, MSG_LEN) == 0)
printf("Signature good #1\n");
else
printf("Signature bad #1\n");
signature[0] ^= 1;
if (curve25519_verify(signature, pubkey, msg, MSG_LEN) == 0)
printf("Signature bad #2\n");
else
printf("Signature good #2\n");
printf("Random testing...\n");
for (int count = 0; count < 10000; count++) {
unsigned char b[64];
crypto_hash_sha512(b, privkey, 32);
memmove(privkey, b, 32);
crypto_hash_sha512(b, privkey, 32);
memmove(random, b, 64);
privkey[0] &= 248;
privkey[31] &= 63;
privkey[31] |= 64;
curve25519_keygen(pubkey, privkey);
curve25519_sign(signature, privkey, msg, MSG_LEN, random);
if (curve25519_verify(signature, pubkey, msg, MSG_LEN) != 0) {
printf("failure #1 %d\n", count);
return -1;
}
if (b[63] & 1)
signature[count % 64] ^= 1;
else
msg[count % MSG_LEN] ^= 1;
if (curve25519_verify(signature, pubkey, msg, MSG_LEN) == 0) {
printf("failure #2 %d\n", count);
return -1;
}
}
printf("OK\n");
return 1;
}

6
libaxolotl/jni/ed25519/nacl_includes/crypto_int32.h
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@ -1,6 +0,0 @@
#ifndef crypto_int32_h
#define crypto_int32_h
typedef int crypto_int32;
#endif

6
libaxolotl/jni/ed25519/nacl_includes/crypto_int64.h
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@ -1,6 +0,0 @@
#ifndef crypto_int64_h
#define crypto_int64_h
typedef long long crypto_int64;
#endif

16
libaxolotl/jni/ed25519/nacl_includes/crypto_sign.h
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@ -1,16 +0,0 @@
#ifndef crypto_sign_H
#define crypto_sign_H
#include "crypto_sign_edwards25519sha512batch.h"
#define crypto_sign crypto_sign_edwards25519sha512batch
#define crypto_sign_open crypto_sign_edwards25519sha512batch_open
#define crypto_sign_keypair crypto_sign_edwards25519sha512batch_keypair
#define crypto_sign_BYTES crypto_sign_edwards25519sha512batch_BYTES
#define crypto_sign_PUBLICKEYBYTES crypto_sign_edwards25519sha512batch_PUBLICKEYBYTES
#define crypto_sign_SECRETKEYBYTES crypto_sign_edwards25519sha512batch_SECRETKEYBYTES
#define crypto_sign_PRIMITIVE "edwards25519sha512batch"
#define crypto_sign_IMPLEMENTATION crypto_sign_edwards25519sha512batch_IMPLEMENTATION
#define crypto_sign_VERSION crypto_sign_edwards25519sha512batch_VERSION
#endif

33
libaxolotl/jni/ed25519/nacl_includes/crypto_sign_edwards25519sha512batch.h
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@ -1,33 +0,0 @@
#ifndef crypto_sign_edwards25519sha512batch_H
#define crypto_sign_edwards25519sha512batch_H
#define crypto_sign_edwards25519sha512batch_ref10_SECRETKEYBYTES 64
#define crypto_sign_edwards25519sha512batch_ref10_PUBLICKEYBYTES 32
#define crypto_sign_edwards25519sha512batch_ref10_BYTES 64
#ifdef __cplusplus
#include <string>
extern std::string crypto_sign_edwards25519sha512batch_ref10(const std::string &,const std::string &);
extern std::string crypto_sign_edwards25519sha512batch_ref10_open(const std::string &,const std::string &);
extern std::string crypto_sign_edwards25519sha512batch_ref10_keypair(std::string *);
extern "C" {
#endif
extern int crypto_sign_edwards25519sha512batch_ref10(unsigned char *,unsigned long long *,const unsigned char *,unsigned long long,const unsigned char *);
extern int crypto_sign_edwards25519sha512batch_ref10_open(unsigned char *,unsigned long long *,const unsigned char *,unsigned long long,const unsigned char *);
extern int crypto_sign_edwards25519sha512batch_ref10_keypair(unsigned char *,unsigned char *);
#ifdef __cplusplus
}
#endif
#define crypto_sign_edwards25519sha512batch crypto_sign_edwards25519sha512batch_ref10
#define crypto_sign_edwards25519sha512batch_open crypto_sign_edwards25519sha512batch_ref10_open
#define crypto_sign_edwards25519sha512batch_keypair crypto_sign_edwards25519sha512batch_ref10_keypair
#define crypto_sign_edwards25519sha512batch_BYTES crypto_sign_edwards25519sha512batch_ref10_BYTES
#define crypto_sign_edwards25519sha512batch_PUBLICKEYBYTES crypto_sign_edwards25519sha512batch_ref10_PUBLICKEYBYTES
#define crypto_sign_edwards25519sha512batch_SECRETKEYBYTES crypto_sign_edwards25519sha512batch_ref10_SECRETKEYBYTES
#define crypto_sign_edwards25519sha512batch_IMPLEMENTATION "crypto_sign/edwards25519sha512batch/ref10"
#ifndef crypto_sign_edwards25519sha512batch_ref10_VERSION
#define crypto_sign_edwards25519sha512batch_ref10_VERSION "-"
#endif
#define crypto_sign_edwards25519sha512batch_VERSION crypto_sign_edwards25519sha512batch_ref10_VERSION
#endif

6
libaxolotl/jni/ed25519/nacl_includes/crypto_uint32.h
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@ -1,6 +0,0 @@
#ifndef crypto_uint32_h
#define crypto_uint32_h
typedef unsigned int crypto_uint32;
#endif

6
libaxolotl/jni/ed25519/nacl_includes/crypto_uint64.h
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#ifndef crypto_uint64_h
#define crypto_uint64_h
typedef unsigned long long crypto_uint64;
#endif

22
libaxolotl/jni/ed25519/nacl_includes/crypto_verify_32.h
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@ -1,22 +0,0 @@
#ifndef crypto_verify_32_H
#define crypto_verify_32_H
#define crypto_verify_32_ref_BYTES 32
#ifdef __cplusplus
#include <string>
extern "C" {
#endif
extern int crypto_verify_32_ref(const unsigned char *,const unsigned char *);
#ifdef __cplusplus
}
#endif
#define crypto_verify_32 crypto_verify_32_ref
#define crypto_verify_32_BYTES crypto_verify_32_ref_BYTES
#define crypto_verify_32_IMPLEMENTATION "crypto_verify/32/ref"
#ifndef crypto_verify_32_ref_VERSION
#define crypto_verify_32_ref_VERSION "-"
#endif
#define crypto_verify_32_VERSION crypto_verify_32_ref_VERSION
#endif

238
libaxolotl/jni/ed25519/nacl_sha512/blocks.c
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#include <stdint.h>
typedef uint64_t uint64;
static uint64 load_bigendian(const unsigned char *x)
{
return
(uint64) (x[7]) \
| (((uint64) (x[6])) << 8) \
| (((uint64) (x[5])) << 16) \
| (((uint64) (x[4])) << 24) \
| (((uint64) (x[3])) << 32) \
| (((uint64) (x[2])) << 40) \
| (((uint64) (x[1])) << 48) \
| (((uint64) (x[0])) << 56)
;
}
static void store_bigendian(unsigned char *x,uint64 u)
{
x[7] = u; u >>= 8;
x[6] = u; u >>= 8;
x[5] = u; u >>= 8;
x[4] = u; u >>= 8;
x[3] = u; u >>= 8;
x[2] = u; u >>= 8;
x[1] = u; u >>= 8;
x[0] = u;
}
#define SHR(x,c) ((x) >> (c))
#define ROTR(x,c) (((x) >> (c)) | ((x) << (64 - (c))))
#define Ch(x,y,z) ((x & y) ^ (~x & z))
#define Maj(x,y,z) ((x & y) ^ (x & z) ^ (y & z))
#define Sigma0(x) (ROTR(x,28) ^ ROTR(x,34) ^ ROTR(x,39))
#define Sigma1(x) (ROTR(x,14) ^ ROTR(x,18) ^ ROTR(x,41))
#define sigma0(x) (ROTR(x, 1) ^ ROTR(x, 8) ^ SHR(x,7))
#define sigma1(x) (ROTR(x,19) ^ ROTR(x,61) ^ SHR(x,6))
#define M(w0,w14,w9,w1) w0 = sigma1(w14) + w9 + sigma0(w1) + w0;
#define EXPAND \
M(w0 ,w14,w9 ,w1 ) \
M(w1 ,w15,w10,w2 ) \
M(w2 ,w0 ,w11,w3 ) \
M(w3 ,w1 ,w12,w4 ) \
M(w4 ,w2 ,w13,w5 ) \
M(w5 ,w3 ,w14,w6 ) \
M(w6 ,w4 ,w15,w7 ) \
M(w7 ,w5 ,w0 ,w8 ) \
M(w8 ,w6 ,w1 ,w9 ) \
M(w9 ,w7 ,w2 ,w10) \
M(w10,w8 ,w3 ,w11) \
M(w11,w9 ,w4 ,w12) \
M(w12,w10,w5 ,w13) \
M(w13,w11,w6 ,w14) \
M(w14,w12,w7 ,w15) \
M(w15,w13,w8 ,w0 )
#define F(w,k) \
T1 = h + Sigma1(e) + Ch(e,f,g) + k + w; \
T2 = Sigma0(a) + Maj(a,b,c); \
h = g; \
g = f; \
f = e; \
e = d + T1; \
d = c; \
c = b; \
b = a; \
a = T1 + T2;
int crypto_hashblocks_sha512(unsigned char *statebytes,const unsigned char *in,unsigned long long inlen)
{
uint64 state[8];
uint64 a;
uint64 b;
uint64 c;
uint64 d;
uint64 e;
uint64 f;
uint64 g;
uint64 h;
uint64 T1;
uint64 T2;
a = load_bigendian(statebytes + 0); state[0] = a;
b = load_bigendian(statebytes + 8); state[1] = b;
c = load_bigendian(statebytes + 16); state[2] = c;
d = load_bigendian(statebytes + 24); state[3] = d;
e = load_bigendian(statebytes + 32); state[4] = e;
f = load_bigendian(statebytes + 40); state[5] = f;
g = load_bigendian(statebytes + 48); state[6] = g;
h = load_bigendian(statebytes + 56); state[7] = h;
while (inlen >= 128) {
uint64 w0 = load_bigendian(in + 0);
uint64 w1 = load_bigendian(in + 8);
uint64 w2 = load_bigendian(in + 16);
uint64 w3 = load_bigendian(in + 24);
uint64 w4 = load_bigendian(in + 32);
uint64 w5 = load_bigendian(in + 40);
uint64 w6 = load_bigendian(in + 48);
uint64 w7 = load_bigendian(in + 56);
uint64 w8 = load_bigendian(in + 64);
uint64 w9 = load_bigendian(in + 72);
uint64 w10 = load_bigendian(in + 80);
uint64 w11 = load_bigendian(in + 88);
uint64 w12 = load_bigendian(in + 96);
uint64 w13 = load_bigendian(in + 104);
uint64 w14 = load_bigendian(in + 112);
uint64 w15 = load_bigendian(in + 120);
F(w0 ,0x428a2f98d728ae22ULL)
F(w1 ,0x7137449123ef65cdULL)
F(w2 ,0xb5c0fbcfec4d3b2fULL)
F(w3 ,0xe9b5dba58189dbbcULL)
F(w4 ,0x3956c25bf348b538ULL)
F(w5 ,0x59f111f1b605d019ULL)
F(w6 ,0x923f82a4af194f9bULL)
F(w7 ,0xab1c5ed5da6d8118ULL)
F(w8 ,0xd807aa98a3030242ULL)
F(w9 ,0x12835b0145706fbeULL)
F(w10,0x243185be4ee4b28cULL)
F(w11,0x550c7dc3d5ffb4e2ULL)
F(w12,0x72be5d74f27b896fULL)
F(w13,0x80deb1fe3b1696b1ULL)
F(w14,0x9bdc06a725c71235ULL)
F(w15,0xc19bf174cf692694ULL)
EXPAND
F(w0 ,0xe49b69c19ef14ad2ULL)
F(w1 ,0xefbe4786384f25e3ULL)
F(w2 ,0x0fc19dc68b8cd5b5ULL)
F(w3 ,0x240ca1cc77ac9c65ULL)
F(w4 ,0x2de92c6f592b0275ULL)
F(w5 ,0x4a7484aa6ea6e483ULL)
F(w6 ,0x5cb0a9dcbd41fbd4ULL)
F(w7 ,0x76f988da831153b5ULL)
F(w8 ,0x983e5152ee66dfabULL)
F(w9 ,0xa831c66d2db43210ULL)
F(w10,0xb00327c898fb213fULL)
F(w11,0xbf597fc7beef0ee4ULL)
F(w12,0xc6e00bf33da88fc2ULL)
F(w13,0xd5a79147930aa725ULL)
F(w14,0x06ca6351e003826fULL)
F(w15,0x142929670a0e6e70ULL)
EXPAND
F(w0 ,0x27b70a8546d22ffcULL)
F(w1 ,0x2e1b21385c26c926ULL)
F(w2 ,0x4d2c6dfc5ac42aedULL)
F(w3 ,0x53380d139d95b3dfULL)
F(w4 ,0x650a73548baf63deULL)
F(w5 ,0x766a0abb3c77b2a8ULL)
F(w6 ,0x81c2c92e47edaee6ULL)
F(w7 ,0x92722c851482353bULL)
F(w8 ,0xa2bfe8a14cf10364ULL)
F(w9 ,0xa81a664bbc423001ULL)
F(w10,0xc24b8b70d0f89791ULL)
F(w11,0xc76c51a30654be30ULL)
F(w12,0xd192e819d6ef5218ULL)
F(w13,0xd69906245565a910ULL)
F(w14,0xf40e35855771202aULL)
F(w15,0x106aa07032bbd1b8ULL)
EXPAND
F(w0 ,0x19a4c116b8d2d0c8ULL)
F(w1 ,0x1e376c085141ab53ULL)
F(w2 ,0x2748774cdf8eeb99ULL)
F(w3 ,0x34b0bcb5e19b48a8ULL)
F(w4 ,0x391c0cb3c5c95a63ULL)
F(w5 ,0x4ed8aa4ae3418acbULL)
F(w6 ,0x5b9cca4f7763e373ULL)
F(w7 ,0x682e6ff3d6b2b8a3ULL)
F(w8 ,0x748f82ee5defb2fcULL)
F(w9 ,0x78a5636f43172f60ULL)
F(w10,0x84c87814a1f0ab72ULL)
F(w11,0x8cc702081a6439ecULL)
F(w12,0x90befffa23631e28ULL)
F(w13,0xa4506cebde82bde9ULL)
F(w14,0xbef9a3f7b2c67915ULL)
F(w15,0xc67178f2e372532bULL)
EXPAND
F(w0 ,0xca273eceea26619cULL)
F(w1 ,0xd186b8c721c0c207ULL)
F(w2 ,0xeada7dd6cde0eb1eULL)
F(w3 ,0xf57d4f7fee6ed178ULL)
F(w4 ,0x06f067aa72176fbaULL)
F(w5 ,0x0a637dc5a2c898a6ULL)
F(w6 ,0x113f9804bef90daeULL)
F(w7 ,0x1b710b35131c471bULL)
F(w8 ,0x28db77f523047d84ULL)
F(w9 ,0x32caab7b40c72493ULL)
F(w10,0x3c9ebe0a15c9bebcULL)
F(w11,0x431d67c49c100d4cULL)
F(w12,0x4cc5d4becb3e42b6ULL)
F(w13,0x597f299cfc657e2aULL)
F(w14,0x5fcb6fab3ad6faecULL)
F(w15,0x6c44198c4a475817ULL)
a += state[0];
b += state[1];
c += state[2];
d += state[3];
e += state[4];
f += state[5];
g += state[6];
h += state[7];
state[0] = a;
state[1] = b;
state[2] = c;
state[3] = d;
state[4] = e;
state[5] = f;
state[6] = g;
state[7] = h;
in += 128;
inlen -= 128;
}
store_bigendian(statebytes + 0,state[0]);
store_bigendian(statebytes + 8,state[1]);
store_bigendian(statebytes + 16,state[2]);
store_bigendian(statebytes + 24,state[3]);
store_bigendian(statebytes + 32,state[4]);
store_bigendian(statebytes + 40,state[5]);
store_bigendian(statebytes + 48,state[6]);
store_bigendian(statebytes + 56,state[7]);
return 0;
}

71
libaxolotl/jni/ed25519/nacl_sha512/hash.c
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/*
20080913
D. J. Bernstein
Public domain.
*/
#include <stdint.h>
typedef uint64_t uint64;
extern int crypto_hashblocks_sha512(unsigned char *statebytes,const unsigned char *in,unsigned long long inlen);
#define blocks crypto_hashblocks_sha512
static const unsigned char iv[64] = {
0x6a,0x09,0xe6,0x67,0xf3,0xbc,0xc9,0x08,
0xbb,0x67,0xae,0x85,0x84,0xca,0xa7,0x3b,
0x3c,0x6e,0xf3,0x72,0xfe,0x94,0xf8,0x2b,
0xa5,0x4f,0xf5,0x3a,0x5f,0x1d,0x36,0xf1,
0x51,0x0e,0x52,0x7f,0xad,0xe6,0x82,0xd1,
0x9b,0x05,0x68,0x8c,0x2b,0x3e,0x6c,0x1f,
0x1f,0x83,0xd9,0xab,0xfb,0x41,0xbd,0x6b,
0x5b,0xe0,0xcd,0x19,0x13,0x7e,0x21,0x79
} ;
int crypto_hash_sha512(unsigned char *out,const unsigned char *in,unsigned long long inlen)
{
unsigned char h[64];
unsigned char padded[256];
int i;
unsigned long long bytes = inlen;
for (i = 0;i < 64;++i) h[i] = iv[i];
blocks(h,in,inlen);
in += inlen;
inlen &= 127;
in -= inlen;
for (i = 0;i < inlen;++i) padded[i] = in[i];
padded[inlen] = 0x80;
if (inlen < 112) {
for (i = inlen + 1;i < 119;++i) padded[i] = 0;
padded[119] = bytes >> 61;
padded[120] = bytes >> 53;
padded[121] = bytes >> 45;
padded[122] = bytes >> 37;
padded[123] = bytes >> 29;
padded[124] = bytes >> 21;
padded[125] = bytes >> 13;
padded[126] = bytes >> 5;
padded[127] = bytes << 3;
blocks(h,padded,128);
} else {
for (i = inlen + 1;i < 247;++i) padded[i] = 0;
padded[247] = bytes >> 61;
padded[248] = bytes >> 53;
padded[249] = bytes >> 45;
padded[250] = bytes >> 37;
padded[251] = bytes >> 29;
padded[252] = bytes >> 21;
padded[253] = bytes >> 13;
padded[254] = bytes >> 5;
padded[255] = bytes << 3;
blocks(h,padded,256);
}
for (i = 0;i < 64;++i) out[i] = h[i];
return 0;
}

48
libaxolotl/jni/ed25519/open.c
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@ -1,48 +0,0 @@
#include <string.h>
#include "crypto_sign.h"
#include "crypto_hash_sha512.h"
#include "crypto_verify_32.h"
#include "ge.h"
#include "sc.h"
int crypto_sign_open(
unsigned char *m,unsigned long long *mlen,
const unsigned char *sm,unsigned long long smlen,
const unsigned char *pk
)
{
unsigned char pkcopy[32];
unsigned char rcopy[32];
unsigned char scopy[32];
unsigned char h[64];
unsigned char rcheck[32];
ge_p3 A;
ge_p2 R;
if (smlen < 64) goto badsig;
if (sm[63] & 224) goto badsig;
if (ge_frombytes_negate_vartime(&A,pk) != 0) goto badsig;
memmove(pkcopy,pk,32);
memmove(rcopy,sm,32);
memmove(scopy,sm + 32,32);
memmove(m,sm,smlen);
memmove(m + 32,pkcopy,32);
crypto_hash_sha512(h,m,smlen);
sc_reduce(h);
ge_double_scalarmult_vartime(&R,h,&A,scopy);
ge_tobytes(rcheck,&R);
if (crypto_verify_32(rcheck,rcopy) == 0) {
memmove(m,m + 64,smlen - 64);
memset(m + smlen - 64,0,64);
*mlen = smlen - 64;
return 0;
}
badsig:
*mlen = -1;
memset(m,0,smlen);
return -1;
}

160
libaxolotl/jni/ed25519/pow22523.h
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/* qhasm: fe z1 */
/* qhasm: fe z2 */
/* qhasm: fe z8 */
/* qhasm: fe z9 */
/* qhasm: fe z11 */
/* qhasm: fe z22 */
/* qhasm: fe z_5_0 */
/* qhasm: fe z_10_5 */
/* qhasm: fe z_10_0 */
/* qhasm: fe z_20_10 */
/* qhasm: fe z_20_0 */
/* qhasm: fe z_40_20 */
/* qhasm: fe z_40_0 */
/* qhasm: fe z_50_10 */
/* qhasm: fe z_50_0 */
/* qhasm: fe z_100_50 */
/* qhasm: fe z_100_0 */
/* qhasm: fe z_200_100 */
/* qhasm: fe z_200_0 */
/* qhasm: fe z_250_50 */
/* qhasm: fe z_250_0 */
/* qhasm: fe z_252_2 */
/* qhasm: fe z_252_3 */
/* qhasm: enter pow22523 */
/* qhasm: z2 = z1^2^1 */
/* asm 1: fe_sq(>z2=fe#1,<z1=fe#11); for (i = 1;i < 1;++i) fe_sq(>z2=fe#1,>z2=fe#1); */
/* asm 2: fe_sq(>z2=t0,<z1=z); for (i = 1;i < 1;++i) fe_sq(>z2=t0,>z2=t0); */
fe_sq(t0,z); for (i = 1;i < 1;++i) fe_sq(t0,t0);
/* qhasm: z8 = z2^2^2 */
/* asm 1: fe_sq(>z8=fe#2,<z2=fe#1); for (i = 1;i < 2;++i) fe_sq(>z8=fe#2,>z8=fe#2); */
/* asm 2: fe_sq(>z8=t1,<z2=t0); for (i = 1;i < 2;++i) fe_sq(>z8=t1,>z8=t1); */
fe_sq(t1,t0); for (i = 1;i < 2;++i) fe_sq(t1,t1);
/* qhasm: z9 = z1*z8 */
/* asm 1: fe_mul(>z9=fe#2,<z1=fe#11,<z8=fe#2); */
/* asm 2: fe_mul(>z9=t1,<z1=z,<z8=t1); */
fe_mul(t1,z,t1);
/* qhasm: z11 = z2*z9 */
/* asm 1: fe_mul(>z11=fe#1,<z2=fe#1,<z9=fe#2); */
/* asm 2: fe_mul(>z11=t0,<z2=t0,<z9=t1); */
fe_mul(t0,t0,t1);
/* qhasm: z22 = z11^2^1 */
/* asm 1: fe_sq(>z22=fe#1,<z11=fe#1); for (i = 1;i < 1;++i) fe_sq(>z22=fe#1,>z22=fe#1); */
/* asm 2: fe_sq(>z22=t0,<z11=t0); for (i = 1;i < 1;++i) fe_sq(>z22=t0,>z22=t0); */
fe_sq(t0,t0); for (i = 1;i < 1;++i) fe_sq(t0,t0);
/* qhasm: z_5_0 = z9*z22 */
/* asm 1: fe_mul(>z_5_0=fe#1,<z9=fe#2,<z22=fe#1); */
/* asm 2: fe_mul(>z_5_0=t0,<z9=t1,<z22=t0); */
fe_mul(t0,t1,t0);
/* qhasm: z_10_5 = z_5_0^2^5 */
/* asm 1: fe_sq(>z_10_5=fe#2,<z_5_0=fe#1); for (i = 1;i < 5;++i) fe_sq(>z_10_5=fe#2,>z_10_5=fe#2); */
/* asm 2: fe_sq(>z_10_5=t1,<z_5_0=t0); for (i = 1;i < 5;++i) fe_sq(>z_10_5=t1,>z_10_5=t1); */
fe_sq(t1,t0); for (i = 1;i < 5;++i) fe_sq(t1,t1);
/* qhasm: z_10_0 = z_10_5*z_5_0 */
/* asm 1: fe_mul(>z_10_0=fe#1,<z_10_5=fe#2,<z_5_0=fe#1); */
/* asm 2: fe_mul(>z_10_0=t0,<z_10_5=t1,<z_5_0=t0); */
fe_mul(t0,t1,t0);
/* qhasm: z_20_10 = z_10_0^2^10 */
/* asm 1: fe_sq(>z_20_10=fe#2,<z_10_0=fe#1); for (i = 1;i < 10;++i) fe_sq(>z_20_10=fe#2,>z_20_10=fe#2); */
/* asm 2: fe_sq(>z_20_10=t1,<z_10_0=t0); for (i = 1;i < 10;++i) fe_sq(>z_20_10=t1,>z_20_10=t1); */
fe_sq(t1,t0); for (i = 1;i < 10;++i) fe_sq(t1,t1);
/* qhasm: z_20_0 = z_20_10*z_10_0 */
/* asm 1: fe_mul(>z_20_0=fe#2,<z_20_10=fe#2,<z_10_0=fe#1); */
/* asm 2: fe_mul(>z_20_0=t1,<z_20_10=t1,<z_10_0=t0); */
fe_mul(t1,t1,t0);
/* qhasm: z_40_20 = z_20_0^2^20 */
/* asm 1: fe_sq(>z_40_20=fe#3,<z_20_0=fe#2); for (i = 1;i < 20;++i) fe_sq(>z_40_20=fe#3,>z_40_20=fe#3); */
/* asm 2: fe_sq(>z_40_20=t2,<z_20_0=t1); for (i = 1;i < 20;++i) fe_sq(>z_40_20=t2,>z_40_20=t2); */
fe_sq(t2,t1); for (i = 1;i < 20;++i) fe_sq(t2,t2);
/* qhasm: z_40_0 = z_40_20*z_20_0 */
/* asm 1: fe_mul(>z_40_0=fe#2,<z_40_20=fe#3,<z_20_0=fe#2); */
/* asm 2: fe_mul(>z_40_0=t1,<z_40_20=t2,<z_20_0=t1); */
fe_mul(t1,t2,t1);
/* qhasm: z_50_10 = z_40_0^2^10 */
/* asm 1: fe_sq(>z_50_10=fe#2,<z_40_0=fe#2); for (i = 1;i < 10;++i) fe_sq(>z_50_10=fe#2,>z_50_10=fe#2); */
/* asm 2: fe_sq(>z_50_10=t1,<z_40_0=t1); for (i = 1;i < 10;++i) fe_sq(>z_50_10=t1,>z_50_10=t1); */
fe_sq(t1,t1); for (i = 1;i < 10;++i) fe_sq(t1,t1);
/* qhasm: z_50_0 = z_50_10*z_10_0 */
/* asm 1: fe_mul(>z_50_0=fe#1,<z_50_10=fe#2,<z_10_0=fe#1); */
/* asm 2: fe_mul(>z_50_0=t0,<z_50_10=t1,<z_10_0=t0); */
fe_mul(t0,t1,t0);
/* qhasm: z_100_50 = z_50_0^2^50 */
/* asm 1: fe_sq(>z_100_50=fe#2,<z_50_0=fe#1); for (i = 1;i < 50;++i) fe_sq(>z_100_50=fe#2,>z_100_50=fe#2); */
/* asm 2: fe_sq(>z_100_50=t1,<z_50_0=t0); for (i = 1;i < 50;++i) fe_sq(>z_100_50=t1,>z_100_50=t1); */
fe_sq(t1,t0); for (i = 1;i < 50;++i) fe_sq(t1,t1);
/* qhasm: z_100_0 = z_100_50*z_50_0 */
/* asm 1: fe_mul(>z_100_0=fe#2,<z_100_50=fe#2,<z_50_0=fe#1); */
/* asm 2: fe_mul(>z_100_0=t1,<z_100_50=t1,<z_50_0=t0); */
fe_mul(t1,t1,t0);
/* qhasm: z_200_100 = z_100_0^2^100 */
/* asm 1: fe_sq(>z_200_100=fe#3,<z_100_0=fe#2); for (i = 1;i < 100;++i) fe_sq(>z_200_100=fe#3,>z_200_100=fe#3); */
/* asm 2: fe_sq(>z_200_100=t2,<z_100_0=t1); for (i = 1;i < 100;++i) fe_sq(>z_200_100=t2,>z_200_100=t2); */
fe_sq(t2,t1); for (i = 1;i < 100;++i) fe_sq(t2,t2);
/* qhasm: z_200_0 = z_200_100*z_100_0 */
/* asm 1: fe_mul(>z_200_0=fe#2,<z_200_100=fe#3,<z_100_0=fe#2); */
/* asm 2: fe_mul(>z_200_0=t1,<z_200_100=t2,<z_100_0=t1); */
fe_mul(t1,t2,t1);
/* qhasm: z_250_50 = z_200_0^2^50 */
/* asm 1: fe_sq(>z_250_50=fe#2,<z_200_0=fe#2); for (i = 1;i < 50;++i) fe_sq(>z_250_50=fe#2,>z_250_50=fe#2); */
/* asm 2: fe_sq(>z_250_50=t1,<z_200_0=t1); for (i = 1;i < 50;++i) fe_sq(>z_250_50=t1,>z_250_50=t1); */
fe_sq(t1,t1); for (i = 1;i < 50;++i) fe_sq(t1,t1);
/* qhasm: z_250_0 = z_250_50*z_50_0 */
/* asm 1: fe_mul(>z_250_0=fe#1,<z_250_50=fe#2,<z_50_0=fe#1); */
/* asm 2: fe_mul(>z_250_0=t0,<z_250_50=t1,<z_50_0=t0); */
fe_mul(t0,t1,t0);
/* qhasm: z_252_2 = z_250_0^2^2 */
/* asm 1: fe_sq(>z_252_2=fe#1,<z_250_0=fe#1); for (i = 1;i < 2;++i) fe_sq(>z_252_2=fe#1,>z_252_2=fe#1); */
/* asm 2: fe_sq(>z_252_2=t0,<z_250_0=t0); for (i = 1;i < 2;++i) fe_sq(>z_252_2=t0,>z_252_2=t0); */
fe_sq(t0,t0); for (i = 1;i < 2;++i) fe_sq(t0,t0);
/* qhasm: z_252_3 = z_252_2*z1 */
/* asm 1: fe_mul(>z_252_3=fe#12,<z_252_2=fe#1,<z1=fe#11); */
/* asm 2: fe_mul(>z_252_3=out,<z_252_2=t0,<z1=z); */
fe_mul(out,t0,z);
/* qhasm: return */

160
libaxolotl/jni/ed25519/pow225521.h
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@ -1,160 +0,0 @@
/* qhasm: fe z1 */
/* qhasm: fe z2 */
/* qhasm: fe z8 */
/* qhasm: fe z9 */
/* qhasm: fe z11 */
/* qhasm: fe z22 */
/* qhasm: fe z_5_0 */
/* qhasm: fe z_10_5 */
/* qhasm: fe z_10_0 */
/* qhasm: fe z_20_10 */
/* qhasm: fe z_20_0 */
/* qhasm: fe z_40_20 */
/* qhasm: fe z_40_0 */
/* qhasm: fe z_50_10 */
/* qhasm: fe z_50_0 */
/* qhasm: fe z_100_50 */
/* qhasm: fe z_100_0 */
/* qhasm: fe z_200_100 */
/* qhasm: fe z_200_0 */
/* qhasm: fe z_250_50 */
/* qhasm: fe z_250_0 */
/* qhasm: fe z_255_5 */
/* qhasm: fe z_255_21 */
/* qhasm: enter pow225521 */
/* qhasm: z2 = z1^2^1 */
/* asm 1: fe_sq(>z2=fe#1,<z1=fe#11); for (i = 1;i < 1;++i) fe_sq(>z2=fe#1,>z2=fe#1); */
/* asm 2: fe_sq(>z2=t0,<z1=z); for (i = 1;i < 1;++i) fe_sq(>z2=t0,>z2=t0); */
fe_sq(t0,z); for (i = 1;i < 1;++i) fe_sq(t0,t0);
/* qhasm: z8 = z2^2^2 */
/* asm 1: fe_sq(>z8=fe#2,<z2=fe#1); for (i = 1;i < 2;++i) fe_sq(>z8=fe#2,>z8=fe#2); */
/* asm 2: fe_sq(>z8=t1,<z2=t0); for (i = 1;i < 2;++i) fe_sq(>z8=t1,>z8=t1); */
fe_sq(t1,t0); for (i = 1;i < 2;++i) fe_sq(t1,t1);
/* qhasm: z9 = z1*z8 */
/* asm 1: fe_mul(>z9=fe#2,<z1=fe#11,<z8=fe#2); */
/* asm 2: fe_mul(>z9=t1,<z1=z,<z8=t1); */
fe_mul(t1,z,t1);
/* qhasm: z11 = z2*z9 */
/* asm 1: fe_mul(>z11=fe#1,<z2=fe#1,<z9=fe#2); */
/* asm 2: fe_mul(>z11=t0,<z2=t0,<z9=t1); */
fe_mul(t0,t0,t1);
/* qhasm: z22 = z11^2^1 */
/* asm 1: fe_sq(>z22=fe#3,<z11=fe#1); for (i = 1;i < 1;++i) fe_sq(>z22=fe#3,>z22=fe#3); */
/* asm 2: fe_sq(>z22=t2,<z11=t0); for (i = 1;i < 1;++i) fe_sq(>z22=t2,>z22=t2); */
fe_sq(t2,t0); for (i = 1;i < 1;++i) fe_sq(t2,t2);
/* qhasm: z_5_0 = z9*z22 */
/* asm 1: fe_mul(>z_5_0=fe#2,<z9=fe#2,<z22=fe#3); */
/* asm 2: fe_mul(>z_5_0=t1,<z9=t1,<z22=t2); */
fe_mul(t1,t1,t2);
/* qhasm: z_10_5 = z_5_0^2^5 */
/* asm 1: fe_sq(>z_10_5=fe#3,<z_5_0=fe#2); for (i = 1;i < 5;++i) fe_sq(>z_10_5=fe#3,>z_10_5=fe#3); */
/* asm 2: fe_sq(>z_10_5=t2,<z_5_0=t1); for (i = 1;i < 5;++i) fe_sq(>z_10_5=t2,>z_10_5=t2); */
fe_sq(t2,t1); for (i = 1;i < 5;++i) fe_sq(t2,t2);
/* qhasm: z_10_0 = z_10_5*z_5_0 */
/* asm 1: fe_mul(>z_10_0=fe#2,<z_10_5=fe#3,<z_5_0=fe#2); */
/* asm 2: fe_mul(>z_10_0=t1,<z_10_5=t2,<z_5_0=t1); */
fe_mul(t1,t2,t1);
/* qhasm: z_20_10 = z_10_0^2^10 */
/* asm 1: fe_sq(>z_20_10=fe#3,<z_10_0=fe#2); for (i = 1;i < 10;++i) fe_sq(>z_20_10=fe#3,>z_20_10=fe#3); */
/* asm 2: fe_sq(>z_20_10=t2,<z_10_0=t1); for (i = 1;i < 10;++i) fe_sq(>z_20_10=t2,>z_20_10=t2); */
fe_sq(t2,t1); for (i = 1;i < 10;++i) fe_sq(t2,t2);
/* qhasm: z_20_0 = z_20_10*z_10_0 */
/* asm 1: fe_mul(>z_20_0=fe#3,<z_20_10=fe#3,<z_10_0=fe#2); */
/* asm 2: fe_mul(>z_20_0=t2,<z_20_10=t2,<z_10_0=t1); */
fe_mul(t2,t2,t1);
/* qhasm: z_40_20 = z_20_0^2^20 */
/* asm 1: fe_sq(>z_40_20=fe#4,<z_20_0=fe#3); for (i = 1;i < 20;++i) fe_sq(>z_40_20=fe#4,>z_40_20=fe#4); */
/* asm 2: fe_sq(>z_40_20=t3,<z_20_0=t2); for (i = 1;i < 20;++i) fe_sq(>z_40_20=t3,>z_40_20=t3); */
fe_sq(t3,t2); for (i = 1;i < 20;++i) fe_sq(t3,t3);
/* qhasm: z_40_0 = z_40_20*z_20_0 */
/* asm 1: fe_mul(>z_40_0=fe#3,<z_40_20=fe#4,<z_20_0=fe#3); */
/* asm 2: fe_mul(>z_40_0=t2,<z_40_20=t3,<z_20_0=t2); */
fe_mul(t2,t3,t2);
/* qhasm: z_50_10 = z_40_0^2^10 */
/* asm 1: fe_sq(>z_50_10=fe#3,<z_40_0=fe#3); for (i = 1;i < 10;++i) fe_sq(>z_50_10=fe#3,>z_50_10=fe#3); */
/* asm 2: fe_sq(>z_50_10=t2,<z_40_0=t2); for (i = 1;i < 10;++i) fe_sq(>z_50_10=t2,>z_50_10=t2); */
fe_sq(t2,t2); for (i = 1;i < 10;++i) fe_sq(t2,t2);
/* qhasm: z_50_0 = z_50_10*z_10_0 */
/* asm 1: fe_mul(>z_50_0=fe#2,<z_50_10=fe#3,<z_10_0=fe#2); */
/* asm 2: fe_mul(>z_50_0=t1,<z_50_10=t2,<z_10_0=t1); */
fe_mul(t1,t2,t1);
/* qhasm: z_100_50 = z_50_0^2^50 */
/* asm 1: fe_sq(>z_100_50=fe#3,<z_50_0=fe#2); for (i = 1;i < 50;++i) fe_sq(>z_100_50=fe#3,>z_100_50=fe#3); */
/* asm 2: fe_sq(>z_100_50=t2,<z_50_0=t1); for (i = 1;i < 50;++i) fe_sq(>z_100_50=t2,>z_100_50=t2); */
fe_sq(t2,t1); for (i = 1;i < 50;++i) fe_sq(t2,t2);
/* qhasm: z_100_0 = z_100_50*z_50_0 */
/* asm 1: fe_mul(>z_100_0=fe#3,<z_100_50=fe#3,<z_50_0=fe#2); */
/* asm 2: fe_mul(>z_100_0=t2,<z_100_50=t2,<z_50_0=t1); */
fe_mul(t2,t2,t1);
/* qhasm: z_200_100 = z_100_0^2^100 */
/* asm 1: fe_sq(>z_200_100=fe#4,<z_100_0=fe#3); for (i = 1;i < 100;++i) fe_sq(>z_200_100=fe#4,>z_200_100=fe#4); */
/* asm 2: fe_sq(>z_200_100=t3,<z_100_0=t2); for (i = 1;i < 100;++i) fe_sq(>z_200_100=t3,>z_200_100=t3); */
fe_sq(t3,t2); for (i = 1;i < 100;++i) fe_sq(t3,t3);
/* qhasm: z_200_0 = z_200_100*z_100_0 */
/* asm 1: fe_mul(>z_200_0=fe#3,<z_200_100=fe#4,<z_100_0=fe#3); */
/* asm 2: fe_mul(>z_200_0=t2,<z_200_100=t3,<z_100_0=t2); */
fe_mul(t2,t3,t2);
/* qhasm: z_250_50 = z_200_0^2^50 */
/* asm 1: fe_sq(>z_250_50=fe#3,<z_200_0=fe#3); for (i = 1;i < 50;++i) fe_sq(>z_250_50=fe#3,>z_250_50=fe#3); */
/* asm 2: fe_sq(>z_250_50=t2,<z_200_0=t2); for (i = 1;i < 50;++i) fe_sq(>z_250_50=t2,>z_250_50=t2); */
fe_sq(t2,t2); for (i = 1;i < 50;++i) fe_sq(t2,t2);
/* qhasm: z_250_0 = z_250_50*z_50_0 */
/* asm 1: fe_mul(>z_250_0=fe#2,<z_250_50=fe#3,<z_50_0=fe#2); */
/* asm 2: fe_mul(>z_250_0=t1,<z_250_50=t2,<z_50_0=t1); */
fe_mul(t1,t2,t1);
/* qhasm: z_255_5 = z_250_0^2^5 */
/* asm 1: fe_sq(>z_255_5=fe#2,<z_250_0=fe#2); for (i = 1;i < 5;++i) fe_sq(>z_255_5=fe#2,>z_255_5=fe#2); */
/* asm 2: fe_sq(>z_255_5=t1,<z_250_0=t1); for (i = 1;i < 5;++i) fe_sq(>z_255_5=t1,>z_255_5=t1); */
fe_sq(t1,t1); for (i = 1;i < 5;++i) fe_sq(t1,t1);
/* qhasm: z_255_21 = z_255_5*z11 */
/* asm 1: fe_mul(>z_255_21=fe#12,<z_255_5=fe#2,<z11=fe#1); */
/* asm 2: fe_mul(>z_255_21=out,<z_255_5=t1,<z11=t0); */
fe_mul(out,t1,t0);
/* qhasm: return */

15
libaxolotl/jni/ed25519/sc.h
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#ifndef SC_H
#define SC_H
/*
The set of scalars is \Z/l
where l = 2^252 + 27742317777372353535851937790883648493.
*/
#define sc_reduce crypto_sign_ed25519_ref10_sc_reduce
#define sc_muladd crypto_sign_ed25519_ref10_sc_muladd
extern void sc_reduce(unsigned char *);
extern void sc_muladd(unsigned char *,const unsigned char *,const unsigned char *,const unsigned char *);
#endif

368
libaxolotl/jni/ed25519/sc_muladd.c
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#include "sc.h"
#include "crypto_int64.h"
#include "crypto_uint32.h"
#include "crypto_uint64.h"
static crypto_uint64 load_3(const unsigned char *in)
{
crypto_uint64 result;
result = (crypto_uint64) in[0];
result |= ((crypto_uint64) in[1]) << 8;
result |= ((crypto_uint64) in[2]) << 16;
return result;
}
static crypto_uint64 load_4(const unsigned char *in)
{
crypto_uint64 result;
result = (crypto_uint64) in[0];
result |= ((crypto_uint64) in[1]) << 8;
result |= ((crypto_uint64) in[2]) << 16;
result |= ((crypto_uint64) in[3]) << 24;
return result;
}
/*
Input:
a[0]+256*a[1]+...+256^31*a[31] = a
b[0]+256*b[1]+...+256^31*b[31] = b
c[0]+256*c[1]+...+256^31*c[31] = c
Output:
s[0]+256*s[1]+...+256^31*s[31] = (ab+c) mod l
where l = 2^252 + 27742317777372353535851937790883648493.
*/
void sc_muladd(unsigned char *s,const unsigned char *a,const unsigned char *b,const unsigned char *c)
{
crypto_int64 a0 = 2097151 & load_3(a);
crypto_int64 a1 = 2097151 & (load_4(a + 2) >> 5);
crypto_int64 a2 = 2097151 & (load_3(a + 5) >> 2);
crypto_int64 a3 = 2097151 & (load_4(a + 7) >> 7);
crypto_int64 a4 = 2097151 & (load_4(a + 10) >> 4);
crypto_int64 a5 = 2097151 & (load_3(a + 13) >> 1);
crypto_int64 a6 = 2097151 & (load_4(a + 15) >> 6);
crypto_int64 a7 = 2097151 & (load_3(a + 18) >> 3);
crypto_int64 a8 = 2097151 & load_3(a + 21);
crypto_int64 a9 = 2097151 & (load_4(a + 23) >> 5);
crypto_int64 a10 = 2097151 & (load_3(a + 26) >> 2);
crypto_int64 a11 = (load_4(a + 28) >> 7);
crypto_int64 b0 = 2097151 & load_3(b);
crypto_int64 b1 = 2097151 & (load_4(b + 2) >> 5);
crypto_int64 b2 = 2097151 & (load_3(b + 5) >> 2);
crypto_int64 b3 = 2097151 & (load_4(b + 7) >> 7);
crypto_int64 b4 = 2097151 & (load_4(b + 10) >> 4);
crypto_int64 b5 = 2097151 & (load_3(b + 13) >> 1);
crypto_int64 b6 = 2097151 & (load_4(b + 15) >> 6);
crypto_int64 b7 = 2097151 & (load_3(b + 18) >> 3);
crypto_int64 b8 = 2097151 & load_3(b + 21);
crypto_int64 b9 = 2097151 & (load_4(b + 23) >> 5);
crypto_int64 b10 = 2097151 & (load_3(b + 26) >> 2);
crypto_int64 b11 = (load_4(b + 28) >> 7);
crypto_int64 c0 = 2097151 & load_3(c);
crypto_int64 c1 = 2097151 & (load_4(c + 2) >> 5);
crypto_int64 c2 = 2097151 & (load_3(c + 5) >> 2);
crypto_int64 c3 = 2097151 & (load_4(c + 7) >> 7);
crypto_int64 c4 = 2097151 & (load_4(c + 10) >> 4);
crypto_int64 c5 = 2097151 & (load_3(c + 13) >> 1);
crypto_int64 c6 = 2097151 & (load_4(c + 15) >> 6);
crypto_int64 c7 = 2097151 & (load_3(c + 18) >> 3);
crypto_int64 c8 = 2097151 & load_3(c + 21);
crypto_int64 c9 = 2097151 & (load_4(c + 23) >> 5);
crypto_int64 c10 = 2097151 & (load_3(c + 26) >> 2);
crypto_int64 c11 = (load_4(c + 28) >> 7);
crypto_int64 s0;
crypto_int64 s1;
crypto_int64 s2;
crypto_int64 s3;
crypto_int64 s4;
crypto_int64 s5;
crypto_int64 s6;
crypto_int64 s7;
crypto_int64 s8;
crypto_int64 s9;
crypto_int64 s10;
crypto_int64 s11;
crypto_int64 s12;
crypto_int64 s13;
crypto_int64 s14;
crypto_int64 s15;
crypto_int64 s16;
crypto_int64 s17;
crypto_int64 s18;
crypto_int64 s19;
crypto_int64 s20;
crypto_int64 s21;
crypto_int64 s22;
crypto_int64 s23;
crypto_int64 carry0;
crypto_int64 carry1;
crypto_int64 carry2;
crypto_int64 carry3;
crypto_int64 carry4;
crypto_int64 carry5;
crypto_int64 carry6;
crypto_int64 carry7;
crypto_int64 carry8;
crypto_int64 carry9;
crypto_int64 carry10;
crypto_int64 carry11;
crypto_int64 carry12;
crypto_int64 carry13;
crypto_int64 carry14;
crypto_int64 carry15;
crypto_int64 carry16;
crypto_int64 carry17;
crypto_int64 carry18;
crypto_int64 carry19;
crypto_int64 carry20;
crypto_int64 carry21;
crypto_int64 carry22;
s0 = c0 + a0*b0;
s1 = c1 + a0*b1 + a1*b0;
s2 = c2 + a0*b2 + a1*b1 + a2*b0;
s3 = c3 + a0*b3 + a1*b2 + a2*b1 + a3*b0;
s4 = c4 + a0*b4 + a1*b3 + a2*b2 + a3*b1 + a4*b0;
s5 = c5 + a0*b5 + a1*b4 + a2*b3 + a3*b2 + a4*b1 + a5*b0;
s6 = c6 + a0*b6 + a1*b5 + a2*b4 + a3*b3 + a4*b2 + a5*b1 + a6*b0;
s7 = c7 + a0*b7 + a1*b6 + a2*b5 + a3*b4 + a4*b3 + a5*b2 + a6*b1 + a7*b0;
s8 = c8 + a0*b8 + a1*b7 + a2*b6 + a3*b5 + a4*b4 + a5*b3 + a6*b2 + a7*b1 + a8*b0;
s9 = c9 + a0*b9 + a1*b8 + a2*b7 + a3*b6 + a4*b5 + a5*b4 + a6*b3 + a7*b2 + a8*b1 + a9*b0;
s10 = c10 + a0*b10 + a1*b9 + a2*b8 + a3*b7 + a4*b6 + a5*b5 + a6*b4 + a7*b3 + a8*b2 + a9*b1 + a10*b0;
s11 = c11 + a0*b11 + a1*b10 + a2*b9 + a3*b8 + a4*b7 + a5*b6 + a6*b5 + a7*b4 + a8*b3 + a9*b2 + a10*b1 + a11*b0;
s12 = a1*b11 + a2*b10 + a3*b9 + a4*b8 + a5*b7 + a6*b6 + a7*b5 + a8*b4 + a9*b3 + a10*b2 + a11*b1;
s13 = a2*b11 + a3*b10 + a4*b9 + a5*b8 + a6*b7 + a7*b6 + a8*b5 + a9*b4 + a10*b3 + a11*b2;
s14 = a3*b11 + a4*b10 + a5*b9 + a6*b8 + a7*b7 + a8*b6 + a9*b5 + a10*b4 + a11*b3;
s15 = a4*b11 + a5*b10 + a6*b9 + a7*b8 + a8*b7 + a9*b6 + a10*b5 + a11*b4;
s16 = a5*b11 + a6*b10 + a7*b9 + a8*b8 + a9*b7 + a10*b6 + a11*b5;
s17 = a6*b11 + a7*b10 + a8*b9 + a9*b8 + a10*b7 + a11*b6;
s18 = a7*b11 + a8*b10 + a9*b9 + a10*b8 + a11*b7;
s19 = a8*b11 + a9*b10 + a10*b9 + a11*b8;
s20 = a9*b11 + a10*b10 + a11*b9;
s21 = a10*b11 + a11*b10;
s22 = a11*b11;
s23 = 0;
carry0 = (s0 + (1<<20)) >> 21; s1 += carry0; s0 -= carry0 << 21;
carry2 = (s2 + (1<<20)) >> 21; s3 += carry2; s2 -= carry2 << 21;
carry4 = (s4 + (1<<20)) >> 21; s5 += carry4; s4 -= carry4 << 21;
carry6 = (s6 + (1<<20)) >> 21; s7 += carry6; s6 -= carry6 << 21;
carry8 = (s8 + (1<<20)) >> 21; s9 += carry8; s8 -= carry8 << 21;
carry10 = (s10 + (1<<20)) >> 21; s11 += carry10; s10 -= carry10 << 21;
carry12 = (s12 + (1<<20)) >> 21; s13 += carry12; s12 -= carry12 << 21;
carry14 = (s14 + (1<<20)) >> 21; s15 += carry14; s14 -= carry14 << 21;
carry16 = (s16 + (1<<20)) >> 21; s17 += carry16; s16 -= carry16 << 21;
carry18 = (s18 + (1<<20)) >> 21; s19 += carry18; s18 -= carry18 << 21;
carry20 = (s20 + (1<<20)) >> 21; s21 += carry20; s20 -= carry20 << 21;
carry22 = (s22 + (1<<20)) >> 21; s23 += carry22; s22 -= carry22 << 21;
carry1 = (s1 + (1<<20)) >> 21; s2 += carry1; s1 -= carry1 << 21;
carry3 = (s3 + (1<<20)) >> 21; s4 += carry3; s3 -= carry3 << 21;
carry5 = (s5 + (1<<20)) >> 21; s6 += carry5; s5 -= carry5 << 21;
carry7 = (s7 + (1<<20)) >> 21; s8 += carry7; s7 -= carry7 << 21;
carry9 = (s9 + (1<<20)) >> 21; s10 += carry9; s9 -= carry9 << 21;
carry11 = (s11 + (1<<20)) >> 21; s12 += carry11; s11 -= carry11 << 21;
carry13 = (s13 + (1<<20)) >> 21; s14 += carry13; s13 -= carry13 << 21;
carry15 = (s15 + (1<<20)) >> 21; s16 += carry15; s15 -= carry15 << 21;
carry17 = (s17 + (1<<20)) >> 21; s18 += carry17; s17 -= carry17 << 21;
carry19 = (s19 + (1<<20)) >> 21; s20 += carry19; s19 -= carry19 << 21;
carry21 = (s21 + (1<<20)) >> 21; s22 += carry21; s21 -= carry21 << 21;
s11 += s23 * 666643;
s12 += s23 * 470296;
s13 += s23 * 654183;
s14 -= s23 * 997805;
s15 += s23 * 136657;
s16 -= s23 * 683901;
s23 = 0;
s10 += s22 * 666643;
s11 += s22 * 470296;
s12 += s22 * 654183;
s13 -= s22 * 997805;
s14 += s22 * 136657;
s15 -= s22 * 683901;
s22 = 0;
s9 += s21 * 666643;
s10 += s21 * 470296;
s11 += s21 * 654183;
s12 -= s21 * 997805;
s13 += s21 * 136657;
s14 -= s21 * 683901;
s21 = 0;
s8 += s20 * 666643;
s9 += s20 * 470296;
s10 += s20 * 654183;
s11 -= s20 * 997805;
s12 += s20 * 136657;
s13 -= s20 * 683901;
s20 = 0;
s7 += s19 * 666643;
s8 += s19 * 470296;
s9 += s19 * 654183;
s10 -= s19 * 997805;
s11 += s19 * 136657;
s12 -= s19 * 683901;
s19 = 0;
s6 += s18 * 666643;
s7 += s18 * 470296;
s8 += s18 * 654183;
s9 -= s18 * 997805;
s10 += s18 * 136657;
s11 -= s18 * 683901;
s18 = 0;
carry6 = (s6 + (1<<20)) >> 21; s7 += carry6; s6 -= carry6 << 21;
carry8 = (s8 + (1<<20)) >> 21; s9 += carry8; s8 -= carry8 << 21;
carry10 = (s10 + (1<<20)) >> 21; s11 += carry10; s10 -= carry10 << 21;
carry12 = (s12 + (1<<20)) >> 21; s13 += carry12; s12 -= carry12 << 21;
carry14 = (s14 + (1<<20)) >> 21; s15 += carry14; s14 -= carry14 << 21;
carry16 = (s16 + (1<<20)) >> 21; s17 += carry16; s16 -= carry16 << 21;
carry7 = (s7 + (1<<20)) >> 21; s8 += carry7; s7 -= carry7 << 21;
carry9 = (s9 + (1<<20)) >> 21; s10 += carry9; s9 -= carry9 << 21;
carry11 = (s11 + (1<<20)) >> 21; s12 += carry11; s11 -= carry11 << 21;
carry13 = (s13 + (1<<20)) >> 21; s14 += carry13; s13 -= carry13 << 21;
carry15 = (s15 + (1<<20)) >> 21; s16 += carry15; s15 -= carry15 << 21;
s5 += s17 * 666643;
s6 += s17 * 470296;
s7 += s17 * 654183;
s8 -= s17 * 997805;
s9 += s17 * 136657;
s10 -= s17 * 683901;
s17 = 0;
s4 += s16 * 666643;
s5 += s16 * 470296;
s6 += s16 * 654183;
s7 -= s16 * 997805;
s8 += s16 * 136657;
s9 -= s16 * 683901;
s16 = 0;
s3 += s15 * 666643;
s4 += s15 * 470296;
s5 += s15 * 654183;
s6 -= s15 * 997805;
s7 += s15 * 136657;
s8 -= s15 * 683901;
s15 = 0;
s2 += s14 * 666643;
s3 += s14 * 470296;
s4 += s14 * 654183;
s5 -= s14 * 997805;
s6 += s14 * 136657;
s7 -= s14 * 683901;
s14 = 0;
s1 += s13 * 666643;
s2 += s13 * 470296;
s3 += s13 * 654183;
s4 -= s13 * 997805;
s5 += s13 * 136657;
s6 -= s13 * 683901;
s13 = 0;
s0 += s12 * 666643;
s1 += s12 * 470296;
s2 += s12 * 654183;
s3 -= s12 * 997805;
s4 += s12 * 136657;
s5 -= s12 * 683901;
s12 = 0;
carry0 = (s0 + (1<<20)) >> 21; s1 += carry0; s0 -= carry0 << 21;
carry2 = (s2 + (1<<20)) >> 21; s3 += carry2; s2 -= carry2 << 21;
carry4 = (s4 + (1<<20)) >> 21; s5 += carry4; s4 -= carry4 << 21;
carry6 = (s6 + (1<<20)) >> 21; s7 += carry6; s6 -= carry6 << 21;
carry8 = (s8 + (1<<20)) >> 21; s9 += carry8; s8 -= carry8 << 21;
carry10 = (s10 + (1<<20)) >> 21; s11 += carry10; s10 -= carry10 << 21;
carry1 = (s1 + (1<<20)) >> 21; s2 += carry1; s1 -= carry1 << 21;
carry3 = (s3 + (1<<20)) >> 21; s4 += carry3; s3 -= carry3 << 21;
carry5 = (s5 + (1<<20)) >> 21; s6 += carry5; s5 -= carry5 << 21;
carry7 = (s7 + (1<<20)) >> 21; s8 += carry7; s7 -= carry7 << 21;
carry9 = (s9 + (1<<20)) >> 21; s10 += carry9; s9 -= carry9 << 21;
carry11 = (s11 + (1<<20)) >> 21; s12 += carry11; s11 -= carry11 << 21;
s0 += s12 * 666643;
s1 += s12 * 470296;
s2 += s12 * 654183;
s3 -= s12 * 997805;
s4 += s12 * 136657;
s5 -= s12 * 683901;
s12 = 0;
carry0 = s0 >> 21; s1 += carry0; s0 -= carry0 << 21;
carry1 = s1 >> 21; s2 += carry1; s1 -= carry1 << 21;
carry2 = s2 >> 21; s3 += carry2; s2 -= carry2 << 21;
carry3 = s3 >> 21; s4 += carry3; s3 -= carry3 << 21;
carry4 = s4 >> 21; s5 += carry4; s4 -= carry4 << 21;
carry5 = s5 >> 21; s6 += carry5; s5 -= carry5 << 21;
carry6 = s6 >> 21; s7 += carry6; s6 -= carry6 << 21;
carry7 = s7 >> 21; s8 += carry7; s7 -= carry7 << 21;
carry8 = s8 >> 21; s9 += carry8; s8 -= carry8 << 21;
carry9 = s9 >> 21; s10 += carry9; s9 -= carry9 << 21;
carry10 = s10 >> 21; s11 += carry10; s10 -= carry10 << 21;
carry11 = s11 >> 21; s12 += carry11; s11 -= carry11 << 21;
s0 += s12 * 666643;
s1 += s12 * 470296;
s2 += s12 * 654183;
s3 -= s12 * 997805;
s4 += s12 * 136657;
s5 -= s12 * 683901;
s12 = 0;
carry0 = s0 >> 21; s1 += carry0; s0 -= carry0 << 21;
carry1 = s1 >> 21; s2 += carry1; s1 -= carry1 << 21;
carry2 = s2 >> 21; s3 += carry2; s2 -= carry2 << 21;
carry3 = s3 >> 21; s4 += carry3; s3 -= carry3 << 21;
carry4 = s4 >> 21; s5 += carry4; s4 -= carry4 << 21;
carry5 = s5 >> 21; s6 += carry5; s5 -= carry5 << 21;
carry6 = s6 >> 21; s7 += carry6; s6 -= carry6 << 21;
carry7 = s7 >> 21; s8 += carry7; s7 -= carry7 << 21;
carry8 = s8 >> 21; s9 += carry8; s8 -= carry8 << 21;
carry9 = s9 >> 21; s10 += carry9; s9 -= carry9 << 21;
carry10 = s10 >> 21; s11 += carry10; s10 -= carry10 << 21;
s[0] = s0 >> 0;
s[1] = s0 >> 8;
s[2] = (s0 >> 16) | (s1 << 5);
s[3] = s1 >> 3;
s[4] = s1 >> 11;
s[5] = (s1 >> 19) | (s2 << 2);
s[6] = s2 >> 6;
s[7] = (s2 >> 14) | (s3 << 7);
s[8] = s3 >> 1;
s[9] = s3 >> 9;
s[10] = (s3 >> 17) | (s4 << 4);
s[11] = s4 >> 4;
s[12] = s4 >> 12;
s[13] = (s4 >> 20) | (s5 << 1);
s[14] = s5 >> 7;
s[15] = (s5 >> 15) | (s6 << 6);
s[16] = s6 >> 2;
s[17] = s6 >> 10;
s[18] = (s6 >> 18) | (s7 << 3);
s[19] = s7 >> 5;
s[20] = s7 >> 13;
s[21] = s8 >> 0;
s[22] = s8 >> 8;
s[23] = (s8 >> 16) | (s9 << 5);
s[24] = s9 >> 3;
s[25] = s9 >> 11;
s[26] = (s9 >> 19) | (s10 << 2);
s[27] = s10 >> 6;
s[28] = (s10 >> 14) | (s11 << 7);
s[29] = s11 >> 1;
s[30] = s11 >> 9;
s[31] = s11 >> 17;
}

275
libaxolotl/jni/ed25519/sc_reduce.c
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@ -1,275 +0,0 @@
#include "sc.h"
#include "crypto_int64.h"
#include "crypto_uint32.h"
#include "crypto_uint64.h"
static crypto_uint64 load_3(const unsigned char *in)
{
crypto_uint64 result;
result = (crypto_uint64) in[0];
result |= ((crypto_uint64) in[1]) << 8;
result |= ((crypto_uint64) in[2]) << 16;
return result;
}
static crypto_uint64 load_4(const unsigned char *in)
{
crypto_uint64 result;
result = (crypto_uint64) in[0];
result |= ((crypto_uint64) in[1]) << 8;
result |= ((crypto_uint64) in[2]) << 16;
result |= ((crypto_uint64) in[3]) << 24;
return result;
}
/*
Input:
s[0]+256*s[1]+...+256^63*s[63] = s
Output:
s[0]+256*s[1]+...+256^31*s[31] = s mod l
where l = 2^252 + 27742317777372353535851937790883648493.
Overwrites s in place.
*/
void sc_reduce(unsigned char *s)
{
crypto_int64 s0 = 2097151 & load_3(s);
crypto_int64 s1 = 2097151 & (load_4(s + 2) >> 5);
crypto_int64 s2 = 2097151 & (load_3(s + 5) >> 2);
crypto_int64 s3 = 2097151 & (load_4(s + 7) >> 7);
crypto_int64 s4 = 2097151 & (load_4(s + 10) >> 4);
crypto_int64 s5 = 2097151 & (load_3(s + 13) >> 1);
crypto_int64 s6 = 2097151 & (load_4(s + 15) >> 6);
crypto_int64 s7 = 2097151 & (load_3(s + 18) >> 3);
crypto_int64 s8 = 2097151 & load_3(s + 21);
crypto_int64 s9 = 2097151 & (load_4(s + 23) >> 5);
crypto_int64 s10 = 2097151 & (load_3(s + 26) >> 2);
crypto_int64 s11 = 2097151 & (load_4(s + 28) >> 7);
crypto_int64 s12 = 2097151 & (load_4(s + 31) >> 4);
crypto_int64 s13 = 2097151 & (load_3(s + 34) >> 1);
crypto_int64 s14 = 2097151 & (load_4(s + 36) >> 6);
crypto_int64 s15 = 2097151 & (load_3(s + 39) >> 3);
crypto_int64 s16 = 2097151 & load_3(s + 42);
crypto_int64 s17 = 2097151 & (load_4(s + 44) >> 5);
crypto_int64 s18 = 2097151 & (load_3(s + 47) >> 2);
crypto_int64 s19 = 2097151 & (load_4(s + 49) >> 7);
crypto_int64 s20 = 2097151 & (load_4(s + 52) >> 4);
crypto_int64 s21 = 2097151 & (load_3(s + 55) >> 1);
crypto_int64 s22 = 2097151 & (load_4(s + 57) >> 6);
crypto_int64 s23 = (load_4(s + 60) >> 3);
crypto_int64 carry0;
crypto_int64 carry1;
crypto_int64 carry2;
crypto_int64 carry3;
crypto_int64 carry4;
crypto_int64 carry5;
crypto_int64 carry6;
crypto_int64 carry7;
crypto_int64 carry8;
crypto_int64 carry9;
crypto_int64 carry10;
crypto_int64 carry11;
crypto_int64 carry12;
crypto_int64 carry13;
crypto_int64 carry14;
crypto_int64 carry15;
crypto_int64 carry16;
s11 += s23 * 666643;
s12 += s23 * 470296;
s13 += s23 * 654183;
s14 -= s23 * 997805;
s15 += s23 * 136657;
s16 -= s23 * 683901;
s23 = 0;
s10 += s22 * 666643;
s11 += s22 * 470296;
s12 += s22 * 654183;
s13 -= s22 * 997805;
s14 += s22 * 136657;
s15 -= s22 * 683901;
s22 = 0;
s9 += s21 * 666643;
s10 += s21 * 470296;
s11 += s21 * 654183;
s12 -= s21 * 997805;
s13 += s21 * 136657;
s14 -= s21 * 683901;
s21 = 0;
s8 += s20 * 666643;
s9 += s20 * 470296;
s10 += s20 * 654183;
s11 -= s20 * 997805;
s12 += s20 * 136657;
s13 -= s20 * 683901;
s20 = 0;
s7 += s19 * 666643;
s8 += s19 * 470296;
s9 += s19 * 654183;
s10 -= s19 * 997805;
s11 += s19 * 136657;
s12 -= s19 * 683901;
s19 = 0;
s6 += s18 * 666643;
s7 += s18 * 470296;
s8 += s18 * 654183;
s9 -= s18 * 997805;
s10 += s18 * 136657;
s11 -= s18 * 683901;
s18 = 0;
carry6 = (s6 + (1<<20)) >> 21; s7 += carry6; s6 -= carry6 << 21;
carry8 = (s8 + (1<<20)) >> 21; s9 += carry8; s8 -= carry8 << 21;
carry10 = (s10 + (1<<20)) >> 21; s11 += carry10; s10 -= carry10 << 21;
carry12 = (s12 + (1<<20)) >> 21; s13 += carry12; s12 -= carry12 << 21;
carry14 = (s14 + (1<<20)) >> 21; s15 += carry14; s14 -= carry14 << 21;
carry16 = (s16 + (1<<20)) >> 21; s17 += carry16; s16 -= carry16 << 21;
carry7 = (s7 + (1<<20)) >> 21; s8 += carry7; s7 -= carry7 << 21;
carry9 = (s9 + (1<<20)) >> 21; s10 += carry9; s9 -= carry9 << 21;
carry11 = (s11 + (1<<20)) >> 21; s12 += carry11; s11 -= carry11 << 21;
carry13 = (s13 + (1<<20)) >> 21; s14 += carry13; s13 -= carry13 << 21;
carry15 = (s15 + (1<<20)) >> 21; s16 += carry15; s15 -= carry15 << 21;
s5 += s17 * 666643;
s6 += s17 * 470296;
s7 += s17 * 654183;
s8 -= s17 * 997805;
s9 += s17 * 136657;
s10 -= s17 * 683901;
s17 = 0;
s4 += s16 * 666643;
s5 += s16 * 470296;
s6 += s16 * 654183;
s7 -= s16 * 997805;
s8 += s16 * 136657;
s9 -= s16 * 683901;
s16 = 0;
s3 += s15 * 666643;
s4 += s15 * 470296;
s5 += s15 * 654183;
s6 -= s15 * 997805;
s7 += s15 * 136657;
s8 -= s15 * 683901;
s15 = 0;
s2 += s14 * 666643;
s3 += s14 * 470296;
s4 += s14 * 654183;
s5 -= s14 * 997805;
s6 += s14 * 136657;
s7 -= s14 * 683901;
s14 = 0;
s1 += s13 * 666643;
s2 += s13 * 470296;
s3 += s13 * 654183;
s4 -= s13 * 997805;
s5 += s13 * 136657;
s6 -= s13 * 683901;
s13 = 0;
s0 += s12 * 666643;
s1 += s12 * 470296;
s2 += s12 * 654183;
s3 -= s12 * 997805;
s4 += s12 * 136657;
s5 -= s12 * 683901;
s12 = 0;
carry0 = (s0 + (1<<20)) >> 21; s1 += carry0; s0 -= carry0 << 21;
carry2 = (s2 + (1<<20)) >> 21; s3 += carry2; s2 -= carry2 << 21;
carry4 = (s4 + (1<<20)) >> 21; s5 += carry4; s4 -= carry4 << 21;
carry6 = (s6 + (1<<20)) >> 21; s7 += carry6; s6 -= carry6 << 21;
carry8 = (s8 + (1<<20)) >> 21; s9 += carry8; s8 -= carry8 << 21;
carry10 = (s10 + (1<<20)) >> 21; s11 += carry10; s10 -= carry10 << 21;
carry1 = (s1 + (1<<20)) >> 21; s2 += carry1; s1 -= carry1 << 21;
carry3 = (s3 + (1<<20)) >> 21; s4 += carry3; s3 -= carry3 << 21;
carry5 = (s5 + (1<<20)) >> 21; s6 += carry5; s5 -= carry5 << 21;
carry7 = (s7 + (1<<20)) >> 21; s8 += carry7; s7 -= carry7 << 21;
carry9 = (s9 + (1<<20)) >> 21; s10 += carry9; s9 -= carry9 << 21;
carry11 = (s11 + (1<<20)) >> 21; s12 += carry11; s11 -= carry11 << 21;
s0 += s12 * 666643;
s1 += s12 * 470296;
s2 += s12 * 654183;
s3 -= s12 * 997805;
s4 += s12 * 136657;
s5 -= s12 * 683901;
s12 = 0;
carry0 = s0 >> 21; s1 += carry0; s0 -= carry0 << 21;
carry1 = s1 >> 21; s2 += carry1; s1 -= carry1 << 21;
carry2 = s2 >> 21; s3 += carry2; s2 -= carry2 << 21;
carry3 = s3 >> 21; s4 += carry3; s3 -= carry3 << 21;
carry4 = s4 >> 21; s5 += carry4; s4 -= carry4 << 21;
carry5 = s5 >> 21; s6 += carry5; s5 -= carry5 << 21;
carry6 = s6 >> 21; s7 += carry6; s6 -= carry6 << 21;
carry7 = s7 >> 21; s8 += carry7; s7 -= carry7 << 21;
carry8 = s8 >> 21; s9 += carry8; s8 -= carry8 << 21;
carry9 = s9 >> 21; s10 += carry9; s9 -= carry9 << 21;
carry10 = s10 >> 21; s11 += carry10; s10 -= carry10 << 21;
carry11 = s11 >> 21; s12 += carry11; s11 -= carry11 << 21;
s0 += s12 * 666643;
s1 += s12 * 470296;
s2 += s12 * 654183;
s3 -= s12 * 997805;
s4 += s12 * 136657;
s5 -= s12 * 683901;
s12 = 0;
carry0 = s0 >> 21; s1 += carry0; s0 -= carry0 << 21;
carry1 = s1 >> 21; s2 += carry1; s1 -= carry1 << 21;
carry2 = s2 >> 21; s3 += carry2; s2 -= carry2 << 21;
carry3 = s3 >> 21; s4 += carry3; s3 -= carry3 << 21;
carry4 = s4 >> 21; s5 += carry4; s4 -= carry4 << 21;
carry5 = s5 >> 21; s6 += carry5; s5 -= carry5 << 21;
carry6 = s6 >> 21; s7 += carry6; s6 -= carry6 << 21;
carry7 = s7 >> 21; s8 += carry7; s7 -= carry7 << 21;
carry8 = s8 >> 21; s9 += carry8; s8 -= carry8 << 21;
carry9 = s9 >> 21; s10 += carry9; s9 -= carry9 << 21;
carry10 = s10 >> 21; s11 += carry10; s10 -= carry10 << 21;
s[0] = s0 >> 0;
s[1] = s0 >> 8;
s[2] = (s0 >> 16) | (s1 << 5);
s[3] = s1 >> 3;
s[4] = s1 >> 11;
s[5] = (s1 >> 19) | (s2 << 2);
s[6] = s2 >> 6;
s[7] = (s2 >> 14) | (s3 << 7);
s[8] = s3 >> 1;
s[9] = s3 >> 9;
s[10] = (s3 >> 17) | (s4 << 4);
s[11] = s4 >> 4;
s[12] = s4 >> 12;
s[13] = (s4 >> 20) | (s5 << 1);
s[14] = s5 >> 7;
s[15] = (s5 >> 15) | (s6 << 6);
s[16] = s6 >> 2;
s[17] = s6 >> 10;
s[18] = (s6 >> 18) | (s7 << 3);
s[19] = s7 >> 5;
s[20] = s7 >> 13;
s[21] = s8 >> 0;
s[22] = s8 >> 8;
s[23] = (s8 >> 16) | (s9 << 5);
s[24] = s9 >> 3;
s[25] = s9 >> 11;
s[26] = (s9 >> 19) | (s10 << 2);
s[27] = s10 >> 6;
s[28] = (s10 >> 14) | (s11 << 7);
s[29] = s11 >> 1;
s[30] = s11 >> 9;
s[31] = s11 >> 17;
}

41
libaxolotl/jni/ed25519/sign.c
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@ -1,41 +0,0 @@
#include <string.h>
#include "crypto_sign.h"
#include "crypto_hash_sha512.h"
#include "ge.h"
#include "sc.h"
int crypto_sign(
unsigned char *sm,unsigned long long *smlen,
const unsigned char *m,unsigned long long mlen,
const unsigned char *sk
)
{
unsigned char pk[32];
unsigned char az[64];
unsigned char nonce[64];
unsigned char hram[64];
ge_p3 R;
memmove(pk,sk + 32,32);
crypto_hash_sha512(az,sk,32);
az[0] &= 248;
az[31] &= 63;
az[31] |= 64;
*smlen = mlen + 64;
memmove(sm + 64,m,mlen);
memmove(sm + 32,az + 32,32);
crypto_hash_sha512(nonce,sm + 32,mlen + 32);
memmove(sm + 32,pk,32);
sc_reduce(nonce);
ge_scalarmult_base(&R,nonce);
ge_p3_tobytes(sm,&R);
crypto_hash_sha512(hram,sm,mlen + 64);
sc_reduce(hram);
sc_muladd(sm + 32,hram,az,nonce);
return 0;
}

1
libaxolotl/jni/ed25519/sqrtm1.h
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-32595792,-7943725,9377950,3500415,12389472,-272473,-25146209,-2005654,326686,11406482

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libaxolotl/libs/armeabi-v7a/libcurve25519.so
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libaxolotl/libs/armeabi/libcurve25519.so
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BIN
libaxolotl/libs/mips/libcurve25519.so
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libaxolotl/libs/x86/libcurve25519.so
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112
libaxolotl/protobuf/LocalStorageProtocol.proto
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@ -1,112 +0,0 @@
package textsecure;
option java_package = "org.whispersystems.libaxolotl.state";
option java_outer_classname = "StorageProtos";
message SessionStructure {
message Chain {
optional bytes senderRatchetKey = 1;
optional bytes senderRatchetKeyPrivate = 2;
message ChainKey {
optional uint32 index = 1;
optional bytes key = 2;
}
optional ChainKey chainKey = 3;
message MessageKey {
optional uint32 index = 1;
optional bytes cipherKey = 2;
optional bytes macKey = 3;
optional bytes iv = 4;
}
repeated MessageKey messageKeys = 4;
}
message PendingKeyExchange {
optional uint32 sequence = 1;
optional bytes localBaseKey = 2;
optional bytes localBaseKeyPrivate = 3;
optional bytes localRatchetKey = 4;
optional bytes localRatchetKeyPrivate = 5;
optional bytes localIdentityKey = 7;
optional bytes localIdentityKeyPrivate = 8;
}
message PendingPreKey {
optional uint32 preKeyId = 1;
optional int32 signedPreKeyId = 3;
optional bytes baseKey = 2;
}
optional uint32 sessionVersion = 1;
optional bytes localIdentityPublic = 2;
optional bytes remoteIdentityPublic = 3;
optional bytes rootKey = 4;
optional uint32 previousCounter = 5;
optional Chain senderChain = 6;
repeated Chain receiverChains = 7;
optional PendingKeyExchange pendingKeyExchange = 8;
optional PendingPreKey pendingPreKey = 9;
optional uint32 remoteRegistrationId = 10;
optional uint32 localRegistrationId = 11;
optional bool needsRefresh = 12;
optional bytes aliceBaseKey = 13;
}
message RecordStructure {
optional SessionStructure currentSession = 1;
repeated SessionStructure previousSessions = 2;
}
message PreKeyRecordStructure {
optional uint32 id = 1;
optional bytes publicKey = 2;
optional bytes privateKey = 3;
}
message SignedPreKeyRecordStructure {
optional uint32 id = 1;
optional bytes publicKey = 2;
optional bytes privateKey = 3;
optional bytes signature = 4;
optional fixed64 timestamp = 5;
}
message IdentityKeyPairStructure {
optional bytes publicKey = 1;
optional bytes privateKey = 2;
}
message SenderKeyStateStructure {
message SenderChainKey {
optional uint32 iteration = 1;
optional bytes seed = 2;
}
message SenderMessageKey {
optional uint32 iteration = 1;
optional bytes seed = 2;
}
message SenderSigningKey {
optional bytes public = 1;
optional bytes private = 2;
}
optional uint32 senderKeyId = 1;
optional SenderChainKey senderChainKey = 2;
optional SenderSigningKey senderSigningKey = 3;
repeated SenderMessageKey senderMessageKeys = 4;
}
message SenderKeyRecordStructure {
repeated SenderKeyStateStructure senderKeyStates = 1;
}

3
libaxolotl/protobuf/Makefile
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@ -1,3 +0,0 @@
all:
protoc --java_out=../src/main/java/ WhisperTextProtocol.proto LocalStorageProtocol.proto

41
libaxolotl/protobuf/WhisperTextProtocol.proto
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@ -1,41 +0,0 @@
package textsecure;
option java_package = "org.whispersystems.libaxolotl.protocol";
option java_outer_classname = "WhisperProtos";
message WhisperMessage {
optional bytes ratchetKey = 1;
optional uint32 counter = 2;
optional uint32 previousCounter = 3;
optional bytes ciphertext = 4;
}
message PreKeyWhisperMessage {
optional uint32 registrationId = 5;
optional uint32 preKeyId = 1;
optional uint32 signedPreKeyId = 6;
optional bytes baseKey = 2;
optional bytes identityKey = 3;
optional bytes message = 4; // WhisperMessage
}
message KeyExchangeMessage {
optional uint32 id = 1;
optional bytes baseKey = 2;
optional bytes ratchetKey = 3;
optional bytes identityKey = 4;
optional bytes baseKeySignature = 5;
}
message SenderKeyMessage {
optional uint32 id = 1;
optional uint32 iteration = 2;
optional bytes ciphertext = 3;
}
message SenderKeyDistributionMessage {
optional uint32 id = 1;
optional uint32 iteration = 2;
optional bytes chainKey = 3;
optional bytes signingKey = 4;
}

115
libaxolotl/src/androidTest/java/org/whispersystems/test/InMemoryAxolotlStore.java
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@ -1,115 +0,0 @@
package org.whispersystems.test;
import org.whispersystems.libaxolotl.IdentityKey;
import org.whispersystems.libaxolotl.IdentityKeyPair;
import org.whispersystems.libaxolotl.InvalidKeyIdException;
import org.whispersystems.libaxolotl.state.AxolotlStore;
import org.whispersystems.libaxolotl.state.PreKeyRecord;
import org.whispersystems.libaxolotl.state.SessionRecord;
import org.whispersystems.libaxolotl.state.SignedPreKeyRecord;
import java.util.List;
public class InMemoryAxolotlStore implements AxolotlStore {
private final InMemoryIdentityKeyStore identityKeyStore = new InMemoryIdentityKeyStore();
private final InMemoryPreKeyStore preKeyStore = new InMemoryPreKeyStore();
private final InMemorySessionStore sessionStore = new InMemorySessionStore();
private final InMemorySignedPreKeyStore signedPreKeyStore = new InMemorySignedPreKeyStore();
@Override
public IdentityKeyPair getIdentityKeyPair() {
return identityKeyStore.getIdentityKeyPair();
}
@Override
public int getLocalRegistrationId() {
return identityKeyStore.getLocalRegistrationId();
}
@Override
public void saveIdentity(long recipientId, IdentityKey identityKey) {
identityKeyStore.saveIdentity(recipientId, identityKey);
}
@Override
public boolean isTrustedIdentity(long recipientId, IdentityKey identityKey) {
return identityKeyStore.isTrustedIdentity(recipientId, identityKey);
}
@Override
public PreKeyRecord loadPreKey(int preKeyId) throws InvalidKeyIdException {
return preKeyStore.loadPreKey(preKeyId);
}
@Override
public void storePreKey(int preKeyId, PreKeyRecord record) {
preKeyStore.storePreKey(preKeyId, record);
}
@Override
public boolean containsPreKey(int preKeyId) {
return preKeyStore.containsPreKey(preKeyId);
}
@Override
public void removePreKey(int preKeyId) {
preKeyStore.removePreKey(preKeyId);
}
@Override
public SessionRecord loadSession(long recipientId, int deviceId) {
return sessionStore.loadSession(recipientId, deviceId);
}
@Override
public List<Integer> getSubDeviceSessions(long recipientId) {
return sessionStore.getSubDeviceSessions(recipientId);
}
@Override
public void storeSession(long recipientId, int deviceId, SessionRecord record) {
sessionStore.storeSession(recipientId, deviceId, record);
}
@Override
public boolean containsSession(long recipientId, int deviceId) {
return sessionStore.containsSession(recipientId, deviceId);
}
@Override
public void deleteSession(long recipientId, int deviceId) {
sessionStore.deleteSession(recipientId, deviceId);
}
@Override
public void deleteAllSessions(long recipientId) {
sessionStore.deleteAllSessions(recipientId);
}
@Override
public SignedPreKeyRecord loadSignedPreKey(int signedPreKeyId) throws InvalidKeyIdException {
return signedPreKeyStore.loadSignedPreKey(signedPreKeyId);
}
@Override
public List<SignedPreKeyRecord> loadSignedPreKeys() {
return signedPreKeyStore.loadSignedPreKeys();
}
@Override
public void storeSignedPreKey(int signedPreKeyId, SignedPreKeyRecord record) {
signedPreKeyStore.storeSignedPreKey(signedPreKeyId, record);
}
@Override
public boolean containsSignedPreKey(int signedPreKeyId) {
return signedPreKeyStore.containsSignedPreKey(signedPreKeyId);
}
@Override
public void removeSignedPreKey(int signedPreKeyId) {
signedPreKeyStore.removeSignedPreKey(signedPreKeyId);
}
}

53
libaxolotl/src/androidTest/java/org/whispersystems/test/InMemoryIdentityKeyStore.java
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@ -1,53 +0,0 @@
package org.whispersystems.test;
import org.whispersystems.libaxolotl.IdentityKey;
import org.whispersystems.libaxolotl.IdentityKeyPair;
import org.whispersystems.libaxolotl.ecc.Curve;
import org.whispersystems.libaxolotl.ecc.ECKeyPair;
import org.whispersystems.libaxolotl.state.IdentityKeyStore;
import java.security.NoSuchAlgorithmException;
import java.security.SecureRandom;
import java.util.HashMap;
import java.util.Map;
public class InMemoryIdentityKeyStore implements IdentityKeyStore {
private final Map<Long, IdentityKey> trustedKeys = new HashMap<>();
private final IdentityKeyPair identityKeyPair;
private final int localRegistrationId;
public InMemoryIdentityKeyStore() {
try {
ECKeyPair identityKeyPairKeys = Curve.generateKeyPair();
this.identityKeyPair = new IdentityKeyPair(new IdentityKey(identityKeyPairKeys.getPublicKey()),
identityKeyPairKeys.getPrivateKey());
this.localRegistrationId = SecureRandom.getInstance("SHA1PRNG").nextInt(16380) + 1;
} catch (NoSuchAlgorithmException e) {
throw new AssertionError(e);
}
}
@Override
public IdentityKeyPair getIdentityKeyPair() {
return identityKeyPair;
}
@Override
public int getLocalRegistrationId() {
return localRegistrationId;
}
@Override
public void saveIdentity(long recipientId, IdentityKey identityKey) {
trustedKeys.put(recipientId, identityKey);
}
@Override
public boolean isTrustedIdentity(long recipientId, IdentityKey identityKey) {
IdentityKey trusted = trustedKeys.get(recipientId);
return (trusted == null || trusted.equals(identityKey));
}
}

42
libaxolotl/src/androidTest/java/org/whispersystems/test/InMemoryPreKeyStore.java
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@ -1,42 +0,0 @@
package org.whispersystems.test;
import org.whispersystems.libaxolotl.InvalidKeyIdException;
import org.whispersystems.libaxolotl.state.PreKeyRecord;
import org.whispersystems.libaxolotl.state.PreKeyStore;
import java.io.IOException;
import java.util.HashMap;
import java.util.Map;
public class InMemoryPreKeyStore implements PreKeyStore {
private final Map<Integer, byte[]> store = new HashMap<>();
@Override
public PreKeyRecord loadPreKey(int preKeyId) throws InvalidKeyIdException {
try {
if (!store.containsKey(preKeyId)) {
throw new InvalidKeyIdException("No such prekeyrecord!");
}
return new PreKeyRecord(store.get(preKeyId));
} catch (IOException e) {
throw new AssertionError(e);
}
}
@Override
public void storePreKey(int preKeyId, PreKeyRecord record) {
store.put(preKeyId, record.serialize());
}
@Override
public boolean containsPreKey(int preKeyId) {
return store.containsKey(preKeyId);
}
@Override
public void removePreKey(int preKeyId) {
store.remove(preKeyId);
}
}

68
libaxolotl/src/androidTest/java/org/whispersystems/test/InMemorySessionStore.java
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@ -1,68 +0,0 @@
package org.whispersystems.test;
import org.whispersystems.libaxolotl.state.SessionRecord;
import org.whispersystems.libaxolotl.state.SessionStore;
import org.whispersystems.libaxolotl.util.Pair;
import java.io.IOException;
import java.util.HashMap;
import java.util.LinkedList;
import java.util.List;
import java.util.Map;
public class InMemorySessionStore implements SessionStore {
private Map<Pair<Long, Integer>, byte[]> sessions = new HashMap<>();
public InMemorySessionStore() {}
@Override
public synchronized SessionRecord loadSession(long recipientId, int deviceId) {
try {
if (containsSession(recipientId, deviceId)) {
return new SessionRecord(sessions.get(new Pair<>(recipientId, deviceId)));
} else {
return new SessionRecord();
}
} catch (IOException e) {
throw new AssertionError(e);
}
}
@Override
public synchronized List<Integer> getSubDeviceSessions(long recipientId) {
List<Integer> deviceIds = new LinkedList<>();
for (Pair<Long, Integer> key : sessions.keySet()) {
if (key.first() == recipientId) {
deviceIds.add(key.second());
}
}
return deviceIds;
}
@Override
public synchronized void storeSession(long recipientId, int deviceId, SessionRecord record) {
sessions.put(new Pair<>(recipientId, deviceId), record.serialize());
}
@Override
public synchronized boolean containsSession(long recipientId, int deviceId) {
return sessions.containsKey(new Pair<>(recipientId, deviceId));
}
@Override
public synchronized void deleteSession(long recipientId, int deviceId) {
sessions.remove(new Pair<>(recipientId, deviceId));
}
@Override
public synchronized void deleteAllSessions(long recipientId) {
for (Pair<Long, Integer> key : sessions.keySet()) {
if (key.first() == recipientId) {
sessions.remove(key);
}
}
}
}

59
libaxolotl/src/androidTest/java/org/whispersystems/test/InMemorySignedPreKeyStore.java
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@ -1,59 +0,0 @@
package org.whispersystems.test;
import org.whispersystems.libaxolotl.InvalidKeyIdException;
import org.whispersystems.libaxolotl.state.SignedPreKeyRecord;
import org.whispersystems.libaxolotl.state.SignedPreKeyStore;
import java.io.IOException;
import java.util.HashMap;
import java.util.LinkedList;
import java.util.List;
import java.util.Map;
public class InMemorySignedPreKeyStore implements SignedPreKeyStore {
private final Map<Integer, byte[]> store = new HashMap<>();
@Override
public SignedPreKeyRecord loadSignedPreKey(int signedPreKeyId) throws InvalidKeyIdException {
try {
if (!store.containsKey(signedPreKeyId)) {
throw new InvalidKeyIdException("No such signedprekeyrecord! " + signedPreKeyId);
}
return new SignedPreKeyRecord(store.get(signedPreKeyId));
} catch (IOException e) {
throw new AssertionError(e);
}
}
@Override
public List<SignedPreKeyRecord> loadSignedPreKeys() {
try {
List<SignedPreKeyRecord> results = new LinkedList<>();
for (byte[] serialized : store.values()) {
results.add(new SignedPreKeyRecord(serialized));
}
return results;
} catch (IOException e) {
throw new AssertionError(e);
}
}
@Override
public void storeSignedPreKey(int signedPreKeyId, SignedPreKeyRecord record) {
store.put(signedPreKeyId, record.serialize());
}
@Override
public boolean containsSignedPreKey(int signedPreKeyId) {
return store.containsKey(signedPreKeyId);
}
@Override
public void removeSignedPreKey(int signedPreKeyId) {
store.remove(signedPreKeyId);
}
}

601
libaxolotl/src/androidTest/java/org/whispersystems/test/SessionBuilderTest.java
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@ -1,601 +0,0 @@
package org.whispersystems.test;
import android.test.AndroidTestCase;
import org.whispersystems.libaxolotl.DuplicateMessageException;
import org.whispersystems.libaxolotl.InvalidKeyException;
import org.whispersystems.libaxolotl.InvalidKeyIdException;
import org.whispersystems.libaxolotl.InvalidMessageException;
import org.whispersystems.libaxolotl.InvalidVersionException;
import org.whispersystems.libaxolotl.LegacyMessageException;
import org.whispersystems.libaxolotl.NoSessionException;
import org.whispersystems.libaxolotl.SessionBuilder;
import org.whispersystems.libaxolotl.SessionCipher;
import org.whispersystems.libaxolotl.StaleKeyExchangeException;
import org.whispersystems.libaxolotl.UntrustedIdentityException;
import org.whispersystems.libaxolotl.ecc.Curve;
import org.whispersystems.libaxolotl.ecc.ECKeyPair;
import org.whispersystems.libaxolotl.protocol.CiphertextMessage;
import org.whispersystems.libaxolotl.protocol.KeyExchangeMessage;
import org.whispersystems.libaxolotl.protocol.PreKeyWhisperMessage;
import org.whispersystems.libaxolotl.protocol.WhisperMessage;
import org.whispersystems.libaxolotl.state.AxolotlStore;
import org.whispersystems.libaxolotl.state.IdentityKeyStore;
import org.whispersystems.libaxolotl.state.PreKeyBundle;
import org.whispersystems.libaxolotl.state.PreKeyRecord;
import org.whispersystems.libaxolotl.state.SignedPreKeyRecord;
import org.whispersystems.libaxolotl.util.Pair;
import java.util.HashSet;
import java.util.Set;
public class SessionBuilderTest extends AndroidTestCase {
private static final long ALICE_RECIPIENT_ID = 5L;
private static final long BOB_RECIPIENT_ID = 2L;
public void testBasicPreKeyV2()
throws InvalidKeyException, InvalidVersionException, InvalidMessageException, InvalidKeyIdException, DuplicateMessageException, LegacyMessageException, UntrustedIdentityException, NoSessionException {
AxolotlStore aliceStore = new InMemoryAxolotlStore();
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPIENT_ID, 1);
AxolotlStore bobStore = new InMemoryAxolotlStore();
ECKeyPair bobPreKeyPair = Curve.generateKeyPair();
PreKeyBundle bobPreKey = new PreKeyBundle(bobStore.getLocalRegistrationId(), 1,
31337, bobPreKeyPair.getPublicKey(),
0, null, null,
bobStore.getIdentityKeyPair().getPublicKey());
aliceSessionBuilder.process(bobPreKey);
assertTrue(aliceStore.containsSession(BOB_RECIPIENT_ID, 1));
assertTrue(aliceStore.loadSession(BOB_RECIPIENT_ID, 1).getSessionState().getSessionVersion() == 2);
String originalMessage = "L'homme est condamné à être libre";
SessionCipher aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPIENT_ID, 1);
CiphertextMessage outgoingMessage = aliceSessionCipher.encrypt(originalMessage.getBytes());
assertTrue(outgoingMessage.getType() == CiphertextMessage.PREKEY_TYPE);
PreKeyWhisperMessage incomingMessage = new PreKeyWhisperMessage(outgoingMessage.serialize());
bobStore.storePreKey(31337, new PreKeyRecord(bobPreKey.getPreKeyId(), bobPreKeyPair));
SessionCipher bobSessionCipher = new SessionCipher(bobStore, ALICE_RECIPIENT_ID, 1);
byte[] plaintext = bobSessionCipher.decrypt(incomingMessage);
assertTrue(bobStore.containsSession(ALICE_RECIPIENT_ID, 1));
assertTrue(bobStore.loadSession(ALICE_RECIPIENT_ID, 1).getSessionState().getSessionVersion() == 2);
assertTrue(originalMessage.equals(new String(plaintext)));
CiphertextMessage bobOutgoingMessage = bobSessionCipher.encrypt(originalMessage.getBytes());
assertTrue(bobOutgoingMessage.getType() == CiphertextMessage.WHISPER_TYPE);
byte[] alicePlaintext = aliceSessionCipher.decrypt((WhisperMessage)bobOutgoingMessage);
assertTrue(new String(alicePlaintext).equals(originalMessage));
runInteraction(aliceStore, bobStore);
aliceStore = new InMemoryAxolotlStore();
aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPIENT_ID, 1);
aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPIENT_ID, 1);
bobPreKeyPair = Curve.generateKeyPair();
bobPreKey = new PreKeyBundle(bobStore.getLocalRegistrationId(),
1, 31338, bobPreKeyPair.getPublicKey(),
0, null, null, bobStore.getIdentityKeyPair().getPublicKey());
bobStore.storePreKey(31338, new PreKeyRecord(bobPreKey.getPreKeyId(), bobPreKeyPair));
aliceSessionBuilder.process(bobPreKey);
outgoingMessage = aliceSessionCipher.encrypt(originalMessage.getBytes());
try {
bobSessionCipher.decrypt(new PreKeyWhisperMessage(outgoingMessage.serialize()));
throw new AssertionError("shouldn't be trusted!");
} catch (UntrustedIdentityException uie) {
bobStore.saveIdentity(ALICE_RECIPIENT_ID, new PreKeyWhisperMessage(outgoingMessage.serialize()).getIdentityKey());
}
plaintext = bobSessionCipher.decrypt(new PreKeyWhisperMessage(outgoingMessage.serialize()));
assertTrue(new String(plaintext).equals(originalMessage));
bobPreKey = new PreKeyBundle(bobStore.getLocalRegistrationId(), 1,
31337, Curve.generateKeyPair().getPublicKey(),
0, null, null,
aliceStore.getIdentityKeyPair().getPublicKey());
try {
aliceSessionBuilder.process(bobPreKey);
throw new AssertionError("shoulnd't be trusted!");
} catch (UntrustedIdentityException uie) {
// good
}
}
public void testBasicPreKeyV3()
throws InvalidKeyException, InvalidVersionException, InvalidMessageException, InvalidKeyIdException, DuplicateMessageException, LegacyMessageException, UntrustedIdentityException, NoSessionException {
AxolotlStore aliceStore = new InMemoryAxolotlStore();
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPIENT_ID, 1);
final AxolotlStore bobStore = new InMemoryAxolotlStore();
ECKeyPair bobPreKeyPair = Curve.generateKeyPair();
ECKeyPair bobSignedPreKeyPair = Curve.generateKeyPair();
byte[] bobSignedPreKeySignature = Curve.calculateSignature(bobStore.getIdentityKeyPair().getPrivateKey(),
bobSignedPreKeyPair.getPublicKey().serialize());
PreKeyBundle bobPreKey = new PreKeyBundle(bobStore.getLocalRegistrationId(), 1,
31337, bobPreKeyPair.getPublicKey(),
22, bobSignedPreKeyPair.getPublicKey(),
bobSignedPreKeySignature,
bobStore.getIdentityKeyPair().getPublicKey());
aliceSessionBuilder.process(bobPreKey);
assertTrue(aliceStore.containsSession(BOB_RECIPIENT_ID, 1));
assertTrue(aliceStore.loadSession(BOB_RECIPIENT_ID, 1).getSessionState().getSessionVersion() == 3);
final String originalMessage = "L'homme est condamné à être libre";
SessionCipher aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPIENT_ID, 1);
CiphertextMessage outgoingMessage = aliceSessionCipher.encrypt(originalMessage.getBytes());
assertTrue(outgoingMessage.getType() == CiphertextMessage.PREKEY_TYPE);
PreKeyWhisperMessage incomingMessage = new PreKeyWhisperMessage(outgoingMessage.serialize());
bobStore.storePreKey(31337, new PreKeyRecord(bobPreKey.getPreKeyId(), bobPreKeyPair));
bobStore.storeSignedPreKey(22, new SignedPreKeyRecord(22, System.currentTimeMillis(), bobSignedPreKeyPair, bobSignedPreKeySignature));
SessionCipher bobSessionCipher = new SessionCipher(bobStore, ALICE_RECIPIENT_ID, 1);
byte[] plaintext = bobSessionCipher.decrypt(incomingMessage, new SessionCipher.DecryptionCallback() {
@Override
public void handlePlaintext(byte[] plaintext) {
assertTrue(originalMessage.equals(new String(plaintext)));
assertFalse(bobStore.containsSession(ALICE_RECIPIENT_ID, 1));
}
});
assertTrue(bobStore.containsSession(ALICE_RECIPIENT_ID, 1));
assertTrue(bobStore.loadSession(ALICE_RECIPIENT_ID, 1).getSessionState().getSessionVersion() == 3);
assertTrue(bobStore.loadSession(ALICE_RECIPIENT_ID, 1).getSessionState().getAliceBaseKey() != null);
assertTrue(originalMessage.equals(new String(plaintext)));
CiphertextMessage bobOutgoingMessage = bobSessionCipher.encrypt(originalMessage.getBytes());
assertTrue(bobOutgoingMessage.getType() == CiphertextMessage.WHISPER_TYPE);
byte[] alicePlaintext = aliceSessionCipher.decrypt(new WhisperMessage(bobOutgoingMessage.serialize()));
assertTrue(new String(alicePlaintext).equals(originalMessage));
runInteraction(aliceStore, bobStore);
aliceStore = new InMemoryAxolotlStore();
aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPIENT_ID, 1);
aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPIENT_ID, 1);
bobPreKeyPair = Curve.generateKeyPair();
bobSignedPreKeyPair = Curve.generateKeyPair();
bobSignedPreKeySignature = Curve.calculateSignature(bobStore.getIdentityKeyPair().getPrivateKey(), bobSignedPreKeyPair.getPublicKey().serialize());
bobPreKey = new PreKeyBundle(bobStore.getLocalRegistrationId(),
1, 31338, bobPreKeyPair.getPublicKey(),
23, bobSignedPreKeyPair.getPublicKey(), bobSignedPreKeySignature,
bobStore.getIdentityKeyPair().getPublicKey());
bobStore.storePreKey(31338, new PreKeyRecord(bobPreKey.getPreKeyId(), bobPreKeyPair));
bobStore.storeSignedPreKey(23, new SignedPreKeyRecord(23, System.currentTimeMillis(), bobSignedPreKeyPair, bobSignedPreKeySignature));
aliceSessionBuilder.process(bobPreKey);
outgoingMessage = aliceSessionCipher.encrypt(originalMessage.getBytes());
try {
plaintext = bobSessionCipher.decrypt(new PreKeyWhisperMessage(outgoingMessage.serialize()));
throw new AssertionError("shouldn't be trusted!");
} catch (UntrustedIdentityException uie) {
bobStore.saveIdentity(ALICE_RECIPIENT_ID, new PreKeyWhisperMessage(outgoingMessage.serialize()).getIdentityKey());
}
plaintext = bobSessionCipher.decrypt(new PreKeyWhisperMessage(outgoingMessage.serialize()));
assertTrue(new String(plaintext).equals(originalMessage));
bobPreKey = new PreKeyBundle(bobStore.getLocalRegistrationId(), 1,
31337, Curve.generateKeyPair().getPublicKey(),
23, bobSignedPreKeyPair.getPublicKey(), bobSignedPreKeySignature,
aliceStore.getIdentityKeyPair().getPublicKey());
try {
aliceSessionBuilder.process(bobPreKey);
throw new AssertionError("shoulnd't be trusted!");
} catch (UntrustedIdentityException uie) {
// good
}
}
public void testBadSignedPreKeySignature() throws InvalidKeyException, UntrustedIdentityException {
AxolotlStore aliceStore = new InMemoryAxolotlStore();
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPIENT_ID, 1);
IdentityKeyStore bobIdentityKeyStore = new InMemoryIdentityKeyStore();
ECKeyPair bobPreKeyPair = Curve.generateKeyPair();
ECKeyPair bobSignedPreKeyPair = Curve.generateKeyPair();
byte[] bobSignedPreKeySignature = Curve.calculateSignature(bobIdentityKeyStore.getIdentityKeyPair().getPrivateKey(),
bobSignedPreKeyPair.getPublicKey().serialize());
for (int i=0;i<bobSignedPreKeySignature.length * 8;i++) {
byte[] modifiedSignature = new byte[bobSignedPreKeySignature.length];
System.arraycopy(bobSignedPreKeySignature, 0, modifiedSignature, 0, modifiedSignature.length);
modifiedSignature[i/8] ^= (0x01 << (i % 8));
PreKeyBundle bobPreKey = new PreKeyBundle(bobIdentityKeyStore.getLocalRegistrationId(), 1,
31337, bobPreKeyPair.getPublicKey(),
22, bobSignedPreKeyPair.getPublicKey(), modifiedSignature,
bobIdentityKeyStore.getIdentityKeyPair().getPublicKey());
try {
aliceSessionBuilder.process(bobPreKey);
throw new AssertionError("Accepted modified device key signature!");
} catch (InvalidKeyException ike) {
// good
}
}
PreKeyBundle bobPreKey = new PreKeyBundle(bobIdentityKeyStore.getLocalRegistrationId(), 1,
31337, bobPreKeyPair.getPublicKey(),
22, bobSignedPreKeyPair.getPublicKey(), bobSignedPreKeySignature,
bobIdentityKeyStore.getIdentityKeyPair().getPublicKey());
aliceSessionBuilder.process(bobPreKey);
}
public void testRepeatBundleMessageV2() throws InvalidKeyException, UntrustedIdentityException, InvalidVersionException, InvalidMessageException, InvalidKeyIdException, DuplicateMessageException, LegacyMessageException, NoSessionException {
AxolotlStore aliceStore = new InMemoryAxolotlStore();
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPIENT_ID, 1);
AxolotlStore bobStore = new InMemoryAxolotlStore();
ECKeyPair bobPreKeyPair = Curve.generateKeyPair();
ECKeyPair bobSignedPreKeyPair = Curve.generateKeyPair();
byte[] bobSignedPreKeySignature = Curve.calculateSignature(bobStore.getIdentityKeyPair().getPrivateKey(),
bobSignedPreKeyPair.getPublicKey().serialize());
PreKeyBundle bobPreKey = new PreKeyBundle(bobStore.getLocalRegistrationId(), 1,
31337, bobPreKeyPair.getPublicKey(),
0, null, null,
bobStore.getIdentityKeyPair().getPublicKey());
bobStore.storePreKey(31337, new PreKeyRecord(bobPreKey.getPreKeyId(), bobPreKeyPair));
bobStore.storeSignedPreKey(22, new SignedPreKeyRecord(22, System.currentTimeMillis(), bobSignedPreKeyPair, bobSignedPreKeySignature));
aliceSessionBuilder.process(bobPreKey);
String originalMessage = "L'homme est condamné à être libre";
SessionCipher aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPIENT_ID, 1);
CiphertextMessage outgoingMessageOne = aliceSessionCipher.encrypt(originalMessage.getBytes());
CiphertextMessage outgoingMessageTwo = aliceSessionCipher.encrypt(originalMessage.getBytes());
assertTrue(outgoingMessageOne.getType() == CiphertextMessage.PREKEY_TYPE);
PreKeyWhisperMessage incomingMessage = new PreKeyWhisperMessage(outgoingMessageOne.serialize());
SessionCipher bobSessionCipher = new SessionCipher(bobStore, ALICE_RECIPIENT_ID, 1);
byte[] plaintext = bobSessionCipher.decrypt(incomingMessage);
assertTrue(originalMessage.equals(new String(plaintext)));
CiphertextMessage bobOutgoingMessage = bobSessionCipher.encrypt(originalMessage.getBytes());
byte[] alicePlaintext = aliceSessionCipher.decrypt(new WhisperMessage(bobOutgoingMessage.serialize()));
assertTrue(originalMessage.equals(new String(alicePlaintext)));
// The test
PreKeyWhisperMessage incomingMessageTwo = new PreKeyWhisperMessage(outgoingMessageTwo.serialize());
plaintext = bobSessionCipher.decrypt(incomingMessageTwo);
assertTrue(originalMessage.equals(new String(plaintext)));
bobOutgoingMessage = bobSessionCipher.encrypt(originalMessage.getBytes());
alicePlaintext = aliceSessionCipher.decrypt(new WhisperMessage(bobOutgoingMessage.serialize()));
assertTrue(originalMessage.equals(new String(alicePlaintext)));
}
public void testRepeatBundleMessageV3() throws InvalidKeyException, UntrustedIdentityException, InvalidVersionException, InvalidMessageException, InvalidKeyIdException, DuplicateMessageException, LegacyMessageException, NoSessionException {
AxolotlStore aliceStore = new InMemoryAxolotlStore();
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPIENT_ID, 1);
AxolotlStore bobStore = new InMemoryAxolotlStore();
ECKeyPair bobPreKeyPair = Curve.generateKeyPair();
ECKeyPair bobSignedPreKeyPair = Curve.generateKeyPair();
byte[] bobSignedPreKeySignature = Curve.calculateSignature(bobStore.getIdentityKeyPair().getPrivateKey(),
bobSignedPreKeyPair.getPublicKey().serialize());
PreKeyBundle bobPreKey = new PreKeyBundle(bobStore.getLocalRegistrationId(), 1,
31337, bobPreKeyPair.getPublicKey(),
22, bobSignedPreKeyPair.getPublicKey(), bobSignedPreKeySignature,
bobStore.getIdentityKeyPair().getPublicKey());
bobStore.storePreKey(31337, new PreKeyRecord(bobPreKey.getPreKeyId(), bobPreKeyPair));
bobStore.storeSignedPreKey(22, new SignedPreKeyRecord(22, System.currentTimeMillis(), bobSignedPreKeyPair, bobSignedPreKeySignature));
aliceSessionBuilder.process(bobPreKey);
String originalMessage = "L'homme est condamné à être libre";
SessionCipher aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPIENT_ID, 1);
CiphertextMessage outgoingMessageOne = aliceSessionCipher.encrypt(originalMessage.getBytes());
CiphertextMessage outgoingMessageTwo = aliceSessionCipher.encrypt(originalMessage.getBytes());
assertTrue(outgoingMessageOne.getType() == CiphertextMessage.PREKEY_TYPE);
assertTrue(outgoingMessageTwo.getType() == CiphertextMessage.PREKEY_TYPE);
PreKeyWhisperMessage incomingMessage = new PreKeyWhisperMessage(outgoingMessageOne.serialize());
SessionCipher bobSessionCipher = new SessionCipher(bobStore, ALICE_RECIPIENT_ID, 1);
byte[] plaintext = bobSessionCipher.decrypt(incomingMessage);
assertTrue(originalMessage.equals(new String(plaintext)));
CiphertextMessage bobOutgoingMessage = bobSessionCipher.encrypt(originalMessage.getBytes());
byte[] alicePlaintext = aliceSessionCipher.decrypt(new WhisperMessage(bobOutgoingMessage.serialize()));
assertTrue(originalMessage.equals(new String(alicePlaintext)));
// The test
PreKeyWhisperMessage incomingMessageTwo = new PreKeyWhisperMessage(outgoingMessageTwo.serialize());
plaintext = bobSessionCipher.decrypt(new PreKeyWhisperMessage(incomingMessageTwo.serialize()));
assertTrue(originalMessage.equals(new String(plaintext)));
bobOutgoingMessage = bobSessionCipher.encrypt(originalMessage.getBytes());
alicePlaintext = aliceSessionCipher.decrypt(new WhisperMessage(bobOutgoingMessage.serialize()));
assertTrue(originalMessage.equals(new String(alicePlaintext)));
}
public void testBadMessageBundle() throws InvalidKeyException, UntrustedIdentityException, InvalidVersionException, InvalidMessageException, DuplicateMessageException, LegacyMessageException, InvalidKeyIdException {
AxolotlStore aliceStore = new InMemoryAxolotlStore();
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPIENT_ID, 1);
AxolotlStore bobStore = new InMemoryAxolotlStore();
ECKeyPair bobPreKeyPair = Curve.generateKeyPair();
ECKeyPair bobSignedPreKeyPair = Curve.generateKeyPair();
byte[] bobSignedPreKeySignature = Curve.calculateSignature(bobStore.getIdentityKeyPair().getPrivateKey(),
bobSignedPreKeyPair.getPublicKey().serialize());
PreKeyBundle bobPreKey = new PreKeyBundle(bobStore.getLocalRegistrationId(), 1,
31337, bobPreKeyPair.getPublicKey(),
22, bobSignedPreKeyPair.getPublicKey(), bobSignedPreKeySignature,
bobStore.getIdentityKeyPair().getPublicKey());
bobStore.storePreKey(31337, new PreKeyRecord(bobPreKey.getPreKeyId(), bobPreKeyPair));
bobStore.storeSignedPreKey(22, new SignedPreKeyRecord(22, System.currentTimeMillis(), bobSignedPreKeyPair, bobSignedPreKeySignature));
aliceSessionBuilder.process(bobPreKey);
String originalMessage = "L'homme est condamné à être libre";
SessionCipher aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPIENT_ID, 1);
CiphertextMessage outgoingMessageOne = aliceSessionCipher.encrypt(originalMessage.getBytes());
assertTrue(outgoingMessageOne.getType() == CiphertextMessage.PREKEY_TYPE);
byte[] goodMessage = outgoingMessageOne.serialize();
byte[] badMessage = new byte[goodMessage.length];
System.arraycopy(goodMessage, 0, badMessage, 0, badMessage.length);
badMessage[badMessage.length-10] ^= 0x01;
PreKeyWhisperMessage incomingMessage = new PreKeyWhisperMessage(badMessage);
SessionCipher bobSessionCipher = new SessionCipher(bobStore, ALICE_RECIPIENT_ID, 1);
byte[] plaintext = new byte[0];
try {
plaintext = bobSessionCipher.decrypt(incomingMessage);
throw new AssertionError("Decrypt should have failed!");
} catch (InvalidMessageException e) {
// good.
}
assertTrue(bobStore.containsPreKey(31337));
plaintext = bobSessionCipher.decrypt(new PreKeyWhisperMessage(goodMessage));
assertTrue(originalMessage.equals(new String(plaintext)));
assertTrue(!bobStore.containsPreKey(31337));
}
public void testBasicKeyExchange() throws InvalidKeyException, LegacyMessageException, InvalidMessageException, DuplicateMessageException, UntrustedIdentityException, StaleKeyExchangeException, InvalidVersionException, NoSessionException {
AxolotlStore aliceStore = new InMemoryAxolotlStore();
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPIENT_ID, 1);
AxolotlStore bobStore = new InMemoryAxolotlStore();
SessionBuilder bobSessionBuilder = new SessionBuilder(bobStore, ALICE_RECIPIENT_ID, 1);
KeyExchangeMessage aliceKeyExchangeMessage = aliceSessionBuilder.process();
assertTrue(aliceKeyExchangeMessage != null);
byte[] aliceKeyExchangeMessageBytes = aliceKeyExchangeMessage.serialize();
KeyExchangeMessage bobKeyExchangeMessage = bobSessionBuilder.process(new KeyExchangeMessage(aliceKeyExchangeMessageBytes));
assertTrue(bobKeyExchangeMessage != null);
byte[] bobKeyExchangeMessageBytes = bobKeyExchangeMessage.serialize();
KeyExchangeMessage response = aliceSessionBuilder.process(new KeyExchangeMessage(bobKeyExchangeMessageBytes));
assertTrue(response == null);
assertTrue(aliceStore.containsSession(BOB_RECIPIENT_ID, 1));
assertTrue(bobStore.containsSession(ALICE_RECIPIENT_ID, 1));
runInteraction(aliceStore, bobStore);
aliceStore = new InMemoryAxolotlStore();
aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPIENT_ID, 1);
aliceKeyExchangeMessage = aliceSessionBuilder.process();
try {
bobKeyExchangeMessage = bobSessionBuilder.process(aliceKeyExchangeMessage);
throw new AssertionError("This identity shouldn't be trusted!");
} catch (UntrustedIdentityException uie) {
bobStore.saveIdentity(ALICE_RECIPIENT_ID, aliceKeyExchangeMessage.getIdentityKey());
bobKeyExchangeMessage = bobSessionBuilder.process(aliceKeyExchangeMessage);
}
assertTrue(aliceSessionBuilder.process(bobKeyExchangeMessage) == null);
runInteraction(aliceStore, bobStore);
}
public void testSimultaneousKeyExchange()
throws InvalidKeyException, DuplicateMessageException, LegacyMessageException, InvalidMessageException, UntrustedIdentityException, StaleKeyExchangeException, NoSessionException {
AxolotlStore aliceStore = new InMemoryAxolotlStore();
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPIENT_ID, 1);
AxolotlStore bobStore = new InMemoryAxolotlStore();
SessionBuilder bobSessionBuilder = new SessionBuilder(bobStore, ALICE_RECIPIENT_ID, 1);
KeyExchangeMessage aliceKeyExchange = aliceSessionBuilder.process();
KeyExchangeMessage bobKeyExchange = bobSessionBuilder.process();
assertTrue(aliceKeyExchange != null);
assertTrue(bobKeyExchange != null);
KeyExchangeMessage aliceResponse = aliceSessionBuilder.process(bobKeyExchange);
KeyExchangeMessage bobResponse = bobSessionBuilder.process(aliceKeyExchange);
assertTrue(aliceResponse != null);
assertTrue(bobResponse != null);
KeyExchangeMessage aliceAck = aliceSessionBuilder.process(bobResponse);
KeyExchangeMessage bobAck = bobSessionBuilder.process(aliceResponse);
assertTrue(aliceAck == null);
assertTrue(bobAck == null);
runInteraction(aliceStore, bobStore);
}
public void testOptionalOneTimePreKey() throws Exception {
AxolotlStore aliceStore = new InMemoryAxolotlStore();
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPIENT_ID, 1);
AxolotlStore bobStore = new InMemoryAxolotlStore();
ECKeyPair bobPreKeyPair = Curve.generateKeyPair();
ECKeyPair bobSignedPreKeyPair = Curve.generateKeyPair();
byte[] bobSignedPreKeySignature = Curve.calculateSignature(bobStore.getIdentityKeyPair().getPrivateKey(),
bobSignedPreKeyPair.getPublicKey().serialize());
PreKeyBundle bobPreKey = new PreKeyBundle(bobStore.getLocalRegistrationId(), 1,
0, null,
22, bobSignedPreKeyPair.getPublicKey(),
bobSignedPreKeySignature,
bobStore.getIdentityKeyPair().getPublicKey());
aliceSessionBuilder.process(bobPreKey);
assertTrue(aliceStore.containsSession(BOB_RECIPIENT_ID, 1));
assertTrue(aliceStore.loadSession(BOB_RECIPIENT_ID, 1).getSessionState().getSessionVersion() == 3);
String originalMessage = "L'homme est condamné à être libre";
SessionCipher aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPIENT_ID, 1);
CiphertextMessage outgoingMessage = aliceSessionCipher.encrypt(originalMessage.getBytes());
assertTrue(outgoingMessage.getType() == CiphertextMessage.PREKEY_TYPE);
PreKeyWhisperMessage incomingMessage = new PreKeyWhisperMessage(outgoingMessage.serialize());
assertTrue(!incomingMessage.getPreKeyId().isPresent());
bobStore.storePreKey(31337, new PreKeyRecord(bobPreKey.getPreKeyId(), bobPreKeyPair));
bobStore.storeSignedPreKey(22, new SignedPreKeyRecord(22, System.currentTimeMillis(), bobSignedPreKeyPair, bobSignedPreKeySignature));
SessionCipher bobSessionCipher = new SessionCipher(bobStore, ALICE_RECIPIENT_ID, 1);
byte[] plaintext = bobSessionCipher.decrypt(incomingMessage);
assertTrue(bobStore.containsSession(ALICE_RECIPIENT_ID, 1));
assertTrue(bobStore.loadSession(ALICE_RECIPIENT_ID, 1).getSessionState().getSessionVersion() == 3);
assertTrue(bobStore.loadSession(ALICE_RECIPIENT_ID, 1).getSessionState().getAliceBaseKey() != null);
assertTrue(originalMessage.equals(new String(plaintext)));
}
private void runInteraction(AxolotlStore aliceStore, AxolotlStore bobStore)
throws DuplicateMessageException, LegacyMessageException, InvalidMessageException, NoSessionException
{
SessionCipher aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPIENT_ID, 1);
SessionCipher bobSessionCipher = new SessionCipher(bobStore, ALICE_RECIPIENT_ID, 1);
String originalMessage = "smert ze smert";
CiphertextMessage aliceMessage = aliceSessionCipher.encrypt(originalMessage.getBytes());
assertTrue(aliceMessage.getType() == CiphertextMessage.WHISPER_TYPE);
byte[] plaintext = bobSessionCipher.decrypt(new WhisperMessage(aliceMessage.serialize()));
assertTrue(new String(plaintext).equals(originalMessage));
CiphertextMessage bobMessage = bobSessionCipher.encrypt(originalMessage.getBytes());
assertTrue(bobMessage.getType() == CiphertextMessage.WHISPER_TYPE);
plaintext = aliceSessionCipher.decrypt(new WhisperMessage(bobMessage.serialize()));
assertTrue(new String(plaintext).equals(originalMessage));
for (int i=0;i<10;i++) {
String loopingMessage = ("What do we mean by saying that existence precedes essence? " +
"We mean that man first of all exists, encounters himself, " +
"surges up in the world--and defines himself aftward. " + i);
CiphertextMessage aliceLoopingMessage = aliceSessionCipher.encrypt(loopingMessage.getBytes());
byte[] loopingPlaintext = bobSessionCipher.decrypt(new WhisperMessage(aliceLoopingMessage.serialize()));
assertTrue(new String(loopingPlaintext).equals(loopingMessage));
}
for (int i=0;i<10;i++) {
String loopingMessage = ("What do we mean by saying that existence precedes essence? " +
"We mean that man first of all exists, encounters himself, " +
"surges up in the world--and defines himself aftward. " + i);
CiphertextMessage bobLoopingMessage = bobSessionCipher.encrypt(loopingMessage.getBytes());
byte[] loopingPlaintext = aliceSessionCipher.decrypt(new WhisperMessage(bobLoopingMessage.serialize()));
assertTrue(new String(loopingPlaintext).equals(loopingMessage));
}
Set<Pair<String, CiphertextMessage>> aliceOutOfOrderMessages = new HashSet<>();
for (int i=0;i<10;i++) {
String loopingMessage = ("What do we mean by saying that existence precedes essence? " +
"We mean that man first of all exists, encounters himself, " +
"surges up in the world--and defines himself aftward. " + i);
CiphertextMessage aliceLoopingMessage = aliceSessionCipher.encrypt(loopingMessage.getBytes());
aliceOutOfOrderMessages.add(new Pair<>(loopingMessage, aliceLoopingMessage));
}
for (int i=0;i<10;i++) {
String loopingMessage = ("What do we mean by saying that existence precedes essence? " +
"We mean that man first of all exists, encounters himself, " +
"surges up in the world--and defines himself aftward. " + i);
CiphertextMessage aliceLoopingMessage = aliceSessionCipher.encrypt(loopingMessage.getBytes());
byte[] loopingPlaintext = bobSessionCipher.decrypt(new WhisperMessage(aliceLoopingMessage.serialize()));
assertTrue(new String(loopingPlaintext).equals(loopingMessage));
}
for (int i=0;i<10;i++) {
String loopingMessage = ("You can only desire based on what you know: " + i);
CiphertextMessage bobLoopingMessage = bobSessionCipher.encrypt(loopingMessage.getBytes());
byte[] loopingPlaintext = aliceSessionCipher.decrypt(new WhisperMessage(bobLoopingMessage.serialize()));
assertTrue(new String(loopingPlaintext).equals(loopingMessage));
}
for (Pair<String, CiphertextMessage> aliceOutOfOrderMessage : aliceOutOfOrderMessages) {
byte[] outOfOrderPlaintext = bobSessionCipher.decrypt(new WhisperMessage(aliceOutOfOrderMessage.second().serialize()));
assertTrue(new String(outOfOrderPlaintext).equals(aliceOutOfOrderMessage.first()));
}
}
}

206
libaxolotl/src/androidTest/java/org/whispersystems/test/SessionCipherTest.java
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@ -1,206 +0,0 @@
package org.whispersystems.test;
import android.test.AndroidTestCase;
import org.whispersystems.libaxolotl.DuplicateMessageException;
import org.whispersystems.libaxolotl.IdentityKey;
import org.whispersystems.libaxolotl.IdentityKeyPair;
import org.whispersystems.libaxolotl.InvalidKeyException;
import org.whispersystems.libaxolotl.InvalidMessageException;
import org.whispersystems.libaxolotl.LegacyMessageException;
import org.whispersystems.libaxolotl.NoSessionException;
import org.whispersystems.libaxolotl.SessionCipher;
import org.whispersystems.libaxolotl.ecc.Curve;
import org.whispersystems.libaxolotl.ecc.ECKeyPair;
import org.whispersystems.libaxolotl.ecc.ECPublicKey;
import org.whispersystems.libaxolotl.protocol.CiphertextMessage;
import org.whispersystems.libaxolotl.protocol.WhisperMessage;
import org.whispersystems.libaxolotl.ratchet.AliceAxolotlParameters;
import org.whispersystems.libaxolotl.ratchet.BobAxolotlParameters;
import org.whispersystems.libaxolotl.ratchet.RatchetingSession;
import org.whispersystems.libaxolotl.state.AxolotlStore;
import org.whispersystems.libaxolotl.state.SessionRecord;
import org.whispersystems.libaxolotl.state.SessionState;
import org.whispersystems.libaxolotl.util.guava.Optional;
import java.security.NoSuchAlgorithmException;
import java.util.ArrayList;
import java.util.Arrays;
import java.util.Collections;
import java.util.List;
import java.util.Random;
public class SessionCipherTest extends AndroidTestCase {
public void testBasicSessionV2()
throws InvalidKeyException, DuplicateMessageException,
LegacyMessageException, InvalidMessageException, NoSuchAlgorithmException, NoSessionException
{
SessionRecord aliceSessionRecord = new SessionRecord();
SessionRecord bobSessionRecord = new SessionRecord();
initializeSessionsV2(aliceSessionRecord.getSessionState(), bobSessionRecord.getSessionState());
runInteraction(aliceSessionRecord, bobSessionRecord);
}
public void testBasicSessionV3()
throws InvalidKeyException, DuplicateMessageException,
LegacyMessageException, InvalidMessageException, NoSuchAlgorithmException, NoSessionException
{
SessionRecord aliceSessionRecord = new SessionRecord();
SessionRecord bobSessionRecord = new SessionRecord();
initializeSessionsV3(aliceSessionRecord.getSessionState(), bobSessionRecord.getSessionState());
runInteraction(aliceSessionRecord, bobSessionRecord);
}
private void runInteraction(SessionRecord aliceSessionRecord, SessionRecord bobSessionRecord)
throws DuplicateMessageException, LegacyMessageException, InvalidMessageException, NoSuchAlgorithmException, NoSessionException {
AxolotlStore aliceStore = new InMemoryAxolotlStore();
AxolotlStore bobStore = new InMemoryAxolotlStore();
aliceStore.storeSession(2L, 1, aliceSessionRecord);
bobStore.storeSession(3L, 1, bobSessionRecord);
SessionCipher aliceCipher = new SessionCipher(aliceStore, 2L, 1);
SessionCipher bobCipher = new SessionCipher(bobStore, 3L, 1);
byte[] alicePlaintext = "This is a plaintext message.".getBytes();
CiphertextMessage message = aliceCipher.encrypt(alicePlaintext);
byte[] bobPlaintext = bobCipher.decrypt(new WhisperMessage(message.serialize()));
assertTrue(Arrays.equals(alicePlaintext, bobPlaintext));
byte[] bobReply = "This is a message from Bob.".getBytes();
CiphertextMessage reply = bobCipher.encrypt(bobReply);
byte[] receivedReply = aliceCipher.decrypt(new WhisperMessage(reply.serialize()));
assertTrue(Arrays.equals(bobReply, receivedReply));
List<CiphertextMessage> aliceCiphertextMessages = new ArrayList<>();
List<byte[]> alicePlaintextMessages = new ArrayList<>();
for (int i=0;i<50;i++) {
alicePlaintextMessages.add(("смерть за смерть " + i).getBytes());
aliceCiphertextMessages.add(aliceCipher.encrypt(("смерть за смерть " + i).getBytes()));
}
long seed = System.currentTimeMillis();
Collections.shuffle(aliceCiphertextMessages, new Random(seed));
Collections.shuffle(alicePlaintextMessages, new Random(seed));
for (int i=0;i<aliceCiphertextMessages.size() / 2;i++) {
byte[] receivedPlaintext = bobCipher.decrypt(new WhisperMessage(aliceCiphertextMessages.get(i).serialize()));
assertTrue(Arrays.equals(receivedPlaintext, alicePlaintextMessages.get(i)));
}
List<CiphertextMessage> bobCiphertextMessages = new ArrayList<>();
List<byte[]> bobPlaintextMessages = new ArrayList<>();
for (int i=0;i<20;i++) {
bobPlaintextMessages.add(("смерть за смерть " + i).getBytes());
bobCiphertextMessages.add(bobCipher.encrypt(("смерть за смерть " + i).getBytes()));
}
seed = System.currentTimeMillis();
Collections.shuffle(bobCiphertextMessages, new Random(seed));
Collections.shuffle(bobPlaintextMessages, new Random(seed));
for (int i=0;i<bobCiphertextMessages.size() / 2;i++) {
byte[] receivedPlaintext = aliceCipher.decrypt(new WhisperMessage(bobCiphertextMessages.get(i).serialize()));
assertTrue(Arrays.equals(receivedPlaintext, bobPlaintextMessages.get(i)));
}
for (int i=aliceCiphertextMessages.size()/2;i<aliceCiphertextMessages.size();i++) {
byte[] receivedPlaintext = bobCipher.decrypt(new WhisperMessage(aliceCiphertextMessages.get(i).serialize()));
assertTrue(Arrays.equals(receivedPlaintext, alicePlaintextMessages.get(i)));
}
for (int i=bobCiphertextMessages.size() / 2;i<bobCiphertextMessages.size();i++) {
byte[] receivedPlaintext = aliceCipher.decrypt(new WhisperMessage(bobCiphertextMessages.get(i).serialize()));
assertTrue(Arrays.equals(receivedPlaintext, bobPlaintextMessages.get(i)));
}
}
private void initializeSessionsV2(SessionState aliceSessionState, SessionState bobSessionState)
throws InvalidKeyException
{
ECKeyPair aliceIdentityKeyPair = Curve.generateKeyPair();
IdentityKeyPair aliceIdentityKey = new IdentityKeyPair(new IdentityKey(aliceIdentityKeyPair.getPublicKey()),
aliceIdentityKeyPair.getPrivateKey());
ECKeyPair aliceBaseKey = Curve.generateKeyPair();
ECKeyPair aliceEphemeralKey = Curve.generateKeyPair();
ECKeyPair bobIdentityKeyPair = Curve.generateKeyPair();
IdentityKeyPair bobIdentityKey = new IdentityKeyPair(new IdentityKey(bobIdentityKeyPair.getPublicKey()),
bobIdentityKeyPair.getPrivateKey());
ECKeyPair bobBaseKey = Curve.generateKeyPair();
ECKeyPair bobEphemeralKey = bobBaseKey;
AliceAxolotlParameters aliceParameters = AliceAxolotlParameters.newBuilder()
.setOurIdentityKey(aliceIdentityKey)
.setOurBaseKey(aliceBaseKey)
.setTheirIdentityKey(bobIdentityKey.getPublicKey())
.setTheirSignedPreKey(bobEphemeralKey.getPublicKey())
.setTheirRatchetKey(bobEphemeralKey.getPublicKey())
.setTheirOneTimePreKey(Optional.<ECPublicKey>absent())
.create();
BobAxolotlParameters bobParameters = BobAxolotlParameters.newBuilder()
.setOurIdentityKey(bobIdentityKey)
.setOurOneTimePreKey(Optional.<ECKeyPair>absent())
.setOurRatchetKey(bobEphemeralKey)
.setOurSignedPreKey(bobBaseKey)
.setTheirBaseKey(aliceBaseKey.getPublicKey())
.setTheirIdentityKey(aliceIdentityKey.getPublicKey())
.create();
RatchetingSession.initializeSession(aliceSessionState, 2, aliceParameters);
RatchetingSession.initializeSession(bobSessionState, 2, bobParameters);
}
private void initializeSessionsV3(SessionState aliceSessionState, SessionState bobSessionState)
throws InvalidKeyException
{
ECKeyPair aliceIdentityKeyPair = Curve.generateKeyPair();
IdentityKeyPair aliceIdentityKey = new IdentityKeyPair(new IdentityKey(aliceIdentityKeyPair.getPublicKey()),
aliceIdentityKeyPair.getPrivateKey());
ECKeyPair aliceBaseKey = Curve.generateKeyPair();
ECKeyPair aliceEphemeralKey = Curve.generateKeyPair();
ECKeyPair alicePreKey = aliceBaseKey;
ECKeyPair bobIdentityKeyPair = Curve.generateKeyPair();
IdentityKeyPair bobIdentityKey = new IdentityKeyPair(new IdentityKey(bobIdentityKeyPair.getPublicKey()),
bobIdentityKeyPair.getPrivateKey());
ECKeyPair bobBaseKey = Curve.generateKeyPair();
ECKeyPair bobEphemeralKey = bobBaseKey;
ECKeyPair bobPreKey = Curve.generateKeyPair();
AliceAxolotlParameters aliceParameters = AliceAxolotlParameters.newBuilder()
.setOurBaseKey(aliceBaseKey)
.setOurIdentityKey(aliceIdentityKey)
.setTheirOneTimePreKey(Optional.<ECPublicKey>absent())
.setTheirRatchetKey(bobEphemeralKey.getPublicKey())
.setTheirSignedPreKey(bobBaseKey.getPublicKey())
.setTheirIdentityKey(bobIdentityKey.getPublicKey())
.create();
BobAxolotlParameters bobParameters = BobAxolotlParameters.newBuilder()
.setOurRatchetKey(bobEphemeralKey)
.setOurSignedPreKey(bobBaseKey)
.setOurOneTimePreKey(Optional.<ECKeyPair>absent())
.setOurIdentityKey(bobIdentityKey)
.setTheirIdentityKey(aliceIdentityKey.getPublicKey())
.setTheirBaseKey(aliceBaseKey.getPublicKey())
.create();
RatchetingSession.initializeSession(aliceSessionState, 3, aliceParameters);
RatchetingSession.initializeSession(bobSessionState, 3, bobParameters);
}
}

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libaxolotl/src/androidTest/java/org/whispersystems/test/SimultaneousInitiateTests.java
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@ -1,501 +0,0 @@
package org.whispersystems.test;
import android.test.AndroidTestCase;
import android.util.Log;
import org.whispersystems.libaxolotl.DuplicateMessageException;
import org.whispersystems.libaxolotl.InvalidKeyException;
import org.whispersystems.libaxolotl.InvalidKeyIdException;
import org.whispersystems.libaxolotl.InvalidMessageException;
import org.whispersystems.libaxolotl.InvalidVersionException;
import org.whispersystems.libaxolotl.LegacyMessageException;
import org.whispersystems.libaxolotl.NoSessionException;
import org.whispersystems.libaxolotl.SessionBuilder;
import org.whispersystems.libaxolotl.SessionCipher;
import org.whispersystems.libaxolotl.UntrustedIdentityException;
import org.whispersystems.libaxolotl.ecc.Curve;
import org.whispersystems.libaxolotl.ecc.ECKeyPair;
import org.whispersystems.libaxolotl.protocol.CiphertextMessage;
import org.whispersystems.libaxolotl.protocol.PreKeyWhisperMessage;
import org.whispersystems.libaxolotl.protocol.WhisperMessage;
import org.whispersystems.libaxolotl.state.AxolotlStore;
import org.whispersystems.libaxolotl.state.PreKeyBundle;
import org.whispersystems.libaxolotl.state.PreKeyRecord;
import org.whispersystems.libaxolotl.state.SignedPreKeyRecord;
import org.whispersystems.libaxolotl.util.Medium;
import java.util.Arrays;
import java.util.Random;
public class SimultaneousInitiateTests extends AndroidTestCase {
private static final long BOB_RECIPENT_ID = 12345;
private static final long ALICE_RECIPIENT_ID = 6789;
private static final ECKeyPair aliceSignedPreKey = Curve.generateKeyPair();
private static final ECKeyPair bobSignedPreKey = Curve.generateKeyPair();
private static final int aliceSignedPreKeyId = new Random().nextInt(Medium.MAX_VALUE);
private static final int bobSignedPreKeyId = new Random().nextInt(Medium.MAX_VALUE);
public void testBasicSimultaneousInitiate()
throws InvalidKeyException, UntrustedIdentityException, InvalidVersionException,
InvalidMessageException, DuplicateMessageException, LegacyMessageException,
InvalidKeyIdException, NoSessionException
{
AxolotlStore aliceStore = new InMemoryAxolotlStore();
AxolotlStore bobStore = new InMemoryAxolotlStore();
PreKeyBundle alicePreKeyBundle = createAlicePreKeyBundle(aliceStore);
PreKeyBundle bobPreKeyBundle = createBobPreKeyBundle(bobStore);
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPENT_ID, 1);
SessionBuilder bobSessionBuilder = new SessionBuilder(bobStore, ALICE_RECIPIENT_ID, 1);
SessionCipher aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPENT_ID, 1);
SessionCipher bobSessionCipher = new SessionCipher(bobStore, ALICE_RECIPIENT_ID, 1);
aliceSessionBuilder.process(bobPreKeyBundle);
bobSessionBuilder.process(alicePreKeyBundle);
CiphertextMessage messageForBob = aliceSessionCipher.encrypt("hey there".getBytes());
CiphertextMessage messageForAlice = bobSessionCipher.encrypt("sample message".getBytes());
assertTrue(messageForBob.getType() == CiphertextMessage.PREKEY_TYPE);
assertTrue(messageForAlice.getType() == CiphertextMessage.PREKEY_TYPE);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
byte[] alicePlaintext = aliceSessionCipher.decrypt(new PreKeyWhisperMessage(messageForAlice.serialize()));
byte[] bobPlaintext = bobSessionCipher.decrypt(new PreKeyWhisperMessage(messageForBob.serialize()));
assertTrue(new String(alicePlaintext).equals("sample message"));
assertTrue(new String(bobPlaintext).equals("hey there"));
assertTrue(aliceStore.loadSession(BOB_RECIPENT_ID, 1).getSessionState().getSessionVersion() == 3);
assertTrue(bobStore.loadSession(ALICE_RECIPIENT_ID, 1).getSessionState().getSessionVersion() == 3);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
CiphertextMessage aliceResponse = aliceSessionCipher.encrypt("second message".getBytes());
assertTrue(aliceResponse.getType() == CiphertextMessage.WHISPER_TYPE);
byte[] responsePlaintext = bobSessionCipher.decrypt(new WhisperMessage(aliceResponse.serialize()));
assertTrue(new String(responsePlaintext).equals("second message"));
assertTrue(isSessionIdEqual(aliceStore, bobStore));
CiphertextMessage finalMessage = bobSessionCipher.encrypt("third message".getBytes());
assertTrue(finalMessage.getType() == CiphertextMessage.WHISPER_TYPE);
byte[] finalPlaintext = aliceSessionCipher.decrypt(new WhisperMessage(finalMessage.serialize()));
assertTrue(new String(finalPlaintext).equals("third message"));
assertTrue(isSessionIdEqual(aliceStore, bobStore));
}
public void testLostSimultaneousInitiate() throws InvalidKeyException, UntrustedIdentityException, InvalidVersionException, InvalidMessageException, DuplicateMessageException, LegacyMessageException, InvalidKeyIdException, NoSessionException {
AxolotlStore aliceStore = new InMemoryAxolotlStore();
AxolotlStore bobStore = new InMemoryAxolotlStore();
PreKeyBundle alicePreKeyBundle = createAlicePreKeyBundle(aliceStore);
PreKeyBundle bobPreKeyBundle = createBobPreKeyBundle(bobStore);
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPENT_ID, 1);
SessionBuilder bobSessionBuilder = new SessionBuilder(bobStore, ALICE_RECIPIENT_ID, 1);
SessionCipher aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPENT_ID, 1);
SessionCipher bobSessionCipher = new SessionCipher(bobStore, ALICE_RECIPIENT_ID, 1);
aliceSessionBuilder.process(bobPreKeyBundle);
bobSessionBuilder.process(alicePreKeyBundle);
CiphertextMessage messageForBob = aliceSessionCipher.encrypt("hey there".getBytes());
CiphertextMessage messageForAlice = bobSessionCipher.encrypt("sample message".getBytes());
assertTrue(messageForBob.getType() == CiphertextMessage.PREKEY_TYPE);
assertTrue(messageForAlice.getType() == CiphertextMessage.PREKEY_TYPE);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
byte[] bobPlaintext = bobSessionCipher.decrypt(new PreKeyWhisperMessage(messageForBob.serialize()));
assertTrue(new String(bobPlaintext).equals("hey there"));
assertTrue(bobStore.loadSession(ALICE_RECIPIENT_ID, 1).getSessionState().getSessionVersion() == 3);
CiphertextMessage aliceResponse = aliceSessionCipher.encrypt("second message".getBytes());
assertTrue(aliceResponse.getType() == CiphertextMessage.PREKEY_TYPE);
byte[] responsePlaintext = bobSessionCipher.decrypt(new PreKeyWhisperMessage(aliceResponse.serialize()));
assertTrue(new String(responsePlaintext).equals("second message"));
assertTrue(isSessionIdEqual(aliceStore, bobStore));
CiphertextMessage finalMessage = bobSessionCipher.encrypt("third message".getBytes());
assertTrue(finalMessage.getType() == CiphertextMessage.WHISPER_TYPE);
byte[] finalPlaintext = aliceSessionCipher.decrypt(new WhisperMessage(finalMessage.serialize()));
assertTrue(new String(finalPlaintext).equals("third message"));
assertTrue(isSessionIdEqual(aliceStore, bobStore));
}
public void testSimultaneousInitiateLostMessage()
throws InvalidKeyException, UntrustedIdentityException, InvalidVersionException,
InvalidMessageException, DuplicateMessageException, LegacyMessageException,
InvalidKeyIdException, NoSessionException
{
AxolotlStore aliceStore = new InMemoryAxolotlStore();
AxolotlStore bobStore = new InMemoryAxolotlStore();
PreKeyBundle alicePreKeyBundle = createAlicePreKeyBundle(aliceStore);
PreKeyBundle bobPreKeyBundle = createBobPreKeyBundle(bobStore);
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPENT_ID, 1);
SessionBuilder bobSessionBuilder = new SessionBuilder(bobStore, ALICE_RECIPIENT_ID, 1);
SessionCipher aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPENT_ID, 1);
SessionCipher bobSessionCipher = new SessionCipher(bobStore, ALICE_RECIPIENT_ID, 1);
aliceSessionBuilder.process(bobPreKeyBundle);
bobSessionBuilder.process(alicePreKeyBundle);
CiphertextMessage messageForBob = aliceSessionCipher.encrypt("hey there".getBytes());
CiphertextMessage messageForAlice = bobSessionCipher.encrypt("sample message".getBytes());
assertTrue(messageForBob.getType() == CiphertextMessage.PREKEY_TYPE);
assertTrue(messageForAlice.getType() == CiphertextMessage.PREKEY_TYPE);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
byte[] alicePlaintext = aliceSessionCipher.decrypt(new PreKeyWhisperMessage(messageForAlice.serialize()));
byte[] bobPlaintext = bobSessionCipher.decrypt(new PreKeyWhisperMessage(messageForBob.serialize()));
assertTrue(new String(alicePlaintext).equals("sample message"));
assertTrue(new String(bobPlaintext).equals("hey there"));
assertTrue(aliceStore.loadSession(BOB_RECIPENT_ID, 1).getSessionState().getSessionVersion() == 3);
assertTrue(bobStore.loadSession(ALICE_RECIPIENT_ID, 1).getSessionState().getSessionVersion() == 3);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
CiphertextMessage aliceResponse = aliceSessionCipher.encrypt("second message".getBytes());
assertTrue(aliceResponse.getType() == CiphertextMessage.WHISPER_TYPE);
// byte[] responsePlaintext = bobSessionCipher.decrypt(new WhisperMessage(aliceResponse.serialize()));
//
// assertTrue(new String(responsePlaintext).equals("second message"));
// assertTrue(isSessionIdEqual(aliceStore, bobStore));
assertFalse(isSessionIdEqual(aliceStore, bobStore));
CiphertextMessage finalMessage = bobSessionCipher.encrypt("third message".getBytes());
assertTrue(finalMessage.getType() == CiphertextMessage.WHISPER_TYPE);
byte[] finalPlaintext = aliceSessionCipher.decrypt(new WhisperMessage(finalMessage.serialize()));
assertTrue(new String(finalPlaintext).equals("third message"));
assertTrue(isSessionIdEqual(aliceStore, bobStore));
}
public void testSimultaneousInitiateRepeatedMessages()
throws InvalidKeyException, UntrustedIdentityException, InvalidVersionException,
InvalidMessageException, DuplicateMessageException, LegacyMessageException,
InvalidKeyIdException, NoSessionException
{
AxolotlStore aliceStore = new InMemoryAxolotlStore();
AxolotlStore bobStore = new InMemoryAxolotlStore();
PreKeyBundle alicePreKeyBundle = createAlicePreKeyBundle(aliceStore);
PreKeyBundle bobPreKeyBundle = createBobPreKeyBundle(bobStore);
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPENT_ID, 1);
SessionBuilder bobSessionBuilder = new SessionBuilder(bobStore, ALICE_RECIPIENT_ID, 1);
SessionCipher aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPENT_ID, 1);
SessionCipher bobSessionCipher = new SessionCipher(bobStore, ALICE_RECIPIENT_ID, 1);
aliceSessionBuilder.process(bobPreKeyBundle);
bobSessionBuilder.process(alicePreKeyBundle);
CiphertextMessage messageForBob = aliceSessionCipher.encrypt("hey there".getBytes());
CiphertextMessage messageForAlice = bobSessionCipher.encrypt("sample message".getBytes());
assertTrue(messageForBob.getType() == CiphertextMessage.PREKEY_TYPE);
assertTrue(messageForAlice.getType() == CiphertextMessage.PREKEY_TYPE);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
byte[] alicePlaintext = aliceSessionCipher.decrypt(new PreKeyWhisperMessage(messageForAlice.serialize()));
byte[] bobPlaintext = bobSessionCipher.decrypt(new PreKeyWhisperMessage(messageForBob.serialize()));
assertTrue(new String(alicePlaintext).equals("sample message"));
assertTrue(new String(bobPlaintext).equals("hey there"));
assertTrue(aliceStore.loadSession(BOB_RECIPENT_ID, 1).getSessionState().getSessionVersion() == 3);
assertTrue(bobStore.loadSession(ALICE_RECIPIENT_ID, 1).getSessionState().getSessionVersion() == 3);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
for (int i=0;i<50;i++) {
Log.w("SimultaneousInitiateTests", "Iteration: " + i);
CiphertextMessage messageForBobRepeat = aliceSessionCipher.encrypt("hey there".getBytes());
CiphertextMessage messageForAliceRepeat = bobSessionCipher.encrypt("sample message".getBytes());
assertTrue(messageForBobRepeat.getType() == CiphertextMessage.WHISPER_TYPE);
assertTrue(messageForAliceRepeat.getType() == CiphertextMessage.WHISPER_TYPE);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
byte[] alicePlaintextRepeat = aliceSessionCipher.decrypt(new WhisperMessage(messageForAliceRepeat.serialize()));
byte[] bobPlaintextRepeat = bobSessionCipher.decrypt(new WhisperMessage(messageForBobRepeat.serialize()));
assertTrue(new String(alicePlaintextRepeat).equals("sample message"));
assertTrue(new String(bobPlaintextRepeat).equals("hey there"));
assertFalse(isSessionIdEqual(aliceStore, bobStore));
}
CiphertextMessage aliceResponse = aliceSessionCipher.encrypt("second message".getBytes());
assertTrue(aliceResponse.getType() == CiphertextMessage.WHISPER_TYPE);
byte[] responsePlaintext = bobSessionCipher.decrypt(new WhisperMessage(aliceResponse.serialize()));
assertTrue(new String(responsePlaintext).equals("second message"));
assertTrue(isSessionIdEqual(aliceStore, bobStore));
CiphertextMessage finalMessage = bobSessionCipher.encrypt("third message".getBytes());
assertTrue(finalMessage.getType() == CiphertextMessage.WHISPER_TYPE);
byte[] finalPlaintext = aliceSessionCipher.decrypt(new WhisperMessage(finalMessage.serialize()));
assertTrue(new String(finalPlaintext).equals("third message"));
assertTrue(isSessionIdEqual(aliceStore, bobStore));
}
public void testRepeatedSimultaneousInitiateRepeatedMessages()
throws InvalidKeyException, UntrustedIdentityException, InvalidVersionException,
InvalidMessageException, DuplicateMessageException, LegacyMessageException,
InvalidKeyIdException, NoSessionException
{
AxolotlStore aliceStore = new InMemoryAxolotlStore();
AxolotlStore bobStore = new InMemoryAxolotlStore();
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPENT_ID, 1);
SessionBuilder bobSessionBuilder = new SessionBuilder(bobStore, ALICE_RECIPIENT_ID, 1);
SessionCipher aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPENT_ID, 1);
SessionCipher bobSessionCipher = new SessionCipher(bobStore, ALICE_RECIPIENT_ID, 1);
for (int i=0;i<15;i++) {
PreKeyBundle alicePreKeyBundle = createAlicePreKeyBundle(aliceStore);
PreKeyBundle bobPreKeyBundle = createBobPreKeyBundle(bobStore);
aliceSessionBuilder.process(bobPreKeyBundle);
bobSessionBuilder.process(alicePreKeyBundle);
CiphertextMessage messageForBob = aliceSessionCipher.encrypt("hey there".getBytes());
CiphertextMessage messageForAlice = bobSessionCipher.encrypt("sample message".getBytes());
assertTrue(messageForBob.getType() == CiphertextMessage.PREKEY_TYPE);
assertTrue(messageForAlice.getType() == CiphertextMessage.PREKEY_TYPE);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
byte[] alicePlaintext = aliceSessionCipher.decrypt(new PreKeyWhisperMessage(messageForAlice.serialize()));
byte[] bobPlaintext = bobSessionCipher.decrypt(new PreKeyWhisperMessage(messageForBob.serialize()));
assertTrue(new String(alicePlaintext).equals("sample message"));
assertTrue(new String(bobPlaintext).equals("hey there"));
assertTrue(aliceStore.loadSession(BOB_RECIPENT_ID, 1).getSessionState().getSessionVersion() == 3);
assertTrue(bobStore.loadSession(ALICE_RECIPIENT_ID, 1).getSessionState().getSessionVersion() == 3);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
}
for (int i=0;i<50;i++) {
Log.w("SimultaneousInitiateTests", "Iteration: " + i);
CiphertextMessage messageForBobRepeat = aliceSessionCipher.encrypt("hey there".getBytes());
CiphertextMessage messageForAliceRepeat = bobSessionCipher.encrypt("sample message".getBytes());
assertTrue(messageForBobRepeat.getType() == CiphertextMessage.WHISPER_TYPE);
assertTrue(messageForAliceRepeat.getType() == CiphertextMessage.WHISPER_TYPE);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
byte[] alicePlaintextRepeat = aliceSessionCipher.decrypt(new WhisperMessage(messageForAliceRepeat.serialize()));
byte[] bobPlaintextRepeat = bobSessionCipher.decrypt(new WhisperMessage(messageForBobRepeat.serialize()));
assertTrue(new String(alicePlaintextRepeat).equals("sample message"));
assertTrue(new String(bobPlaintextRepeat).equals("hey there"));
assertFalse(isSessionIdEqual(aliceStore, bobStore));
}
CiphertextMessage aliceResponse = aliceSessionCipher.encrypt("second message".getBytes());
assertTrue(aliceResponse.getType() == CiphertextMessage.WHISPER_TYPE);
byte[] responsePlaintext = bobSessionCipher.decrypt(new WhisperMessage(aliceResponse.serialize()));
assertTrue(new String(responsePlaintext).equals("second message"));
assertTrue(isSessionIdEqual(aliceStore, bobStore));
CiphertextMessage finalMessage = bobSessionCipher.encrypt("third message".getBytes());
assertTrue(finalMessage.getType() == CiphertextMessage.WHISPER_TYPE);
byte[] finalPlaintext = aliceSessionCipher.decrypt(new WhisperMessage(finalMessage.serialize()));
assertTrue(new String(finalPlaintext).equals("third message"));
assertTrue(isSessionIdEqual(aliceStore, bobStore));
}
public void testRepeatedSimultaneousInitiateLostMessageRepeatedMessages()
throws InvalidKeyException, UntrustedIdentityException, InvalidVersionException,
InvalidMessageException, DuplicateMessageException, LegacyMessageException,
InvalidKeyIdException, NoSessionException
{
AxolotlStore aliceStore = new InMemoryAxolotlStore();
AxolotlStore bobStore = new InMemoryAxolotlStore();
SessionBuilder aliceSessionBuilder = new SessionBuilder(aliceStore, BOB_RECIPENT_ID, 1);
SessionBuilder bobSessionBuilder = new SessionBuilder(bobStore, ALICE_RECIPIENT_ID, 1);
SessionCipher aliceSessionCipher = new SessionCipher(aliceStore, BOB_RECIPENT_ID, 1);
SessionCipher bobSessionCipher = new SessionCipher(bobStore, ALICE_RECIPIENT_ID, 1);
// PreKeyBundle aliceLostPreKeyBundle = createAlicePreKeyBundle(aliceStore);
PreKeyBundle bobLostPreKeyBundle = createBobPreKeyBundle(bobStore);
aliceSessionBuilder.process(bobLostPreKeyBundle);
// bobSessionBuilder.process(aliceLostPreKeyBundle);
CiphertextMessage lostMessageForBob = aliceSessionCipher.encrypt("hey there".getBytes());
// CiphertextMessage lostMessageForAlice = bobSessionCipher.encrypt("sample message".getBytes());
for (int i=0;i<15;i++) {
PreKeyBundle alicePreKeyBundle = createAlicePreKeyBundle(aliceStore);
PreKeyBundle bobPreKeyBundle = createBobPreKeyBundle(bobStore);
aliceSessionBuilder.process(bobPreKeyBundle);
bobSessionBuilder.process(alicePreKeyBundle);
CiphertextMessage messageForBob = aliceSessionCipher.encrypt("hey there".getBytes());
CiphertextMessage messageForAlice = bobSessionCipher.encrypt("sample message".getBytes());
assertTrue(messageForBob.getType() == CiphertextMessage.PREKEY_TYPE);
assertTrue(messageForAlice.getType() == CiphertextMessage.PREKEY_TYPE);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
byte[] alicePlaintext = aliceSessionCipher.decrypt(new PreKeyWhisperMessage(messageForAlice.serialize()));
byte[] bobPlaintext = bobSessionCipher.decrypt(new PreKeyWhisperMessage(messageForBob.serialize()));
assertTrue(new String(alicePlaintext).equals("sample message"));
assertTrue(new String(bobPlaintext).equals("hey there"));
assertTrue(aliceStore.loadSession(BOB_RECIPENT_ID, 1).getSessionState().getSessionVersion() == 3);
assertTrue(bobStore.loadSession(ALICE_RECIPIENT_ID, 1).getSessionState().getSessionVersion() == 3);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
}
for (int i=0;i<50;i++) {
Log.w("SimultaneousInitiateTests", "Iteration: " + i);
CiphertextMessage messageForBobRepeat = aliceSessionCipher.encrypt("hey there".getBytes());
CiphertextMessage messageForAliceRepeat = bobSessionCipher.encrypt("sample message".getBytes());
assertTrue(messageForBobRepeat.getType() == CiphertextMessage.WHISPER_TYPE);
assertTrue(messageForAliceRepeat.getType() == CiphertextMessage.WHISPER_TYPE);
assertFalse(isSessionIdEqual(aliceStore, bobStore));
byte[] alicePlaintextRepeat = aliceSessionCipher.decrypt(new WhisperMessage(messageForAliceRepeat.serialize()));
byte[] bobPlaintextRepeat = bobSessionCipher.decrypt(new WhisperMessage(messageForBobRepeat.serialize()));
assertTrue(new String(alicePlaintextRepeat).equals("sample message"));
assertTrue(new String(bobPlaintextRepeat).equals("hey there"));
assertFalse(isSessionIdEqual(aliceStore, bobStore));
}
CiphertextMessage aliceResponse = aliceSessionCipher.encrypt("second message".getBytes());
assertTrue(aliceResponse.getType() == CiphertextMessage.WHISPER_TYPE);
byte[] responsePlaintext = bobSessionCipher.decrypt(new WhisperMessage(aliceResponse.serialize()));
assertTrue(new String(responsePlaintext).equals("second message"));
assertTrue(isSessionIdEqual(aliceStore, bobStore));
CiphertextMessage finalMessage = bobSessionCipher.encrypt("third message".getBytes());
assertTrue(finalMessage.getType() == CiphertextMessage.WHISPER_TYPE);
byte[] finalPlaintext = aliceSessionCipher.decrypt(new WhisperMessage(finalMessage.serialize()));
assertTrue(new String(finalPlaintext).equals("third message"));
assertTrue(isSessionIdEqual(aliceStore, bobStore));
byte[] lostMessagePlaintext = bobSessionCipher.decrypt(new PreKeyWhisperMessage(lostMessageForBob.serialize()));
assertTrue(new String(lostMessagePlaintext).equals("hey there"));
assertFalse(isSessionIdEqual(aliceStore, bobStore));
CiphertextMessage blastFromThePast = bobSessionCipher.encrypt("unexpected!".getBytes());
byte[] blastFromThePastPlaintext = aliceSessionCipher.decrypt(new WhisperMessage(blastFromThePast.serialize()));
assertTrue(new String(blastFromThePastPlaintext).equals("unexpected!"));
assertTrue(isSessionIdEqual(aliceStore, bobStore));
}
private boolean isSessionIdEqual(AxolotlStore aliceStore, AxolotlStore bobStore) {
return Arrays.equals(aliceStore.loadSession(BOB_RECIPENT_ID, 1).getSessionState().getAliceBaseKey(),
bobStore.loadSession(ALICE_RECIPIENT_ID, 1).getSessionState().getAliceBaseKey());
}
private PreKeyBundle createAlicePreKeyBundle(AxolotlStore aliceStore) throws InvalidKeyException {
ECKeyPair aliceUnsignedPreKey = Curve.generateKeyPair();
int aliceUnsignedPreKeyId = new Random().nextInt(Medium.MAX_VALUE);
byte[] aliceSignature = Curve.calculateSignature(aliceStore.getIdentityKeyPair().getPrivateKey(),
aliceSignedPreKey.getPublicKey().serialize());
PreKeyBundle alicePreKeyBundle = new PreKeyBundle(1, 1,
aliceUnsignedPreKeyId, aliceUnsignedPreKey.getPublicKey(),
aliceSignedPreKeyId, aliceSignedPreKey.getPublicKey(),
aliceSignature, aliceStore.getIdentityKeyPair().getPublicKey());
aliceStore.storeSignedPreKey(aliceSignedPreKeyId, new SignedPreKeyRecord(aliceSignedPreKeyId, System.currentTimeMillis(), aliceSignedPreKey, aliceSignature));
aliceStore.storePreKey(aliceUnsignedPreKeyId, new PreKeyRecord(aliceUnsignedPreKeyId, aliceUnsignedPreKey));
return alicePreKeyBundle;
}
private PreKeyBundle createBobPreKeyBundle(AxolotlStore bobStore) throws InvalidKeyException {
ECKeyPair bobUnsignedPreKey = Curve.generateKeyPair();
int bobUnsignedPreKeyId = new Random().nextInt(Medium.MAX_VALUE);
byte[] bobSignature = Curve.calculateSignature(bobStore.getIdentityKeyPair().getPrivateKey(),
bobSignedPreKey.getPublicKey().serialize());
PreKeyBundle bobPreKeyBundle = new PreKeyBundle(1, 1,
bobUnsignedPreKeyId, bobUnsignedPreKey.getPublicKey(),
bobSignedPreKeyId, bobSignedPreKey.getPublicKey(),
bobSignature, bobStore.getIdentityKeyPair().getPublicKey());
bobStore.storeSignedPreKey(bobSignedPreKeyId, new SignedPreKeyRecord(bobSignedPreKeyId, System.currentTimeMillis(), bobSignedPreKey, bobSignature));
bobStore.storePreKey(bobUnsignedPreKeyId, new PreKeyRecord(bobUnsignedPreKeyId, bobUnsignedPreKey));
return bobPreKeyBundle;
}
}

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libaxolotl/src/androidTest/java/org/whispersystems/test/ecc/Curve25519Test.java
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@ -1,154 +0,0 @@
package org.whispersystems.test.ecc;
import android.test.AndroidTestCase;
import org.whispersystems.libaxolotl.InvalidKeyException;
import org.whispersystems.libaxolotl.ecc.Curve;
import org.whispersystems.libaxolotl.ecc.ECKeyPair;
import org.whispersystems.libaxolotl.ecc.ECPrivateKey;
import org.whispersystems.libaxolotl.ecc.ECPublicKey;
import java.util.Arrays;
public class Curve25519Test extends AndroidTestCase {
public void testAgreement() throws InvalidKeyException {
byte[] alicePublic = {(byte) 0x05, (byte) 0x1b, (byte) 0xb7, (byte) 0x59, (byte) 0x66,
(byte) 0xf2, (byte) 0xe9, (byte) 0x3a, (byte) 0x36, (byte) 0x91,
(byte) 0xdf, (byte) 0xff, (byte) 0x94, (byte) 0x2b, (byte) 0xb2,
(byte) 0xa4, (byte) 0x66, (byte) 0xa1, (byte) 0xc0, (byte) 0x8b,
(byte) 0x8d, (byte) 0x78, (byte) 0xca, (byte) 0x3f, (byte) 0x4d,
(byte) 0x6d, (byte) 0xf8, (byte) 0xb8, (byte) 0xbf, (byte) 0xa2,
(byte) 0xe4, (byte) 0xee, (byte) 0x28};
byte[] alicePrivate = {(byte) 0xc8, (byte) 0x06, (byte) 0x43, (byte) 0x9d, (byte) 0xc9,
(byte) 0xd2, (byte) 0xc4, (byte) 0x76, (byte) 0xff, (byte) 0xed,
(byte) 0x8f, (byte) 0x25, (byte) 0x80, (byte) 0xc0, (byte) 0x88,
(byte) 0x8d, (byte) 0x58, (byte) 0xab, (byte) 0x40, (byte) 0x6b,
(byte) 0xf7, (byte) 0xae, (byte) 0x36, (byte) 0x98, (byte) 0x87,
(byte) 0x90, (byte) 0x21, (byte) 0xb9, (byte) 0x6b, (byte) 0xb4,
(byte) 0xbf, (byte) 0x59};
byte[] bobPublic = {(byte) 0x05, (byte) 0x65, (byte) 0x36, (byte) 0x14, (byte) 0x99,
(byte) 0x3d, (byte) 0x2b, (byte) 0x15, (byte) 0xee, (byte) 0x9e,
(byte) 0x5f, (byte) 0xd3, (byte) 0xd8, (byte) 0x6c, (byte) 0xe7,
(byte) 0x19, (byte) 0xef, (byte) 0x4e, (byte) 0xc1, (byte) 0xda,
(byte) 0xae, (byte) 0x18, (byte) 0x86, (byte) 0xa8, (byte) 0x7b,
(byte) 0x3f, (byte) 0x5f, (byte) 0xa9, (byte) 0x56, (byte) 0x5a,
(byte) 0x27, (byte) 0xa2, (byte) 0x2f};
byte[] bobPrivate = {(byte) 0xb0, (byte) 0x3b, (byte) 0x34, (byte) 0xc3, (byte) 0x3a,
(byte) 0x1c, (byte) 0x44, (byte) 0xf2, (byte) 0x25, (byte) 0xb6,
(byte) 0x62, (byte) 0xd2, (byte) 0xbf, (byte) 0x48, (byte) 0x59,
(byte) 0xb8, (byte) 0x13, (byte) 0x54, (byte) 0x11, (byte) 0xfa,
(byte) 0x7b, (byte) 0x03, (byte) 0x86, (byte) 0xd4, (byte) 0x5f,
(byte) 0xb7, (byte) 0x5d, (byte) 0xc5, (byte) 0xb9, (byte) 0x1b,
(byte) 0x44, (byte) 0x66};
byte[] shared = {(byte) 0x32, (byte) 0x5f, (byte) 0x23, (byte) 0x93, (byte) 0x28,
(byte) 0x94, (byte) 0x1c, (byte) 0xed, (byte) 0x6e, (byte) 0x67,
(byte) 0x3b, (byte) 0x86, (byte) 0xba, (byte) 0x41, (byte) 0x01,
(byte) 0x74, (byte) 0x48, (byte) 0xe9, (byte) 0x9b, (byte) 0x64,
(byte) 0x9a, (byte) 0x9c, (byte) 0x38, (byte) 0x06, (byte) 0xc1,
(byte) 0xdd, (byte) 0x7c, (byte) 0xa4, (byte) 0xc4, (byte) 0x77,
(byte) 0xe6, (byte) 0x29};
ECPublicKey alicePublicKey = Curve.decodePoint(alicePublic, 0);
ECPrivateKey alicePrivateKey = Curve.decodePrivatePoint(alicePrivate);
ECPublicKey bobPublicKey = Curve.decodePoint(bobPublic, 0);
ECPrivateKey bobPrivateKey = Curve.decodePrivatePoint(bobPrivate);
byte[] sharedOne = Curve.calculateAgreement(alicePublicKey, bobPrivateKey);
byte[] sharedTwo = Curve.calculateAgreement(bobPublicKey, alicePrivateKey);
assertTrue(Arrays.equals(sharedOne, shared));
assertTrue(Arrays.equals(sharedTwo, shared));
}
public void testRandomAgreements() throws InvalidKeyException {
for (int i=0;i<50;i++) {
ECKeyPair alice = Curve.generateKeyPair();
ECKeyPair bob = Curve.generateKeyPair();
byte[] sharedAlice = Curve.calculateAgreement(bob.getPublicKey(), alice.getPrivateKey());
byte[] sharedBob = Curve.calculateAgreement(alice.getPublicKey(), bob.getPrivateKey());
assertTrue(Arrays.equals(sharedAlice, sharedBob));
}
}
public void testSignature() throws InvalidKeyException {
byte[] aliceIdentityPrivate = {(byte)0xc0, (byte)0x97, (byte)0x24, (byte)0x84, (byte)0x12,
(byte)0xe5, (byte)0x8b, (byte)0xf0, (byte)0x5d, (byte)0xf4,
(byte)0x87, (byte)0x96, (byte)0x82, (byte)0x05, (byte)0x13,
(byte)0x27, (byte)0x94, (byte)0x17, (byte)0x8e, (byte)0x36,
(byte)0x76, (byte)0x37, (byte)0xf5, (byte)0x81, (byte)0x8f,
(byte)0x81, (byte)0xe0, (byte)0xe6, (byte)0xce, (byte)0x73,
(byte)0xe8, (byte)0x65};
byte[] aliceIdentityPublic = {(byte)0x05, (byte)0xab, (byte)0x7e, (byte)0x71, (byte)0x7d,
(byte)0x4a, (byte)0x16, (byte)0x3b, (byte)0x7d, (byte)0x9a,
(byte)0x1d, (byte)0x80, (byte)0x71, (byte)0xdf, (byte)0xe9,
(byte)0xdc, (byte)0xf8, (byte)0xcd, (byte)0xcd, (byte)0x1c,
(byte)0xea, (byte)0x33, (byte)0x39, (byte)0xb6, (byte)0x35,
(byte)0x6b, (byte)0xe8, (byte)0x4d, (byte)0x88, (byte)0x7e,
(byte)0x32, (byte)0x2c, (byte)0x64};
byte[] aliceEphemeralPublic = {(byte)0x05, (byte)0xed, (byte)0xce, (byte)0x9d, (byte)0x9c,
(byte)0x41, (byte)0x5c, (byte)0xa7, (byte)0x8c, (byte)0xb7,
(byte)0x25, (byte)0x2e, (byte)0x72, (byte)0xc2, (byte)0xc4,
(byte)0xa5, (byte)0x54, (byte)0xd3, (byte)0xeb, (byte)0x29,
(byte)0x48, (byte)0x5a, (byte)0x0e, (byte)0x1d, (byte)0x50,
(byte)0x31, (byte)0x18, (byte)0xd1, (byte)0xa8, (byte)0x2d,
(byte)0x99, (byte)0xfb, (byte)0x4a};
byte[] aliceSignature = {(byte)0x5d, (byte)0xe8, (byte)0x8c, (byte)0xa9, (byte)0xa8,
(byte)0x9b, (byte)0x4a, (byte)0x11, (byte)0x5d, (byte)0xa7,
(byte)0x91, (byte)0x09, (byte)0xc6, (byte)0x7c, (byte)0x9c,
(byte)0x74, (byte)0x64, (byte)0xa3, (byte)0xe4, (byte)0x18,
(byte)0x02, (byte)0x74, (byte)0xf1, (byte)0xcb, (byte)0x8c,
(byte)0x63, (byte)0xc2, (byte)0x98, (byte)0x4e, (byte)0x28,
(byte)0x6d, (byte)0xfb, (byte)0xed, (byte)0xe8, (byte)0x2d,
(byte)0xeb, (byte)0x9d, (byte)0xcd, (byte)0x9f, (byte)0xae,
(byte)0x0b, (byte)0xfb, (byte)0xb8, (byte)0x21, (byte)0x56,
(byte)0x9b, (byte)0x3d, (byte)0x90, (byte)0x01, (byte)0xbd,
(byte)0x81, (byte)0x30, (byte)0xcd, (byte)0x11, (byte)0xd4,
(byte)0x86, (byte)0xce, (byte)0xf0, (byte)0x47, (byte)0xbd,
(byte)0x60, (byte)0xb8, (byte)0x6e, (byte)0x88};
ECPrivateKey alicePrivateKey = Curve.decodePrivatePoint(aliceIdentityPrivate);
ECPublicKey alicePublicKey = Curve.decodePoint(aliceIdentityPublic, 0);
ECPublicKey aliceEphemeral = Curve.decodePoint(aliceEphemeralPublic, 0);
if (!Curve.verifySignature(alicePublicKey, aliceEphemeral.serialize(), aliceSignature)) {
throw new AssertionError("Sig verification failed!");
}
for (int i=0;i<aliceSignature.length;i++) {
byte[] modifiedSignature = new byte[aliceSignature.length];
System.arraycopy(aliceSignature, 0, modifiedSignature, 0, modifiedSignature.length);
modifiedSignature[i] ^= 0x01;
if (Curve.verifySignature(alicePublicKey, aliceEphemeral.serialize(), modifiedSignature)) {
throw new AssertionError("Sig verification succeeded!");
}
}
}
public void testSignatureOverflow() throws InvalidKeyException {
ECKeyPair keys = Curve.generateKeyPair();
byte[] message = new byte[4096];
try {
byte[] signature = Curve.calculateSignature(keys.getPrivateKey(), message);
throw new InvalidKeyException("Should have asserted!");
} catch (AssertionError e) {
// Success!
}
}
}

151
libaxolotl/src/androidTest/java/org/whispersystems/test/groups/GroupCipherTest.java
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@ -1,151 +0,0 @@
package org.whispersystems.test.groups;
import android.test.AndroidTestCase;
import android.util.Log;
import org.whispersystems.libaxolotl.DuplicateMessageException;
import org.whispersystems.libaxolotl.InvalidMessageException;
import org.whispersystems.libaxolotl.LegacyMessageException;
import org.whispersystems.libaxolotl.NoSessionException;
import org.whispersystems.libaxolotl.ecc.ECKeyPair;
import org.whispersystems.libaxolotl.groups.GroupCipher;
import org.whispersystems.libaxolotl.groups.GroupSessionBuilder;
import org.whispersystems.libaxolotl.protocol.SenderKeyDistributionMessage;
import org.whispersystems.libaxolotl.util.KeyHelper;
import java.security.NoSuchAlgorithmException;
import java.security.SecureRandom;
import java.util.ArrayList;
import java.util.LinkedList;
import java.util.List;
public class GroupCipherTest extends AndroidTestCase {
public void testBasicEncryptDecrypt()
throws LegacyMessageException, DuplicateMessageException, InvalidMessageException, NoSessionException
{
InMemorySenderKeyStore aliceStore = new InMemorySenderKeyStore();
InMemorySenderKeyStore bobStore = new InMemorySenderKeyStore();
GroupSessionBuilder aliceSessionBuilder = new GroupSessionBuilder(aliceStore);
GroupSessionBuilder bobSessionBuilder = new GroupSessionBuilder(bobStore);
GroupCipher aliceGroupCipher = new GroupCipher(aliceStore, "groupWithBobInIt");
GroupCipher bobGroupCipher = new GroupCipher(bobStore, "groupWithBobInIt::aliceUserName");
byte[] aliceSenderKey = KeyHelper.generateSenderKey();
ECKeyPair aliceSenderSigningKey = KeyHelper.generateSenderSigningKey();
int aliceSenderKeyId = KeyHelper.generateSenderKeyId();
SenderKeyDistributionMessage aliceDistributionMessage =
aliceSessionBuilder.process("groupWithBobInIt", aliceSenderKeyId, 0,
aliceSenderKey, aliceSenderSigningKey);
bobSessionBuilder.process("groupWithBobInIt::aliceUserName", aliceDistributionMessage);
byte[] ciphertextFromAlice = aliceGroupCipher.encrypt("smert ze smert".getBytes());
byte[] plaintextFromAlice = bobGroupCipher.decrypt(ciphertextFromAlice);
assertTrue(new String(plaintextFromAlice).equals("smert ze smert"));
}
public void testBasicRatchet()
throws LegacyMessageException, DuplicateMessageException, InvalidMessageException, NoSessionException
{
InMemorySenderKeyStore aliceStore = new InMemorySenderKeyStore();
InMemorySenderKeyStore bobStore = new InMemorySenderKeyStore();
GroupSessionBuilder aliceSessionBuilder = new GroupSessionBuilder(aliceStore);
GroupSessionBuilder bobSessionBuilder = new GroupSessionBuilder(bobStore);
GroupCipher aliceGroupCipher = new GroupCipher(aliceStore, "groupWithBobInIt");
GroupCipher bobGroupCipher = new GroupCipher(bobStore, "groupWithBobInIt::aliceUserName");
byte[] aliceSenderKey = KeyHelper.generateSenderKey();
ECKeyPair aliceSenderSigningKey = KeyHelper.generateSenderSigningKey();
int aliceSenderKeyId = KeyHelper.generateSenderKeyId();
SenderKeyDistributionMessage aliceDistributionMessage =
aliceSessionBuilder.process("groupWithBobInIt", aliceSenderKeyId, 0,
aliceSenderKey, aliceSenderSigningKey);
bobSessionBuilder.process("groupWithBobInIt::aliceUserName", aliceDistributionMessage);
byte[] ciphertextFromAlice = aliceGroupCipher.encrypt("smert ze smert".getBytes());
byte[] ciphertextFromAlice2 = aliceGroupCipher.encrypt("smert ze smert2".getBytes());
byte[] ciphertextFromAlice3 = aliceGroupCipher.encrypt("smert ze smert3".getBytes());
byte[] plaintextFromAlice = bobGroupCipher.decrypt(ciphertextFromAlice);
try {
bobGroupCipher.decrypt(ciphertextFromAlice);
throw new AssertionError("Should have ratcheted forward!");
} catch (DuplicateMessageException dme) {
// good
}
byte[] plaintextFromAlice2 = bobGroupCipher.decrypt(ciphertextFromAlice2);
byte[] plaintextFromAlice3 = bobGroupCipher.decrypt(ciphertextFromAlice3);
assertTrue(new String(plaintextFromAlice).equals("smert ze smert"));
assertTrue(new String(plaintextFromAlice2).equals("smert ze smert2"));
assertTrue(new String(plaintextFromAlice3).equals("smert ze smert3"));
}
public void testOutOfOrder()
throws LegacyMessageException, DuplicateMessageException, InvalidMessageException, NoSessionException
{
InMemorySenderKeyStore aliceStore = new InMemorySenderKeyStore();
InMemorySenderKeyStore bobStore = new InMemorySenderKeyStore();
GroupSessionBuilder aliceSessionBuilder = new GroupSessionBuilder(aliceStore);
GroupSessionBuilder bobSessionBuilder = new GroupSessionBuilder(bobStore);
GroupCipher aliceGroupCipher = new GroupCipher(aliceStore, "groupWithBobInIt");
GroupCipher bobGroupCipher = new GroupCipher(bobStore, "groupWithBobInIt::aliceUserName");
byte[] aliceSenderKey = KeyHelper.generateSenderKey();
ECKeyPair aliceSenderSigningKey = KeyHelper.generateSenderSigningKey();
int aliceSenderKeyId = KeyHelper.generateSenderKeyId();
SenderKeyDistributionMessage aliceDistributionMessage =
aliceSessionBuilder.process("groupWithBobInIt", aliceSenderKeyId, 0,
aliceSenderKey, aliceSenderSigningKey);
bobSessionBuilder.process("groupWithBobInIt::aliceUserName", aliceDistributionMessage);
ArrayList<byte[]> ciphertexts = new ArrayList<>(100);
for (int i=0;i<100;i++) {
ciphertexts.add(aliceGroupCipher.encrypt("up the punks".getBytes()));
}
while (ciphertexts.size() > 0) {
int index = randomInt() % ciphertexts.size();
byte[] ciphertext = ciphertexts.remove(index);
byte[] plaintext = bobGroupCipher.decrypt(ciphertext);
assertTrue(new String(plaintext).equals("up the punks"));
}
}
public void testEncryptNoSession() {
InMemorySenderKeyStore aliceStore = new InMemorySenderKeyStore();
GroupCipher aliceGroupCipher = new GroupCipher(aliceStore, "groupWithBobInIt");
try {
aliceGroupCipher.encrypt("up the punks".getBytes());
throw new AssertionError("Should have failed!");
} catch (NoSessionException nse) {
// good
}
}
private int randomInt() {
try {
return SecureRandom.getInstance("SHA1PRNG").nextInt(Integer.MAX_VALUE);
} catch (NoSuchAlgorithmException e) {
throw new AssertionError(e);
}
}
}

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libaxolotl/src/androidTest/java/org/whispersystems/test/groups/InMemorySenderKeyStore.java
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@ -1,33 +0,0 @@
package org.whispersystems.test.groups;
import org.whispersystems.libaxolotl.groups.state.SenderKeyRecord;
import org.whispersystems.libaxolotl.groups.state.SenderKeyStore;
import java.io.IOException;
import java.util.HashMap;
import java.util.Map;
public class InMemorySenderKeyStore implements SenderKeyStore {
private final Map<String, SenderKeyRecord> store = new HashMap<>();
@Override
public void storeSenderKey(String senderKeyId, SenderKeyRecord record) {
store.put(senderKeyId, record);
}
@Override
public SenderKeyRecord loadSenderKey(String senderKeyId) {
try {
SenderKeyRecord record = store.get(senderKeyId);
if (record == null) {
return new SenderKeyRecord();
} else {
return new SenderKeyRecord(record.serialize());
}
} catch (IOException e) {
throw new AssertionError(e);
}
}
}

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libaxolotl/src/androidTest/java/org/whispersystems/test/kdf/HKDFTest.java
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@ -1,139 +0,0 @@
package org.whispersystems.test.kdf;
import android.test.AndroidTestCase;
import org.whispersystems.libaxolotl.kdf.HKDF;
import java.util.Arrays;
public class HKDFTest extends AndroidTestCase {
public void testVectorV3() {
byte[] ikm = {0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b,
0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b,
0x0b, 0x0b};
byte[] salt = {0x00, 0x01, 0x02, 0x03, 0x04, 0x05, 0x06, 0x07, 0x08, 0x09,
0x0a, 0x0b, 0x0c};
byte[] info = {(byte) 0xf0, (byte) 0xf1, (byte) 0xf2, (byte) 0xf3, (byte) 0xf4,
(byte) 0xf5, (byte) 0xf6, (byte) 0xf7, (byte) 0xf8, (byte) 0xf9};
byte[] okm = {(byte) 0x3c, (byte) 0xb2, (byte) 0x5f, (byte) 0x25, (byte) 0xfa,
(byte) 0xac, (byte) 0xd5, (byte) 0x7a, (byte) 0x90, (byte) 0x43,
(byte) 0x4f, (byte) 0x64, (byte) 0xd0, (byte) 0x36, (byte) 0x2f,
(byte) 0x2a, (byte) 0x2d, (byte) 0x2d, (byte) 0x0a, (byte) 0x90,
(byte) 0xcf, (byte) 0x1a, (byte) 0x5a, (byte) 0x4c, (byte) 0x5d,
(byte) 0xb0, (byte) 0x2d, (byte) 0x56, (byte) 0xec, (byte) 0xc4,
(byte) 0xc5, (byte) 0xbf, (byte) 0x34, (byte) 0x00, (byte) 0x72,
(byte) 0x08, (byte) 0xd5, (byte) 0xb8, (byte) 0x87, (byte) 0x18,
(byte) 0x58, (byte) 0x65};
byte[] actualOutput = HKDF.createFor(3).deriveSecrets(ikm, salt, info, 42);
assertTrue(Arrays.equals(okm, actualOutput));
}
public void testVectorLongV3() {
byte[] ikm = {(byte) 0x00, (byte) 0x01, (byte) 0x02, (byte) 0x03, (byte) 0x04,
(byte) 0x05, (byte) 0x06, (byte) 0x07, (byte) 0x08, (byte) 0x09,
(byte) 0x0a, (byte) 0x0b, (byte) 0x0c, (byte) 0x0d, (byte) 0x0e,
(byte) 0x0f, (byte) 0x10, (byte) 0x11, (byte) 0x12, (byte) 0x13,
(byte) 0x14, (byte) 0x15, (byte) 0x16, (byte) 0x17, (byte) 0x18,
(byte) 0x19, (byte) 0x1a, (byte) 0x1b, (byte) 0x1c, (byte) 0x1d,
(byte) 0x1e, (byte) 0x1f, (byte) 0x20, (byte) 0x21, (byte) 0x22,
(byte) 0x23, (byte) 0x24, (byte) 0x25, (byte) 0x26, (byte) 0x27,
(byte) 0x28, (byte) 0x29, (byte) 0x2a, (byte) 0x2b, (byte) 0x2c,
(byte) 0x2d, (byte) 0x2e, (byte) 0x2f, (byte) 0x30, (byte) 0x31,
(byte) 0x32, (byte) 0x33, (byte) 0x34, (byte) 0x35, (byte) 0x36,
(byte) 0x37, (byte) 0x38, (byte) 0x39, (byte) 0x3a, (byte) 0x3b,
(byte) 0x3c, (byte) 0x3d, (byte) 0x3e, (byte) 0x3f, (byte) 0x40,
(byte) 0x41, (byte) 0x42, (byte) 0x43, (byte) 0x44, (byte) 0x45,
(byte) 0x46, (byte) 0x47, (byte) 0x48, (byte) 0x49, (byte) 0x4a,
(byte) 0x4b, (byte) 0x4c, (byte) 0x4d, (byte) 0x4e, (byte) 0x4f};
byte[] salt = {(byte) 0x60, (byte) 0x61, (byte) 0x62, (byte) 0x63, (byte) 0x64,
(byte) 0x65, (byte) 0x66, (byte) 0x67, (byte) 0x68, (byte) 0x69,
(byte) 0x6a, (byte) 0x6b, (byte) 0x6c, (byte) 0x6d, (byte) 0x6e,
(byte) 0x6f, (byte) 0x70, (byte) 0x71, (byte) 0x72, (byte) 0x73,
(byte) 0x74, (byte) 0x75, (byte) 0x76, (byte) 0x77, (byte) 0x78,
(byte) 0x79, (byte) 0x7a, (byte) 0x7b, (byte) 0x7c, (byte) 0x7d,
(byte) 0x7e, (byte) 0x7f, (byte) 0x80, (byte) 0x81, (byte) 0x82,
(byte) 0x83, (byte) 0x84, (byte) 0x85, (byte) 0x86, (byte) 0x87,
(byte) 0x88, (byte) 0x89, (byte) 0x8a, (byte) 0x8b, (byte) 0x8c,
(byte) 0x8d, (byte) 0x8e, (byte) 0x8f, (byte) 0x90, (byte) 0x91,
(byte) 0x92, (byte) 0x93, (byte) 0x94, (byte) 0x95, (byte) 0x96,
(byte) 0x97, (byte) 0x98, (byte) 0x99, (byte) 0x9a, (byte) 0x9b,
(byte) 0x9c, (byte) 0x9d, (byte) 0x9e, (byte) 0x9f, (byte) 0xa0,
(byte) 0xa1, (byte) 0xa2, (byte) 0xa3, (byte) 0xa4, (byte) 0xa5,
(byte) 0xa6, (byte) 0xa7, (byte) 0xa8, (byte) 0xa9, (byte) 0xaa,
(byte) 0xab, (byte) 0xac, (byte) 0xad, (byte) 0xae, (byte) 0xaf};
byte[] info = {(byte) 0xb0, (byte) 0xb1, (byte) 0xb2, (byte) 0xb3, (byte) 0xb4,
(byte) 0xb5, (byte) 0xb6, (byte) 0xb7, (byte) 0xb8, (byte) 0xb9,
(byte) 0xba, (byte) 0xbb, (byte) 0xbc, (byte) 0xbd, (byte) 0xbe,
(byte) 0xbf, (byte) 0xc0, (byte) 0xc1, (byte) 0xc2, (byte) 0xc3,
(byte) 0xc4, (byte) 0xc5, (byte) 0xc6, (byte) 0xc7, (byte) 0xc8,
(byte) 0xc9, (byte) 0xca, (byte) 0xcb, (byte) 0xcc, (byte) 0xcd,
(byte) 0xce, (byte) 0xcf, (byte) 0xd0, (byte) 0xd1, (byte) 0xd2,
(byte) 0xd3, (byte) 0xd4, (byte) 0xd5, (byte) 0xd6, (byte) 0xd7,
(byte) 0xd8, (byte) 0xd9, (byte) 0xda, (byte) 0xdb, (byte) 0xdc,
(byte) 0xdd, (byte) 0xde, (byte) 0xdf, (byte) 0xe0, (byte) 0xe1,
(byte) 0xe2, (byte) 0xe3, (byte) 0xe4, (byte) 0xe5, (byte) 0xe6,
(byte) 0xe7, (byte) 0xe8, (byte) 0xe9, (byte) 0xea, (byte) 0xeb,
(byte) 0xec, (byte) 0xed, (byte) 0xee, (byte) 0xef, (byte) 0xf0,
(byte) 0xf1, (byte) 0xf2, (byte) 0xf3, (byte) 0xf4, (byte) 0xf5,
(byte) 0xf6, (byte) 0xf7, (byte) 0xf8, (byte) 0xf9, (byte) 0xfa,
(byte) 0xfb, (byte) 0xfc, (byte) 0xfd, (byte) 0xfe, (byte) 0xff};
byte[] okm = {(byte) 0xb1, (byte) 0x1e, (byte) 0x39, (byte) 0x8d, (byte) 0xc8,
(byte) 0x03, (byte) 0x27, (byte) 0xa1, (byte) 0xc8, (byte) 0xe7,
(byte) 0xf7, (byte) 0x8c, (byte) 0x59, (byte) 0x6a, (byte) 0x49,
(byte) 0x34, (byte) 0x4f, (byte) 0x01, (byte) 0x2e, (byte) 0xda,
(byte) 0x2d, (byte) 0x4e, (byte) 0xfa, (byte) 0xd8, (byte) 0xa0,
(byte) 0x50, (byte) 0xcc, (byte) 0x4c, (byte) 0x19, (byte) 0xaf,
(byte) 0xa9, (byte) 0x7c, (byte) 0x59, (byte) 0x04, (byte) 0x5a,
(byte) 0x99, (byte) 0xca, (byte) 0xc7, (byte) 0x82, (byte) 0x72,
(byte) 0x71, (byte) 0xcb, (byte) 0x41, (byte) 0xc6, (byte) 0x5e,
(byte) 0x59, (byte) 0x0e, (byte) 0x09, (byte) 0xda, (byte) 0x32,
(byte) 0x75, (byte) 0x60, (byte) 0x0c, (byte) 0x2f, (byte) 0x09,
(byte) 0xb8, (byte) 0x36, (byte) 0x77, (byte) 0x93, (byte) 0xa9,
(byte) 0xac, (byte) 0xa3, (byte) 0xdb, (byte) 0x71, (byte) 0xcc,
(byte) 0x30, (byte) 0xc5, (byte) 0x81, (byte) 0x79, (byte) 0xec,
(byte) 0x3e, (byte) 0x87, (byte) 0xc1, (byte) 0x4c, (byte) 0x01,
(byte) 0xd5, (byte) 0xc1, (byte) 0xf3, (byte) 0x43, (byte) 0x4f,
(byte) 0x1d, (byte) 0x87};
byte[] actualOutput = HKDF.createFor(3).deriveSecrets(ikm, salt, info, 82);
assertTrue(Arrays.equals(okm, actualOutput));
}
public void testVectorV2() {
byte[] ikm = {0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b,
0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b, 0x0b,
0x0b, 0x0b};
byte[] salt = {0x00, 0x01, 0x02, 0x03, 0x04, 0x05, 0x06, 0x07, 0x08, 0x09,
0x0a, 0x0b, 0x0c};
byte[] info = {(byte)0xf0, (byte)0xf1, (byte)0xf2, (byte)0xf3, (byte)0xf4,
(byte)0xf5, (byte)0xf6, (byte)0xf7, (byte)0xf8, (byte)0xf9};
byte[] okm = {(byte)0x6e, (byte)0xc2, (byte)0x55, (byte)0x6d, (byte)0x5d,
(byte)0x7b, (byte)0x1d, (byte)0x81, (byte)0xde, (byte)0xe4,
(byte)0x22, (byte)0x2a, (byte)0xd7, (byte)0x48, (byte)0x36,
(byte)0x95, (byte)0xdd, (byte)0xc9, (byte)0x8f, (byte)0x4f,
(byte)0x5f, (byte)0xab, (byte)0xc0, (byte)0xe0, (byte)0x20,
(byte)0x5d, (byte)0xc2, (byte)0xef, (byte)0x87, (byte)0x52,
(byte)0xd4, (byte)0x1e, (byte)0x04, (byte)0xe2, (byte)0xe2,
(byte)0x11, (byte)0x01, (byte)0xc6, (byte)0x8f, (byte)0xf0,
(byte)0x93, (byte)0x94, (byte)0xb8, (byte)0xad, (byte)0x0b,
(byte)0xdc, (byte)0xb9, (byte)0x60, (byte)0x9c, (byte)0xd4,
(byte)0xee, (byte)0x82, (byte)0xac, (byte)0x13, (byte)0x19,
(byte)0x9b, (byte)0x4a, (byte)0xa9, (byte)0xfd, (byte)0xa8,
(byte)0x99, (byte)0xda, (byte)0xeb, (byte)0xec};
byte[] actualOutput = HKDF.createFor(2).deriveSecrets(ikm, salt, info, 64);
assertTrue(Arrays.equals(okm, actualOutput));
}
}

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