int main()
{
struct Allocator* alloc = MallocAllocator_new(1048576);
struct Log* logger = FileWriterLog_new(stdout, alloc);
struct Random* rand = Random_new(alloc, logger, NULL);
uint8_t curve25519private[32];
Random_bytes(rand, curve25519private, 32);
uint8_t curve25519public[32];
crypto_scalarmult_curve25519_base(curve25519public, curve25519private);
uint8_t signingKeyPair[64];
Sign_signingKeyPairFromCurve25519(signingKeyPair, curve25519private);
struct Message* msg = Message_new(0, 512, alloc);
Message_push(msg, "hello world", 12, NULL);
Sign_signMsg(signingKeyPair, msg, rand);
uint8_t curve25519publicB[32];
Assert_true(!Sign_verifyMsg(&signingKeyPair[32], msg));
Assert_true(!Sign_publicSigningKeyToCurve25519(curve25519publicB, &signingKeyPair[32]));
Assert_true(!Bits_memcmp(curve25519publicB, curve25519public, 32));
Allocator_free(alloc);
return 0;
}
int main(int argc, char** argv)
{
struct Allocator* alloc = MallocAllocator_new(1<<20);
struct EventBase* base = EventBase_new(alloc);
struct Log* log = FileWriterLog_new(stdout, alloc);
struct Sockaddr* addrA = Sockaddr_fromBytes(TUNTools_testIP6AddrA, Sockaddr_AF_INET6, alloc);
struct Sockaddr* addrB = Sockaddr_fromBytes(TUNTools_testIP6AddrB, Sockaddr_AF_INET6, alloc);
char assignedIfName[TUNInterface_IFNAMSIZ];
struct Iface* tap = TUNInterface_new(NULL, assignedIfName, 1, base, log, NULL, alloc);
struct TAPWrapper* tapWrapper = TAPWrapper_new(tap, log, alloc);
// Now setup the NDP server so the tun will work correctly.
struct NDPServer* ndp = NDPServer_new(&tapWrapper->internal, log, TAPWrapper_LOCAL_MAC, alloc);
struct ARPServer* arp = ARPServer_new(&ndp->internal, log, TAPWrapper_LOCAL_MAC, alloc);
addrA->flags |= Sockaddr_flags_PREFIX;
addrA->prefix = 126;
NetDev_addAddress(assignedIfName, addrA, log, NULL);
TUNTools_echoTest(addrA, addrB, TUNTools_genericIP6Echo, &arp->internal, base, log, alloc);
Allocator_free(alloc);
return 0;
}
int main(int argc, char** argv)
{
printf("init test");
struct Allocator* alloc = MallocAllocator_new(1<<20);
struct Log* logger = FileWriterLog_new(stdout, alloc);
struct EventBase* base = EventBase_new(alloc);
char* ifName;
struct Iface* iface = TAPInterface_new(NULL, &ifName, NULL, logger, base, alloc);
struct NDPServer* ndp = NDPServer_new(iface, alloc);
ndp->generic.receiveMessage = receiveMessage;
ndp->generic.receiverContext = alloc;
ndp->advertisePrefix[0] = 0xfd;
ndp->prefixLen = AddressCalc_ADDRESS_PREFIX_BITS;
struct Sockaddr_storage ss;
Assert_true(!Sockaddr_parse("fd00::1", &ss));
NetDev_addAddress(ifName, &ss.addr, AddressCalc_ADDRESS_PREFIX_BITS, logger, NULL);
Timeout_setTimeout(fail, alloc, 10000, base, alloc);
EventBase_beginLoop(base);
printf("Test ended\n");
return 0;
}
int main()
{
struct Allocator* alloc = MallocAllocator_new(1<<22);
struct Random* rand = Random_new(alloc, NULL, NULL);
struct Log* log = FileWriterLog_new(stdout, alloc);
uint8_t ip[16];
uint8_t printedIp[40];
uint8_t printedShortIp[40];
uint8_t ipFromFull[16];
uint8_t ipFromShort[16];
for (int i = 0; i < 1024; ++i) {
Random_bytes(rand, ip, 16);
for (int j = 0; j < 16; j++) {
// make the random result have lots of zeros since that's what we're looking for.
ip[j] = (ip[j] % 2) ? 0 : ip[j];
}
AddrTools_printIp(printedIp, ip);
AddrTools_printShortIp(printedShortIp, ip);
//printf("%s\n%s\n\n", printedIp, printedShortIp);
AddrTools_parseIp(ipFromFull, printedIp);
AddrTools_parseIp(ipFromShort, printedShortIp);
Log_debug(log, "print/parse %s", printedIp);
Assert_true(0 == Bits_memcmp(ip, ipFromFull, 16));
Assert_true(0 == Bits_memcmp(ipFromFull, ipFromShort, 16));
}
Allocator_free(alloc);
return 0;
}
/** Check if nodes A and C can communicate via B without A knowing that C exists. */
void Benchmark_runAll()
{
struct Allocator* alloc = MallocAllocator_new(1<<22);
struct Context* ctx = Allocator_calloc(alloc, sizeof(struct Context), 1);
Identity_set(ctx);
ctx->alloc = alloc;
ctx->base = EventBase_new(alloc);
struct Log* log = ctx->log = FileWriterLog_new(stdout, alloc);
ctx->rand = Random_new(alloc, log, NULL);
cryptoAuth(ctx);
switching(ctx);
}
int main(int argc, char** argv)
{
struct Allocator* alloc = MallocAllocator_new(1<<20);
struct EventBase* base = EventBase_new(alloc);
struct Log* logger = FileWriterLog_new(stdout, alloc);
struct Sockaddr* addrA = Sockaddr_fromBytes(TUNTools_testIP6AddrA, Sockaddr_AF_INET6, alloc);
struct Sockaddr* addrB = Sockaddr_fromBytes(TUNTools_testIP6AddrB, Sockaddr_AF_INET6, alloc);
char assignedIfName[TUNInterface_IFNAMSIZ];
struct Iface* tun = TUNInterface_new(NULL, assignedIfName, 0, base, logger, NULL, alloc);
addrA->flags |= Sockaddr_flags_PREFIX;
addrA->prefix = 126;
NetDev_addAddress(assignedIfName, addrA, logger, NULL);
TUNTools_echoTest(addrA, addrB, TUNTools_genericIP6Echo, tun, base, logger, alloc);
Allocator_free(alloc);
return 0;
}
int main()
{
struct Allocator* mainAlloc = MallocAllocator_new(1<<20);
struct Log* log = FileWriterLog_new(stdout, mainAlloc);
struct Random* rand = Random_new(mainAlloc, log, NULL);
struct Context* ctx = Allocator_malloc(mainAlloc, sizeof(struct Context));
Identity_set(ctx);
struct Interface iface = { .sendMessage = NULL };
struct Interface* fi = FramingInterface_new(4096, &iface, mainAlloc);
fi->receiveMessage = messageOut;
fi->receiverContext = ctx;
for (int i = 0; i < CYCLES; i++) {
struct Allocator* alloc = Allocator_child(mainAlloc);
// max frame size must be at least 5 so that at least 1 byte of data is sent.
int maxFrameSize = ( Random_uint32(rand) % (MAX_FRAME_SZ - 1) ) + 1;
int maxMessageSize = ( Random_uint32(rand) % (MAX_MSG_SZ - MIN_MSG_SZ) ) + MIN_MSG_SZ;
Log_debug(log, "maxFrameSize[%d] maxMessageSize[%d]", maxFrameSize, maxMessageSize);
ctx->alloc = alloc;
ctx->messages = NULL;
ctx->messageCount = 0;
ctx->currentMessage = 0;
// Create one huge message, then create lots of little frames inside of it
// then split it up in random places and send the sections to the framing
// interface.
struct Message* msg = Message_new(WORK_BUFF_SZ, 0, alloc);
Assert_true(WORK_BUFF_SZ == msg->length);
Random_bytes(rand, msg->bytes, msg->length);
Message_shift(msg, -WORK_BUFF_SZ, NULL);
for (;;) {
int len = Random_uint32(rand) % maxFrameSize;
if (!len) {
len++;
}
if (msg->padding < len + 4) {
break;
}
Message_shift(msg, len, NULL);
ctx->messageCount++;
ctx->messages =
Allocator_realloc(alloc, ctx->messages, ctx->messageCount * sizeof(char*));
struct Message* om = ctx->messages[ctx->messageCount-1] = Message_new(len, 0, alloc);
Bits_memcpy(om->bytes, msg->bytes, len);
Message_push32(msg, len, NULL);
}
do {
int nextMessageSize = Random_uint32(rand) % maxMessageSize;
if (!nextMessageSize) {
nextMessageSize++;
}
if (nextMessageSize > msg->length) {
nextMessageSize = msg->length;
}
struct Allocator* msgAlloc = Allocator_child(alloc);
struct Message* m = Message_new(nextMessageSize, 0, msgAlloc);
Message_pop(msg, m->bytes, nextMessageSize, NULL);
Interface_receiveMessage(&iface, m);
Allocator_free(msgAlloc);
} while (msg->length);
Assert_true(ctx->messageCount == ctx->currentMessage);
Allocator_free(alloc);
}
return 0;
}
int main()
{
struct Allocator* alloc = MallocAllocator_new(1<<20);
struct Log* log = FileWriterLog_new(stdout, alloc);
runTest((char*[]){ "0.0.0.0/0", NULL },
/*
* This process is started with 2 parameters, they must all be numeric in base 10.
* toAngel the pipe which is used to send data back to the angel process.
* fromAngel the pipe which is used to read incoming data from the angel.
*
* Upon initialization, this process will wait for an initial configuration to be sent to
* it and then it will send an initial response.
*/
int Core_main(int argc, char** argv)
{
struct Except* eh = NULL;
if (argc != 3) {
Except_raise(eh, -1, "This is internal to cjdns and shouldn't started manually.");
}
struct Allocator* alloc = MallocAllocator_new(ALLOCATOR_FAILSAFE);
struct Log* preLogger = FileWriterLog_new(stderr, alloc);
struct EventBase* eventBase = EventBase_new(alloc);
// -------------------- Setup the Pre-Logger ---------------------- //
struct Log* logger = IndirectLog_new(alloc);
IndirectLog_set(logger, preLogger);
// -------------------- Setup the PRNG ---------------------- //
struct Random* rand = LibuvEntropyProvider_newDefaultRandom(eventBase, logger, eh, alloc);
// -------------------- Change Canary Value ---------------------- //
MallocAllocator_setCanary(alloc, (long)Random_int64(rand));
struct Allocator* tempAlloc = Allocator_child(alloc);
// The first read inside of getInitialConfig() will begin it waiting.
struct Pipe* angelPipe = Pipe_named(argv[2], eventBase, eh, alloc);
angelPipe->logger = logger;
angelPipe->onClose = angelDied;
struct Interface* angelIface = FramingInterface_new(65535, &angelPipe->iface, alloc);
Dict* config = getInitialConfig(angelIface, eventBase, tempAlloc, eh);
struct Hermes* hermes = Hermes_new(angelIface, eventBase, logger, alloc);
String* privateKeyHex = Dict_getString(config, String_CONST("privateKey"));
Dict* adminConf = Dict_getDict(config, String_CONST("admin"));
String* pass = Dict_getString(adminConf, String_CONST("pass"));
String* bind = Dict_getString(adminConf, String_CONST("bind"));
if (!(pass && privateKeyHex && bind)) {
if (!pass) {
Except_raise(eh, -1, "Expected 'pass'");
}
if (!bind) {
Except_raise(eh, -1, "Expected 'bind'");
}
if (!privateKeyHex) {
Except_raise(eh, -1, "Expected 'privateKey'");
}
Except_raise(eh, -1, "Expected 'pass', 'privateKey' and 'bind' in configuration.");
}
Log_keys(logger, "Starting core with admin password [%s]", pass->bytes);
uint8_t privateKey[32];
if (privateKeyHex->len != 64
|| Hex_decode(privateKey, 32, (uint8_t*) privateKeyHex->bytes, 64) != 32)
{
Except_raise(eh, -1, "privateKey must be 64 bytes of hex.");
}
struct Sockaddr_storage bindAddr;
if (Sockaddr_parse(bind->bytes, &bindAddr)) {
Except_raise(eh, -1, "bind address [%s] unparsable", bind->bytes);
}
struct AddrInterface* udpAdmin =
UDPAddrInterface_new(eventBase, &bindAddr.addr, alloc, eh, logger);
struct Admin* admin = Admin_new(udpAdmin, alloc, logger, eventBase, pass);
char* boundAddr = Sockaddr_print(udpAdmin->addr, tempAlloc);
Dict adminResponse = Dict_CONST(
String_CONST("bind"), String_OBJ(String_CONST(boundAddr)), NULL
);
Dict response = Dict_CONST(
String_CONST("error"), String_OBJ(String_CONST("none")), Dict_CONST(
String_CONST("admin"), Dict_OBJ(&adminResponse), NULL
));
// This always times out because the angel doesn't respond.
Hermes_callAngel(&response, angelResponse, NULL, alloc, eh, hermes);
// --------------------- Setup the Logger --------------------- //
Dict* logging = Dict_getDict(config, String_CONST("logging"));
String* logTo = Dict_getString(logging, String_CONST("logTo"));
if (logTo && String_equals(logTo, String_CONST("stdout"))) {
// do nothing, continue logging to stdout.
} else {
struct Log* adminLogger = AdminLog_registerNew(admin, alloc, rand);
IndirectLog_set(logger, adminLogger);
logger = adminLogger;
}
// CryptoAuth
struct Address addr;
parsePrivateKey(privateKey, &addr, eh);
struct CryptoAuth* cryptoAuth = CryptoAuth_new(alloc, privateKey, eventBase, logger, rand);
struct Sockaddr* myAddr = Sockaddr_fromBytes(addr.ip6.bytes, Sockaddr_AF_INET6, alloc);
struct SwitchCore* switchCore = SwitchCore_new(logger, alloc);
struct DHTModuleRegistry* registry = DHTModuleRegistry_new(alloc);
ReplyModule_register(registry, alloc);
// Router
struct RouterModule* router = RouterModule_register(registry,
alloc,
addr.key,
eventBase,
logger,
admin,
rand);
SerializationModule_register(registry, logger, alloc);
struct IpTunnel* ipTun = IpTunnel_new(logger, eventBase, alloc, rand, hermes);
struct Ducttape* dt = Ducttape_register(privateKey,
registry,
router,
switchCore,
eventBase,
alloc,
logger,
admin,
ipTun,
rand);
struct SwitchPinger* sp =
SwitchPinger_new(&dt->switchPingerIf, eventBase, logger, alloc);
// Interfaces.
struct InterfaceController* ifController =
DefaultInterfaceController_new(cryptoAuth,
switchCore,
router,
logger,
eventBase,
sp,
rand,
alloc);
// ------------------- Register RPC functions ----------------------- //
SwitchPinger_admin_register(sp, admin, alloc);
UDPInterface_admin_register(eventBase, alloc, logger, admin, ifController);
#ifdef HAS_ETH_INTERFACE
ETHInterface_admin_register(eventBase, alloc, logger, admin, ifController);
#endif
RouterModule_admin_register(router, admin, alloc);
AuthorizedPasswords_init(admin, cryptoAuth, alloc);
Admin_registerFunction("ping", adminPing, admin, false, NULL, admin);
Core_admin_register(myAddr, dt, logger, ipTun, alloc, admin, eventBase);
Security_admin_register(alloc, logger, admin);
IpTunnel_admin_register(ipTun, admin, alloc);
struct Context* ctx = Allocator_clone(alloc, (&(struct Context) {
.allocator = alloc,
.admin = admin,
.logger = logger,
.hermes = hermes
}));
int main(int argc, char** argv)
{
Assert_ifParanoid(argc > 0);
struct Allocator* allocator = MallocAllocator_new(1<<23);
if (argc != 6 || (argc == 2 &&
(!(CString_strcmp(argv[1], "--help") == 0) || (CString_strcmp(argv[1], "-h") == 0)))) {
return usage(allocator, argv[0]);
}
struct Except* eh = NULL;
struct EventBase* eventBase = EventBase_new(allocator);
struct Log* logger = FileWriterLog_new(stdout, allocator);
String* privateKey = String_new(argv[3], allocator);
String* adminBind = String_new(argv[4], allocator);
String* adminPass = String_new(argv[5], allocator);
String* logTo = String_new("stdout", allocator);
// --------------------- Welcome to cjdns ---------------------- //
char* sysInfo = SysInfo_describe(SysInfo_detect(), allocator);
Log_info(logger, "Cjdns %s %s", ArchInfo_getArchStr(), sysInfo);
// --------------------- Setup Pipes to Angel --------------------- //
struct Allocator* corePipeAlloc = Allocator_child(allocator);
String* corePipeDir = String_new(argv[1], allocator);
String* corePipeName = String_new(argv[2], allocator);
if (!Defined(win32) && access(corePipeDir->bytes, W_OK)) {
Except_throw(eh, "Don't have write permission to [%s].", corePipeDir->bytes);
}
Assert_ifParanoid(EventBase_eventCount(eventBase) == 0);
struct Pipe* corePipe = Pipe_named(corePipeDir->bytes, corePipeName->bytes,
eventBase, eh, corePipeAlloc);
Assert_ifParanoid(EventBase_eventCount(eventBase) == 2);
corePipe->logger = logger;
// --------------------- Pre-Configure Core ------------------------- //
Dict* preConf = Dict_new(allocator);
Dict* adminPreConf = Dict_new(allocator);
Dict* logPreConf = Dict_new(allocator);
Dict_putDict(preConf, String_CONST("admin"), adminPreConf, allocator);
Dict_putDict(preConf, String_CONST("logging"), logPreConf, allocator);
Dict_putString(preConf, String_CONST("privateKey"), privateKey, allocator);
Dict_putString(adminPreConf, String_CONST("bind"), adminBind, allocator);
Dict_putString(adminPreConf, String_CONST("pass"), adminPass, allocator);
Dict_putString(logPreConf, String_CONST("logTo"), logTo, allocator);
struct Message* toCoreMsg = Message_new(0, 1024, allocator);
BencMessageWriter_write(preConf, toCoreMsg, eh);
Iface_CALL(corePipe->iface.send, toCoreMsg, &corePipe->iface);
Log_debug(logger, "Sent [%d] bytes to core.", toCoreMsg->length);
// --------------------- Get Response from Core --------------------- //
struct Message* fromCoreMsg =
InterfaceWaiter_waitForData(&corePipe->iface, eventBase, allocator, eh);
Dict* responseFromCore = BencMessageReader_read(fromCoreMsg, allocator, eh);
// --------------------- Close the Core Pipe --------------------- //
Allocator_free(corePipeAlloc);
corePipe = NULL;
// --------------------- Get Admin Addr/Port/Passwd --------------------- //
Dict* responseFromCoreAdmin = Dict_getDict(responseFromCore, String_CONST("admin"));
adminBind = Dict_getString(responseFromCoreAdmin, String_CONST("bind"));
if (!adminBind) {
Except_throw(eh, "Didn't get ADMIN_BIND back from cjdroute.");
}
struct Sockaddr_storage adminAddr;
if (Sockaddr_parse(adminBind->bytes, &adminAddr)) {
Except_throw(eh, "Unable to parse [%s] as an IP address:port.",
adminBind->bytes);
}
Assert_ifParanoid(EventBase_eventCount(eventBase) == 0);
Log_info(logger, "Admin API ready at [%s].", adminBind->bytes);
return 0;
}
int main()
{
AddressCalc_addressForPublicKey(nodeCjdnsIp6, fakePubKey);
struct Allocator* alloc = MallocAllocator_new(1<<20);
struct Log* logger = FileWriterLog_new(stdout, alloc);
struct Random* rand = Random_new(alloc, logger, NULL);
struct EventBase* eb = EventBase_new(alloc);
struct IpTunnel* ipTun = IpTunnel_new(logger, eb, alloc, rand);
struct Sockaddr_storage ip6ToGive;
Sockaddr_parse("fd01:0101:0101:0101:0101:0101:0101:0101", &ip6ToGive);
IpTunnel_allowConnection(fakePubKey, &ip6ToGive.addr, 0, NULL, 0, ipTun);
struct Message* message;
Message_STACK(message, 64, 512);
message->alloc = alloc;
const char* requestForAddresses =
"d"
"1:q" "21:IpTunnel_getAddresses"
"4:txid" "4:abcd"
"e";
CString_strcpy((char*)message->bytes, requestForAddresses);
message->length = CString_strlen(requestForAddresses);
Message_shift(message, Headers_UDPHeader_SIZE, NULL);
struct Headers_UDPHeader* uh = (struct Headers_UDPHeader*) message->bytes;
uh->srcPort_be = 0;
uh->destPort_be = 0;
uh->length_be = Endian_hostToBigEndian16(message->length - Headers_UDPHeader_SIZE);
uint16_t* checksum = &uh->checksum_be;
*checksum = 0;
uint32_t length = message->length;
Message_shift(message, Headers_IP6Header_SIZE, NULL);
struct Headers_IP6Header* ip = (struct Headers_IP6Header*) message->bytes;
ip->versionClassAndFlowLabel = 0;
ip->flowLabelLow_be = 0;
ip->payloadLength_be = Endian_hostToBigEndian16(length);
ip->nextHeader = 17;
ip->hopLimit = 255;
Bits_memset(ip->sourceAddr, 0, 32);
Headers_setIpVersion(ip);
Message_shift(message, RouteHeader_SIZE + DataHeader_SIZE, NULL);
struct RouteHeader* rh = (struct RouteHeader*) message->bytes;
struct DataHeader* dh = (struct DataHeader*) &rh[1];
Bits_memset(rh, 0, RouteHeader_SIZE + DataHeader_SIZE);
Bits_memcpy(rh->ip6, nodeCjdnsIp6, 16);
Bits_memcpy(rh->publicKey, fakePubKey, 32);
DataHeader_setContentType(dh, ContentType_IPTUN);
*checksum = Checksum_udpIp6(ip->sourceAddr, (uint8_t*) uh, length);
int origCap = message->capacity;
int origLen = message->length;
struct Iface nodeIface = { .send = responseWithIpCallback };
Iface_plumb(&nodeIface, &ipTun->nodeInterface);
struct Iface tunIface = { .send = messageToTun };
Iface_plumb(&tunIface, &ipTun->tunInterface);
Iface_send(&nodeIface, message);
Assert_true(called == 2);
called = 0;
// This is a hack, reusing the message will cause breakage if IpTunnel is refactored.
Message_reset(message);
Message_shift(message, origCap, NULL);
message->length = origLen;
Bits_memcpy(ip->sourceAddr, fakeIp6ToGive, 16);
// This can't be zero.
Bits_memset(ip->destinationAddr, 1, 16);
Iface_send(&nodeIface, message);
Assert_true(called == 1);
Allocator_free(alloc);
return 0;
}
static void encryptRndNonceTest()
{
uint8_t buff[44];
Bits_memset(buff, 0, 44);
uint8_t nonce[24];
Bits_memset(nonce, 0, 24);
uint8_t secret[32];
Bits_memset(secret, 0, 32);
struct Message m = { .bytes=&buff[32], .length=HELLOWORLDLEN, .padding=32};
CString_strcpy((char*) m.bytes, HELLOWORLDLOWER);
CryptoAuth_encryptRndNonce(nonce, &m, secret);
uint8_t* expected = (uint8_t*) "1391ac5d03ba9f7099bffbb6e6c69d67ae5bd79391a5b94399b293dc";
uint8_t output[57];
Hex_encode(output, 57, m.bytes, m.length);
printf("\n%s\n%s\n", (char*) expected, (char*) output);
Assert_true(!Bits_memcmp(expected, output, 56));
Assert_true(!CryptoAuth_decryptRndNonce(nonce, &m, secret));
Assert_true(m.length == HELLOWORLDLEN && !Bits_memcmp(m.bytes, HELLOWORLDLOWER, m.length));
}
static struct Random* evilRandom(struct Allocator* alloc, struct Log* logger)
{
struct RandomSeed* evilSeed = DeterminentRandomSeed_new(alloc, NULL);
return Random_newWithSeed(alloc, logger, evilSeed, NULL);
}
struct Context
{
struct Allocator* alloc;
struct CryptoAuth* ca;
struct CryptoAuth_Session* sess;
struct Log* log;
struct EventBase* base;
};
static struct Context* setUp(uint8_t* myPrivateKey,
uint8_t* herPublicKey,
uint8_t* authPassword,
struct Allocator* alloc)
{
struct Context* ctx = Allocator_calloc(alloc, sizeof(struct Context), 1);
struct Log* log = ctx->log = FileWriterLog_new(stdout, alloc);
struct EventBase* base = ctx->base = EventBase_new(alloc);
struct CryptoAuth* ca = ctx->ca =
CryptoAuth_new(alloc, myPrivateKey, base, log, evilRandom(alloc, log));
struct CryptoAuth_Session* sess = ctx->sess =
CryptoAuth_newSession(ca, alloc, herPublicKey, NULL, false, Gcc_FILE);
if (authPassword) {
CryptoAuth_setAuth(String_CONST(authPassword), NULL, sess);
}
return ctx;
}
static void testHello(uint8_t* password, uint8_t* expectedOutput)
{
Assert_true(CString_strlen((char*)expectedOutput) == 264);
struct Allocator* alloc = MallocAllocator_new(1<<20);
struct Context* ctx = setUp(NULL, HERPUBKEY, password, alloc);
struct Message* msg = Message_new(0, CryptoHeader_SIZE + 12, alloc);
Message_push(msg, HELLOWORLD, HELLOWORLDLEN, NULL);
Assert_true(!CryptoAuth_encrypt(ctx->sess, msg));
char* actual = Hex_print(msg->bytes, msg->length, alloc);
if (CString_strcmp(actual, expectedOutput)) {
Assert_failure("Test failed.\n"
"Expected %s\n"
" Got %s\n", expectedOutput, actual);
}
Allocator_free(alloc);
}