WIP Update

Cleaned up and organized test functions.
Implemented Ed25519.
This commit is contained in:
attermann 2023-10-07 01:03:15 -06:00
parent eef5f1b326
commit 1b919a9489
19 changed files with 711 additions and 672 deletions

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@ -20,10 +20,18 @@ namespace RNS {
//typedef std::shared_ptr<Data> SharedData; //typedef std::shared_ptr<Data> SharedData;
using SharedData = std::shared_ptr<Data>; using SharedData = std::shared_ptr<Data>;
public:
enum NoneConstructor {
NONE
};
public: public:
Bytes() { Bytes() {
//extreme("Bytes object created from default, this: " + std::to_string((ulong)this) + ", data: " + std::to_string((ulong)_data.get())); //extreme("Bytes object created from default, this: " + std::to_string((ulong)this) + ", data: " + std::to_string((ulong)_data.get()));
} }
Bytes(NoneConstructor none) {
//extreme("Bytes object created from NONE, this: " + std::to_string((ulong)this) + ", data: " + std::to_string((ulong)_data.get()));
}
Bytes(const Bytes &bytes) { Bytes(const Bytes &bytes) {
//extreme("Bytes is using shared data"); //extreme("Bytes is using shared data");
_data = bytes.shareData(); _data = bytes.shareData();

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@ -0,0 +1,3 @@
#include "Ed25519.h"
using namespace RNS::Cryptography;

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@ -0,0 +1,97 @@
#pragma once
#include "Bytes.h"
#include <Ed25519.h>
#include <memory>
/*
Note that the library currently in use for Ed25519 does not support generating keys from a seed.
*/
namespace RNS { namespace Cryptography {
class Ed25519PublicKey {
public:
Ed25519PublicKey(const Bytes &publicKey) {
_publicKey = publicKey;
}
~Ed25519PublicKey() {}
using Ptr = std::shared_ptr<Ed25519PublicKey>;
public:
// creates a new instance with specified seed
static inline Ptr from_public_bytes(const Bytes &publicKey) {
return Ptr(new Ed25519PublicKey(publicKey));
}
inline Bytes public_bytes() {
return _publicKey;
}
inline bool verify(const Bytes &signature, const Bytes &message) {
return Ed25519::verify(signature.data(), _publicKey.data(), message.data(), message.size());
}
private:
Bytes _publicKey;
};
class Ed25519PrivateKey {
public:
Ed25519PrivateKey(const Bytes &privateKey) {
if (privateKey) {
// use specified private key
_privateKey = privateKey;
}
else {
// create random private key
Ed25519::generatePrivateKey(_privateKey.writable(32));
}
Ed25519::derivePublicKey(_publicKey.writable(32), _privateKey.data());
}
~Ed25519PrivateKey() {}
using Ptr = std::shared_ptr<Ed25519PrivateKey>;
public:
// creates a new instance with a random seed
static inline Ptr generate() {
return Ptr(new Ed25519PrivateKey(Bytes::NONE));
}
// creates a new instance with specified seed
static inline Ptr from_private_bytes(const Bytes &privateKey) {
return Ptr(new Ed25519PrivateKey(privateKey));
}
inline Bytes private_bytes() {
return _privateKey;
}
// creates a new instance of public key for this private key
inline Ed25519PublicKey::Ptr public_key() {
return Ed25519PublicKey::from_public_bytes(_publicKey);
}
inline Bytes sign(const Bytes &message) {
//zreturn _sk.sign(message);
Bytes signature;
Ed25519::sign(signature.writable(64), _privateKey.data(), _publicKey.data(), message.data(), message.size());
return signature;
}
private:
Bytes _privateKey;
Bytes _publicKey;
};
} }

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@ -0,0 +1,3 @@
#include "X25519.h"
using namespace RNS::Cryptography;

131
src/Cryptography/X25519.h Normal file
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@ -0,0 +1,131 @@
#pragma once
#include "Bytes.h"
#include <memory>
#include <stdint.h>
namespace RNS { namespace Cryptography {
class X25519PublicKey {
public:
X25519PublicKey(const Bytes &x) {
_x = x;
}
~X25519PublicKey() {}
using Ptr = std::shared_ptr<X25519PublicKey>;
public:
// creates a new instance with specified seed
static inline Ptr from_public_bytes(const Bytes &data) {
//return Ptr(new X25519PublicKey(_unpack_number(data)));
// MOCK
return Ptr(new X25519PublicKey(nullptr));
}
Bytes public_bytes() {
//return _pack_number(_x);
// MOCK
return nullptr;
}
private:
Bytes _x;
};
class X25519PrivateKey {
public:
const float MIN_EXEC_TIME = 0.002;
const float MAX_EXEC_TIME = 0.5;
const uint8_t DELAY_WINDOW = 10;
//zT_CLEAR = None
const uint8_t T_MAX = 0;
public:
X25519PrivateKey(const Bytes &a) {
_a = a;
}
~X25519PrivateKey() {}
using Ptr = std::shared_ptr<X25519PrivateKey>;
public:
// creates a new instance with a random seed
static inline Ptr generate() {
//return from_private_bytes(os.urandom(32));
// MOCK
return from_private_bytes(nullptr);
}
// creates a new instance with specified seed
static inline Ptr from_private_bytes(const Bytes &data) {
//return Ptr(new X25519PrivateKey(_fix_secret(_unpack_number(data))));
// MOCK
return Ptr(new X25519PrivateKey(nullptr));
}
inline Bytes private_bytes() {
//return _pack_number(_a);
// MOCK
return nullptr;
}
// creates a new instance of public key for this private key
inline X25519PublicKey::Ptr public_key() {
//return X25519PublicKey::from_public_bytes(_pack_number(_raw_curve25519(9, _a)));
// MOCK
return X25519PublicKey::from_public_bytes(nullptr);
}
inline Bytes exchange(const Bytes &peer_public_key) {
/*
if isinstance(peer_public_key, bytes):
peer_public_key = X25519PublicKey.from_public_bytes(peer_public_key)
start = time.time()
shared = _pack_number(_raw_curve25519(peer_public_key.x, _a))
end = time.time()
duration = end-start
if X25519PrivateKey.T_CLEAR == None:
X25519PrivateKey.T_CLEAR = end + X25519PrivateKey.DELAY_WINDOW
if end > X25519PrivateKey.T_CLEAR:
X25519PrivateKey.T_CLEAR = end + X25519PrivateKey.DELAY_WINDOW
X25519PrivateKey.T_MAX = 0
if duration < X25519PrivateKey.T_MAX or duration < X25519PrivateKey.MIN_EXEC_TIME:
target = start+X25519PrivateKey.T_MAX
if target > start+X25519PrivateKey.MAX_EXEC_TIME:
target = start+X25519PrivateKey.MAX_EXEC_TIME
if target < start+X25519PrivateKey.MIN_EXEC_TIME:
target = start+X25519PrivateKey.MIN_EXEC_TIME
try:
time.sleep(target-time.time())
except Exception as e:
pass
elif duration > X25519PrivateKey.T_MAX:
X25519PrivateKey.T_MAX = duration
return shared
*/
return nullptr;
}
private:
Bytes _a;
};
} }

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@ -1,102 +0,0 @@
#pragma once
#include "Log.h"
#include <stdint.h>
#include <stddef.h>
#include <string.h>
#include <vector>
#include <string>
#include <memory>
#define COW
namespace RNS {
class Bytes {
public:
Bytes(size_t capacity = 0) {
if (capacity > 0) {
//_vector.reserve(capacity);
_vector = std::shared_ptr<std::vector<uint8_t>>(new std::vector<uint8_t>(capacity));
}
else {
_vector = std::shared_ptr<std::vector<uint8_t>>(new std::vector<uint8_t>());
}
log("Bytes object created from default");
}
Bytes(const Bytes &bytes, size_t capacity = 0) : Bytes(capacity) {
//append(bytes);
_vector = bytes._vector;
_owner = false;
log(std::string("Bytes object created from bytes \"") + toString() + "\"");
}
Bytes(const uint8_t *chunk, size_t size, size_t capacity = 0) : Bytes(capacity) {
append(chunk, size);
log(std::string("Bytes object created from chunk \"") + toString() + "\"");
}
Bytes(const char *string, size_t capacity = 0) : Bytes(capacity) {
append(string);
log(std::string("Bytes object created from string \"") + toString() + "\"");
}
~Bytes() {
log(std::string("Bytes object destroyed \"") + toString() + "\"");
}
inline Bytes& operator + (const Bytes &bytes) {
append(bytes);
return *this;
}
inline Bytes& operator += (const Bytes &bytes) {
append(bytes);
return *this;
}
inline bool operator == (const Bytes &bytes) const {
return _vector == bytes._vector;
}
inline bool operator < (const Bytes &bytes) const {
return _vector < bytes._vector;
}
public:
inline size_t size() const { return _vector->size(); }
inline bool empty() const { return _vector->empty(); }
inline size_t capacity() const { return _vector->capacity(); }
inline const uint8_t *data() const { return _vector->data(); }
void append(const Bytes& bytes) {
_vector->insert(_vector->end(), bytes._vector->begin(), bytes._vector->end());
}
void append(const uint8_t *chunk, size_t size) {
_vector->insert(_vector->end(), chunk, chunk + size);
}
void append(const char* string) {
_vector->insert(_vector->end(), (uint8_t *)string, (uint8_t *)string + strlen(string));
}
inline std::string toString() { return {(const char*)data(), size()}; }
private:
//std::vector<uint8_t> _vector;
std::shared_ptr<std::vector<uint8_t>> _vector;
bool _owner = true;;
};
// following array function doesn't work without size since it's past as a pointer to the array sizeof() is of the pointer
//static inline Bytes bytesFromArray(const uint8_t arr[]) { return Bytes(arr, sizeof(arr)); }
//static inline Bytes bytesFromChunk(const uint8_t *ptr, size_t len) { return Bytes(ptr, len); }
static inline Bytes bytesFromChunk(const uint8_t *ptr, size_t len) { return {ptr, len}; }
//static inline Bytes bytesFromString(const char *str) { return Bytes((uint8_t*)str, strlen(str)); }
static inline Bytes bytesFromString(const char *str) { return {(uint8_t*)str, strlen(str)}; }
//zstatic inline Bytes bytesFromInt(const int) { return {(uint8_t*)str, strlen(str)}; }
static inline std::string stringFromBytes(const Bytes& bytes) { return {(const char*)bytes.data(), bytes.size()}; }
}
inline RNS::Bytes& operator << (RNS::Bytes &lhs, const RNS::Bytes &rhs) {
lhs.append(rhs);
return lhs;
}

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@ -18,27 +18,33 @@ Identity::Identity(bool create_keys) : _object(new Object()) {
void Identity::createKeys() { void Identity::createKeys() {
assert(_object); assert(_object);
/* _object->_prv = Cryptography::X25519PrivateKey::generate();
self.prv = X25519PrivateKey.generate() _object->_prv_bytes = _object->_prv->private_bytes();
self.prv_bytes = self.prv.private_bytes() debug("Identity::createKeys: prv bytes: " + _object->_prv_bytes.toHex());
self.sig_prv = Ed25519PrivateKey.generate() _object->_sig_prv = Cryptography::Ed25519PrivateKey::generate();
self.sig_prv_bytes = self.sig_prv.private_bytes() _object->_sig_prv_bytes = _object->_sig_prv->private_bytes();
debug("Identity::createKeys: sig prv bytes: " + _object->_sig_prv_bytes.toHex());
self.pub = self.prv.public_key() _object->_pub = _object->_prv->public_key();
self.pub_bytes = self.pub.public_bytes() _object->_pub_bytes = _object->_pub->public_bytes();
debug("Identity::createKeys: pub bytes: " + _object->_pub_bytes.toHex());
self.sig_pub = self.sig_prv.public_key() _object->_sig_pub = _object->_sig_prv->public_key();
self.sig_pub_bytes = self.sig_pub.public_bytes() _object->_sig_pub_bytes = _object->_sig_pub->public_bytes();
*/ debug("Identity::createKeys: sig pub bytes: " + _object->_sig_pub_bytes.toHex());
update_hashes(); update_hashes();
//verbose("Identity keys created for " + _object->_hash.toHex()); verbose("Identity keys created for " + _object->_hash.toHex());
} }
/*
:returns: The public key as *bytes*
*/
Bytes Identity::get_public_key() { Bytes Identity::get_public_key() {
assert(_object); assert(_object);
return _object->_pub_bytes + _object->_sig_pub_bytes;
// MOCK // MOCK
return "abc123"; return "abc123";
} }
@ -60,18 +66,18 @@ Signs information by the identity.
*/ */
Bytes Identity::sign(const Bytes &message) { Bytes Identity::sign(const Bytes &message) {
assert(_object); assert(_object);
/* if (_object->_sig_prv) {
if self.sig_prv != None: try {
try: return _object->_sig_prv->sign(message);
return self.sig_prv.sign(message) }
except Exception as e: catch (std::exception e) {
RNS.log("The identity "+str(self)+" could not sign the requested message. The contained exception was: "+str(e), RNS.LOG_ERROR) error("The identity " + toString() + " could not sign the requested message. The contained exception was: " + e.what());
raise e throw e;
else: }
raise KeyError("Signing failed because identity does not hold a private key") }
*/ else {
// MOCK throw std::runtime_error("Signing failed because identity does not hold a private key");
return {message}; }
} }

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@ -4,6 +4,9 @@
#include "Log.h" #include "Log.h"
#include "Bytes.h" #include "Bytes.h"
#include "Cryptography/Fernet.h" #include "Cryptography/Fernet.h"
#include "Cryptography/X25519.h"
#include "Cryptography/Ed25519.h"
#include <memory> #include <memory>
#include <string> #include <string>
@ -65,21 +68,37 @@ namespace RNS {
static Bytes truncated_hash(const Bytes &data); static Bytes truncated_hash(const Bytes &data);
Bytes sign(const Bytes &message); Bytes sign(const Bytes &message);
inline Bytes encryptionPrivateKey() const { assert(_object); return _object->_prv_bytes; }
inline Bytes signingPrivateKey() const { assert(_object); return _object->_sig_prv_bytes; }
inline Bytes encryptionPublicKey() const { assert(_object); return _object->_prv_bytes; }
inline Bytes signingPublicKey() const { assert(_object); return _object->_sig_prv_bytes; }
inline Bytes hash() const { assert(_object); return _object->_hash; } inline Bytes hash() const { assert(_object); return _object->_hash; }
inline std::string hexhash() const { assert(_object); return _object->_hexhash; } inline std::string hexhash() const { assert(_object); return _object->_hexhash; }
inline std::string toString() const { assert(_object); return _object->_hash.toHex(); }
private: private:
class Object { class Object {
public: public:
Object() { Object() { extreme("Identity::Data object created, this: " + std::to_string((ulong)this)); }
extreme("Identity::Data object created, this: " + std::to_string((ulong)this)); ~Object() { extreme("Identity::Data object destroyed, this: " + std::to_string((ulong)this)); }
}
~Object() {
extreme("Identity::Data object destroyed, this: " + std::to_string((ulong)this));
}
private: private:
RNS::Cryptography::X25519PrivateKey::Ptr _prv;
Bytes _prv_bytes;
RNS::Cryptography::Ed25519PrivateKey::Ptr _sig_prv;
Bytes _sig_prv_bytes;
RNS::Cryptography::X25519PublicKey::Ptr _pub;
Bytes _pub_bytes;
RNS::Cryptography::Ed25519PublicKey::Ptr _sig_pub;
Bytes _sig_pub_bytes;
Bytes _hash; Bytes _hash;
std::string _hexhash; std::string _hexhash;
friend class Identity; friend class Identity;
}; };
std::shared_ptr<Object> _object; std::shared_ptr<Object> _object;

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@ -33,6 +33,10 @@ void RNS::loglevel(LogLevel level) {
_level = level; _level = level;
} }
LogLevel RNS::loglevel() {
return _level;
}
void RNS::doLog(const char* msg, LogLevel level) { void RNS::doLog(const char* msg, LogLevel level) {
if (level > _level) { if (level > _level) {
return; return;

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@ -20,6 +20,7 @@ namespace RNS {
}; };
void loglevel(LogLevel level); void loglevel(LogLevel level);
LogLevel loglevel();
void doLog(const char* msg, LogLevel level); void doLog(const char* msg, LogLevel level);

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@ -2,13 +2,23 @@
#include "Log.h" #include "Log.h"
#include <RNG.h>
using namespace RNS; using namespace RNS;
Reticulum::Reticulum() : _object(new Object()) { Reticulum::Reticulum() : _object(new Object()) {
extreme("Reticulum object created"); extreme("Reticulum object created");
// Initialkize random number generator
RNG.begin("Reticulum");
//RNG.stir(mac_address, sizeof(mac_address));
} }
Reticulum::~Reticulum() { Reticulum::~Reticulum() {
extreme("Reticulum object destroyed"); extreme("Reticulum object destroyed");
} }
void Reticulum::loop() {
// Perform random number gnerator housekeeping
RNG.loop();
}

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@ -104,6 +104,9 @@ namespace RNS {
return _object.get() != nullptr; return _object.get() != nullptr;
} }
public:
void loop();
private: private:
std::shared_ptr<Object> _object; std::shared_ptr<Object> _object;

22
src/Test/Test.cpp Normal file
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@ -0,0 +1,22 @@
#include "Test.h"
#include "Log.h"
void test() {
//RNS::LogLevel loglevel = RNS::loglevel();
//RNS::loglevel(RNS::LOG_WARNING);
testMap();
testBytes();
testCowBytes();
testObjects();
testBytesConversion();
testReference();
testCrypto();
//RNS::loglevel(loglevel);
}

13
src/Test/Test.h Normal file
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@ -0,0 +1,13 @@
void test();
void testMap();
void testBytes();
void testCowBytes();
void testBytesConversion();
void testObjects();
void testReference();
void testCrypto();

274
src/Test/TestBytes.cpp Normal file
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@ -0,0 +1,274 @@
#include <unity.h>
#include "Bytes.h"
#include "Log.h"
#include <map>
void testMap()
{
const uint8_t prestr[] = "Hello";
const uint8_t poststr[] = "World";
RNS::Bytes prebuf(prestr, 5);
assert(prebuf.size() == 5);
assert(memcmp(prebuf.data(), "Hello", prebuf.size()) == 0);
RNS::Bytes postbuf(poststr, 5);
assert(postbuf.size() == 5);
assert(memcmp(postbuf.data(), "World", postbuf.size()) == 0);
std::map<RNS::Bytes, std::string> map;
map.insert({prebuf, "hello"});
map.insert({postbuf, "world"});
assert(map.size() == 2);
auto preit = map.find(prebuf);
assert(preit != map.end());
assert((*preit).second.compare("hello") == 0);
if (preit != map.end()) {
RNS::extreme(std::string("found prebuf: ") + (*preit).second);
}
auto postit = map.find(postbuf);
assert(postit != map.end());
assert((*postit).second.compare("world") == 0);
if (postit != map.end()) {
RNS::extreme(std::string("found postbuf: ") + (*postit).second);
}
const uint8_t newstr[] = "World";
RNS::Bytes newbuf(newstr, 5);
assert(newbuf.size() == 5);
assert(memcmp(newbuf.data(), "World", newbuf.size()) == 0);
auto newit = map.find(newbuf);
assert(newit != map.end());
assert((*newit).second.compare("world") == 0);
if (newit != map.end()) {
RNS::extreme(std::string("found newbuf: ") + (*newit).second);
}
std::string str = map["World"];
assert(str.size() == 5);
assert(str.compare("world") == 0);
}
void testBytes() {
RNS::Bytes bytes;
assert(!bytes);
assert(bytes.size() == 0);
assert(bytes.empty() == true);
assert(bytes.data() == nullptr);
const uint8_t prestr[] = "Hello";
const uint8_t poststr[] = " World";
RNS::Bytes prebuf(prestr, 5);
assert(prebuf);
assert(prebuf.size() == 5);
assert(memcmp(prebuf.data(), "Hello", prebuf.size()) == 0);
assert(!(bytes == prebuf));
assert(bytes != prebuf);
assert(bytes < prebuf);
RNS::Bytes postbuf(poststr, 6);
assert(postbuf);
assert(postbuf.size() == 6);
assert(memcmp(postbuf.data(), " World", postbuf.size()) == 0);
assert(!(postbuf == bytes));
assert(postbuf != bytes);
assert(postbuf > bytes);
assert(!(prebuf == postbuf));
assert(prebuf != postbuf);
if (prebuf == postbuf) {
RNS::extreme("bytess are the same");
}
else {
RNS::extreme("bytess are different");
}
bytes += prebuf + postbuf;
assert(bytes.size() == 11);
assert(memcmp(bytes.data(), "Hello World", bytes.size()) == 0);
RNS::extreme("assign bytes: " + bytes.toString());
RNS::extreme("assign prebuf: " + prebuf.toString());
RNS::extreme("assign postbuf: " + postbuf.toString());
bytes = "Foo";
assert(bytes.size() == 3);
assert(memcmp(bytes.data(), "Foo", bytes.size()) == 0);
bytes = prebuf + postbuf;
assert(bytes.size() == 11);
assert(memcmp(bytes.data(), "Hello World", bytes.size()) == 0);
// stream into empty bytes
{
RNS::Bytes strmbuf;
strmbuf << prebuf << postbuf;
RNS::extreme("stream strmbuf: " + strmbuf.toString());
RNS::extreme("stream prebuf: " + prebuf.toString());
RNS::extreme("stream postbuf: " + postbuf.toString());
assert(strmbuf.size() == 11);
assert(memcmp(strmbuf.data(), "Hello World", strmbuf.size()) == 0);
assert(prebuf.size() == 5);
assert(memcmp(prebuf.data(), "Hello", prebuf.size()) == 0);
assert(postbuf.size() == 6);
assert(memcmp(postbuf.data(), " World", postbuf.size()) == 0);
}
// stream into populated bytes
{
RNS::Bytes strmbuf("Stream ");
assert(strmbuf);
assert(strmbuf.size() == 7);
assert(memcmp(strmbuf.data(), "Stream ", strmbuf.size()) == 0);
strmbuf << prebuf << postbuf;
RNS::extreme("stream strmbuf: " + strmbuf.toString());
RNS::extreme("stream prebuf: " + prebuf.toString());
RNS::extreme("stream postbuf: " + postbuf.toString());
assert(strmbuf.size() == 18);
assert(memcmp(strmbuf.data(), "Stream Hello World", strmbuf.size()) == 0);
assert(prebuf.size() == 5);
assert(memcmp(prebuf.data(), "Hello", prebuf.size()) == 0);
assert(postbuf.size() == 6);
assert(memcmp(postbuf.data(), " World", postbuf.size()) == 0);
}
// stream with assignment
// (this is a known and correct but perhaps unexpected and non-intuitive side-effect of assignment with stream)
{
RNS::Bytes strmbuf = prebuf << postbuf;
RNS::extreme("stream strmbuf: " + strmbuf.toString());
RNS::extreme("stream prebuf: " + prebuf.toString());
RNS::extreme("stream postbuf: " + postbuf.toString());
assert(strmbuf.size() == 11);
assert(memcmp(strmbuf.data(), "Hello World", strmbuf.size()) == 0);
assert(prebuf.size() == 11);
assert(memcmp(prebuf.data(), "Hello World", prebuf.size()) == 0);
assert(postbuf.size() == 6);
assert(memcmp(postbuf.data(), " World", postbuf.size()) == 0);
}
// test creating bytes from nullptr
{
RNS::Bytes bytes = nullptr;
assert(!bytes);
assert(bytes.size() == 0);
assert(bytes.data() == nullptr);
}
// test creating bytes from NONE
{
RNS::Bytes bytes(RNS::Bytes::NONE);
assert(!bytes);
assert(bytes.size() == 0);
assert(bytes.data() == nullptr);
}
}
void testCowBytes() {
RNS::Bytes bytes1("1");
assert(bytes1.size() == 1);
assert(memcmp(bytes1.data(), "1", bytes1.size()) == 0);
RNS::Bytes bytes2(bytes1);
assert(bytes2.size() == 1);
assert(memcmp(bytes2.data(), "1", bytes2.size()) == 0);
assert(bytes2.data() == bytes1.data());
RNS::Bytes bytes3(bytes2);
assert(bytes3.size() == 1);
assert(memcmp(bytes3.data(), "1", bytes3.size()) == 0);
assert(bytes3.data() == bytes2.data());
RNS::extreme("pre bytes1 ptr: " + std::to_string((uint32_t)bytes1.data()) + " data: " + bytes1.toString());
RNS::extreme("pre bytes2 ptr: " + std::to_string((uint32_t)bytes2.data()) + " data: " + bytes2.toString());
RNS::extreme("pre bytes3 ptr: " + std::to_string((uint32_t)bytes3.data()) + " data: " + bytes3.toString());
//bytes1.append("mississippi");
//assert(bytes1.size() == 12);
//assert(memcmp(bytes1.data(), "1mississippi", bytes1.size()) == 0);
//assert(bytes1.data() != bytes2.data());
bytes2.append("mississippi");
assert(bytes2.size() == 12);
assert(memcmp(bytes2.data(), "1mississippi", bytes2.size()) == 0);
assert(bytes2.data() != bytes1.data());
bytes3.assign("mississippi");
assert(bytes3.size() == 11);
assert(memcmp(bytes3.data(), "mississippi", bytes3.size()) == 0);
assert(bytes3.data() != bytes2.data());
RNS::extreme("post bytes1 ptr: " + std::to_string((uint32_t)bytes1.data()) + " data: " + bytes1.toString());
RNS::extreme("post bytes2 ptr: " + std::to_string((uint32_t)bytes2.data()) + " data: " + bytes2.toString());
RNS::extreme("post bytes3 ptr: " + std::to_string((uint32_t)bytes3.data()) + " data: " + bytes3.toString());
}
void testBytesConversion() {
{
RNS::Bytes bytes("Hello World");
std::string hex = bytes.toHex();
RNS::extreme("text: \"" + bytes.toString() + "\" upper hex: \"" + hex + "\"");
assert(hex.length() == 22);
assert(hex.compare("48656C6C6F20576F726C64") == 0);
}
{
RNS::Bytes bytes("Hello World");
std::string hex = bytes.toHex(false);
RNS::extreme("text: \"" + bytes.toString() + "\" lower hex: \"" + hex + "\"");
assert(hex.length() == 22);
assert(hex.compare("48656c6c6f20576f726c64") == 0);
}
{
std::string hex("48656C6C6F20576F726C64");
RNS::Bytes bytes;
bytes.assignHex(hex.c_str());
std::string text = bytes.toString();
RNS::extreme("hex: \"" + hex + "\" text: \"" + text + "\"");
assert(text.length() == 11);
assert(text.compare("Hello World") == 0);
}
{
std::string hex("48656c6c6f20576f726c64");
RNS::Bytes bytes;
bytes.assignHex(hex.c_str());
std::string text = bytes.toString();
RNS::extreme("hex: \"" + hex + "\" text: \"" + text + "\"");
assert(text.length() == 11);
assert(text.compare("Hello World") == 0);
bytes.assignHex(hex.c_str());
text = bytes.toString();
RNS::extreme("hex: \"" + hex + "\" text: \"" + text + "\"");
assert(text.length() == 11);
assert(text.compare("Hello World") == 0);
bytes.appendHex(hex.c_str());
text = bytes.toString();
RNS::extreme("hex: \"" + hex + "\" text: \"" + text + "\"");
assert(text.length() == 22);
assert(text.compare("Hello WorldHello World") == 0);
}
}
/*
int main(void)
{
UNITY_BEGIN();
RUN_TEST(testMap);
RUN_TEST(testBytes);
RUN_TEST(testCowBytes);
RUN_TEST(testBytesConversion);
return UNITY_END();
}
*/

31
src/Test/TestCrypto.cpp Normal file
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@ -0,0 +1,31 @@
#include <unity.h>
#include "Reticulum.h"
#include "Identity.h"
#include "Destination.h"
#include "Packet.h"
#include "Bytes.h"
void testCrypto() {
RNS::Reticulum reticulum;
RNS::Identity identity;
RNS::Destination destination(identity, RNS::Destination::IN, RNS::Destination::SINGLE, "appname", "aspects");
//assert(encryptionPrivateKey().toHex().compare("") == );
//assert(signingPrivateKey().toHex().compare("") == );
//assert(encryptionPublicKey().toHex().compare("") == );
//assert(signingPublicKey().toHex().compare("") == );
//Packet packet = destination.announce("appdata");
}
/*
int main(void)
{
UNITY_BEGIN();
RUN_TEST(testObjects);
return UNITY_END();
}
*/

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@ -0,0 +1,29 @@
#include <unity.h>
#include "Reticulum.h"
#include "Bytes.h"
void testReference() {
RNS::Reticulum reticulum_default;
assert(reticulum_default);
RNS::Reticulum reticulum_none(RNS::Reticulum::NONE);
assert(!reticulum_none);
RNS::Reticulum reticulum_default_copy(reticulum_default);
assert(reticulum_default_copy);
RNS::Reticulum reticulum_none_copy(reticulum_none);
assert(!reticulum_none_copy);
}
/*
int main(void)
{
UNITY_BEGIN();
RUN_TEST(testObjects);
return UNITY_END();
}
*/

View File

@ -1,5 +1,7 @@
//#define NDEBUG //#define NDEBUG
#include "Test/Test.h"
#include "Reticulum.h" #include "Reticulum.h"
#include "Identity.h" #include "Identity.h"
#include "Destination.h" #include "Destination.h"
@ -29,372 +31,21 @@ const char* APP_NAME = "example_utilities";
const char* fruits[] = {"Peach", "Quince", "Date", "Tangerine", "Pomelo", "Carambola", "Grape"}; const char* fruits[] = {"Peach", "Quince", "Date", "Tangerine", "Pomelo", "Carambola", "Grape"};
const char* noble_gases[] = {"Helium", "Neon", "Argon", "Krypton", "Xenon", "Radon", "Oganesson"}; const char* noble_gases[] = {"Helium", "Neon", "Argon", "Krypton", "Xenon", "Radon", "Oganesson"};
void testMap()
{
const uint8_t prestr[] = "Hello";
const uint8_t poststr[] = "World";
RNS::Bytes prebuf(prestr, 5);
assert(prebuf.size() == 5);
assert(memcmp(prebuf.data(), "Hello", prebuf.size()) == 0);
RNS::Bytes postbuf(poststr, 5);
assert(postbuf.size() == 5);
assert(memcmp(postbuf.data(), "World", postbuf.size()) == 0);
std::map<RNS::Bytes, std::string> map;
map.insert({prebuf, "hello"});
map.insert({postbuf, "world"});
assert(map.size() == 2);
auto preit = map.find(prebuf);
assert(preit != map.end());
assert((*preit).second.compare("hello") == 0);
//if (preit != map.end()) {
// RNS::log(std::string("found prebuf: ") + (*preit).second);
//}
auto postit = map.find(postbuf);
assert(postit != map.end());
assert((*postit).second.compare("world") == 0);
//if (postit != map.end()) {
// RNS::log(std::string("found postbuf: ") + (*postit).second);
//}
const uint8_t newstr[] = "World";
RNS::Bytes newbuf(newstr, 5);
assert(newbuf.size() == 5);
assert(memcmp(newbuf.data(), "World", newbuf.size()) == 0);
auto newit = map.find(newbuf);
assert(newit != map.end());
assert((*newit).second.compare("world") == 0);
//if (newit != map.end()) {
// RNS::log(std::string("found newbuf: ") + (*newit).second);
//}
std::string str = map["World"];
assert(str.size() == 5);
assert(str.compare("world") == 0);
}
void testBytes() {
RNS::Bytes bytes;
assert(!bytes);
assert(bytes.size() == 0);
assert(bytes.empty() == true);
assert(bytes.data() == nullptr);
const uint8_t prestr[] = "Hello";
const uint8_t poststr[] = " World";
RNS::Bytes prebuf(prestr, 5);
assert(prebuf);
assert(prebuf.size() == 5);
assert(memcmp(prebuf.data(), "Hello", prebuf.size()) == 0);
assert(!(bytes == prebuf));
assert(bytes != prebuf);
assert(bytes < prebuf);
RNS::Bytes postbuf(poststr, 6);
assert(postbuf);
assert(postbuf.size() == 6);
assert(memcmp(postbuf.data(), " World", postbuf.size()) == 0);
assert(!(postbuf == bytes));
assert(postbuf != bytes);
assert(postbuf > bytes);
assert(!(prebuf == postbuf));
assert(prebuf != postbuf);
//if (prebuf == postbuf) {
// RNS::log("bytess are the same");
//}
//else {
// RNS::log("bytess are different");
//}
bytes += prebuf + postbuf;
assert(bytes.size() == 11);
assert(memcmp(bytes.data(), "Hello World", bytes.size()) == 0);
//RNS::log("assign bytes: " + bytes.toString());
//RNS::log("assign prebuf: " + prebuf.toString());
//RNS::log("assign postbuf: " + postbuf.toString());
bytes = "Foo";
assert(bytes.size() == 3);
assert(memcmp(bytes.data(), "Foo", bytes.size()) == 0);
bytes = prebuf + postbuf;
assert(bytes.size() == 11);
assert(memcmp(bytes.data(), "Hello World", bytes.size()) == 0);
// stream into empty bytes
{
RNS::Bytes strmbuf;
strmbuf << prebuf << postbuf;
//RNS::extreme("stream strmbuf: " + strmbuf.toString());
//RNS::extreme("stream prebuf: " + prebuf.toString());
//RNS::extreme("stream postbuf: " + postbuf.toString());
assert(strmbuf.size() == 11);
assert(memcmp(strmbuf.data(), "Hello World", strmbuf.size()) == 0);
assert(prebuf.size() == 5);
assert(memcmp(prebuf.data(), "Hello", prebuf.size()) == 0);
assert(postbuf.size() == 6);
assert(memcmp(postbuf.data(), " World", postbuf.size()) == 0);
}
// stream into populated bytes
{
RNS::Bytes strmbuf("Stream ");
assert(strmbuf);
assert(strmbuf.size() == 7);
assert(memcmp(strmbuf.data(), "Stream ", strmbuf.size()) == 0);
strmbuf << prebuf << postbuf;
//RNS::extreme("stream strmbuf: " + strmbuf.toString());
//RNS::extreme("stream prebuf: " + prebuf.toString());
//RNS::extreme("stream postbuf: " + postbuf.toString());
assert(strmbuf.size() == 18);
assert(memcmp(strmbuf.data(), "Stream Hello World", strmbuf.size()) == 0);
assert(prebuf.size() == 5);
assert(memcmp(prebuf.data(), "Hello", prebuf.size()) == 0);
assert(postbuf.size() == 6);
assert(memcmp(postbuf.data(), " World", postbuf.size()) == 0);
}
// stream with assignment
// (this is a known and correct but perhaps unexpected and non-intuitive side-effect of assignment with stream)
{
RNS::Bytes strmbuf = prebuf << postbuf;
//RNS::extreme("stream strmbuf: " + strmbuf.toString());
//RNS::extreme("stream prebuf: " + prebuf.toString());
//RNS::extreme("stream postbuf: " + postbuf.toString());
assert(strmbuf.size() == 11);
assert(memcmp(strmbuf.data(), "Hello World", strmbuf.size()) == 0);
assert(prebuf.size() == 11);
assert(memcmp(prebuf.data(), "Hello World", prebuf.size()) == 0);
assert(postbuf.size() == 6);
assert(memcmp(postbuf.data(), " World", postbuf.size()) == 0);
}
{
RNS::Bytes nonebuf = nullptr;
assert(!nonebuf);
assert(nonebuf.size() == 0);
assert(nonebuf.data() == nullptr);
}
}
void testCowBytes() {
RNS::Bytes bytes1("1");
assert(bytes1.size() == 1);
assert(memcmp(bytes1.data(), "1", bytes1.size()) == 0);
RNS::Bytes bytes2(bytes1);
assert(bytes2.size() == 1);
assert(memcmp(bytes2.data(), "1", bytes2.size()) == 0);
assert(bytes2.data() == bytes1.data());
RNS::Bytes bytes3(bytes2);
assert(bytes3.size() == 1);
assert(memcmp(bytes3.data(), "1", bytes3.size()) == 0);
assert(bytes3.data() == bytes2.data());
//RNS::log("pre bytes1 ptr: " + std::to_string((uint32_t)bytes1.data()) + " data: " + bytes1.toString());
//RNS::log("pre bytes2 ptr: " + std::to_string((uint32_t)bytes2.data()) + " data: " + bytes2.toString());
//RNS::log("pre bytes3 ptr: " + std::to_string((uint32_t)bytes3.data()) + " data: " + bytes3.toString());
//bytes1.append("mississippi");
//assert(bytes1.size() == 12);
//assert(memcmp(bytes1.data(), "1mississippi", bytes1.size()) == 0);
//assert(bytes1.data() != bytes2.data());
bytes2.append("mississippi");
assert(bytes2.size() == 12);
assert(memcmp(bytes2.data(), "1mississippi", bytes2.size()) == 0);
assert(bytes2.data() != bytes1.data());
bytes3.assign("mississippi");
assert(bytes3.size() == 11);
assert(memcmp(bytes3.data(), "mississippi", bytes3.size()) == 0);
assert(bytes3.data() != bytes2.data());
//RNS::log("post bytes1 ptr: " + std::to_string((uint32_t)bytes1.data()) + " data: " + bytes1.toString());
//RNS::log("post bytes2 ptr: " + std::to_string((uint32_t)bytes2.data()) + " data: " + bytes2.toString());
//RNS::log("post bytes3 ptr: " + std::to_string((uint32_t)bytes3.data()) + " data: " + bytes3.toString());
}
void testObjects() {
RNS::Reticulum reticulum_default;
assert(reticulum_default);
RNS::Reticulum reticulum_none(RNS::Reticulum::NONE);
assert(!reticulum_none);
RNS::Reticulum reticulum_default_copy(reticulum_default);
assert(reticulum_default_copy);
RNS::Reticulum reticulum_none_copy(reticulum_none);
assert(!reticulum_none_copy);
}
void testBytesConversion() {
{
RNS::Bytes bytes("Hello World");
std::string hex = bytes.toHex();
RNS::extreme("text: \"" + bytes.toString() + "\" upper hex: \"" + hex + "\"");
assert(hex.length() == 22);
assert(hex.compare("48656C6C6F20576F726C64") == 0);
}
{
RNS::Bytes bytes("Hello World");
std::string hex = bytes.toHex(false);
RNS::extreme("text: \"" + bytes.toString() + "\" lower hex: \"" + hex + "\"");
assert(hex.length() == 22);
assert(hex.compare("48656c6c6f20576f726c64") == 0);
}
{
std::string hex("48656C6C6F20576F726C64");
RNS::Bytes bytes;
bytes.assignHex(hex.c_str());
std::string text = bytes.toString();
RNS::extreme("hex: \"" + hex + "\" text: \"" + text + "\"");
assert(text.length() == 11);
assert(text.compare("Hello World") == 0);
}
{
std::string hex("48656c6c6f20576f726c64");
RNS::Bytes bytes;
bytes.assignHex(hex.c_str());
std::string text = bytes.toString();
RNS::extreme("hex: \"" + hex + "\" text: \"" + text + "\"");
assert(text.length() == 11);
assert(text.compare("Hello World") == 0);
bytes.assignHex(hex.c_str());
text = bytes.toString();
RNS::extreme("hex: \"" + hex + "\" text: \"" + text + "\"");
assert(text.length() == 11);
assert(text.compare("Hello World") == 0);
bytes.appendHex(hex.c_str());
text = bytes.toString();
RNS::extreme("hex: \"" + hex + "\" text: \"" + text + "\"");
assert(text.length() == 22);
assert(text.compare("Hello WorldHello World") == 0);
}
}
/*
void announceLoop(RNS::Destination &destination_1, RNS::Destination &destination_2) {
// Let the user know that everything is ready
RNS::log("Announce example running, hit enter to manually send an announce (Ctrl-C to quit)");
// We enter a loop that runs until the users exits.
// If the user hits enter, we will announce our server
// destination on the network, which will let clients
// know how to create messages directed towards it.
//while (true) {
//zentered = input();
RNS::log("Sending announce...");
// Randomly select a fruit
//const char* fruit = fruits[rand() % sizeof(fruits)];
const char* fruit = fruits[rand() % 7];
//RNS::log(fruit);
RNS::log(std::string("fruit: ") + fruit);
// Send the announce including the app data
if (destination_1) {
//destination_1.announce(RNS::bytesFromString(fruit));
// CBA TEST path
destination_1.announce(RNS::bytesFromString(fruit), true, nullptr, RNS::bytesFromString("test_tag"));
//zRNS::log(std::string("Sent announce from ") + RNS::prettyhexrep(destination_1->_hash) +" ("+ (const char*)destination_1->_name + ")");
}
// Randomly select a noble gas
//const char* noble_gas = noble_gases[rand() % sizeof(noble_gas)];
const char* noble_gas = noble_gases[rand() % 7];
//RNS::log(noble_gas);
RNS::log(std::string("noble_gas: ") + noble_gas);
// Send the announce including the app data
if (destination_2) {
destination_2.announce(RNS::bytesFromString(noble_gas));
//zRNS::log(std::string("Sent announce from ") + RNS::prettyhexrep(destination_2->_hash) + " (" + destination_2->_name + ")");
}
#ifndef NATIVE
delay(1000);
#else
usleep(1000000);
#endif
//}
}
// This initialisation is executed when the program is started
void program_setup() {
// We must first initialise Reticulum
RNS::Reticulum reticulum;
// Randomly create a new identity for our example
RNS::Identity identity;
// Using the identity we just created, we create two destinations
// in the "example_utilities.announcesample" application space.
//
// Destinations are endpoints in Reticulum, that can be addressed
// and communicated with. Destinations can also announce their
// existence, which will let the network know they are reachable
// and autoomatically create paths to them, from anywhere else
// in the network.
RNS::Destination destination_1(identity, RNS::Destination::IN, RNS::Destination::SINGLE, APP_NAME, "announcesample.fruits");
// CBA TEST no identity
//RNS::Destination destination_1(RNS::Identity::NONE, RNS::Destination::IN, RNS::Destination::SINGLE, APP_NAME, "announcesample.fruits");
//RNS::Destination *destination_2(identity, RNS::Destination::IN, RNS::Destination::SINGLE, APP_NAME, "announcesample.noble_gases");
RNS::Destination destination_2(RNS::Destination::NONE);
// We configure the destinations to automatically prove all
// packets adressed to it. By doing this, RNS will automatically
// generate a proof for each incoming packet and transmit it
// back to the sender of that packet. This will let anyone that
// tries to communicate with the destination know whether their
// communication was received correctly.
//zdestination_1->set_proof_strategy(RNS::Destination::PROVE_ALL);
//zdestination_2->set_proof_strategy(RNS::Destination::PROVE_ALL);
// We create an announce handler and configure it to only ask for
// announces from "example_utilities.announcesample.fruits".
// Try changing the filter and see what happens.
//zannounce_handler = ExampleAnnounceHandler(
//z aspect_filter="example_utilities.announcesample.fruits";
//z)
// We register the announce handler with Reticulum
//zRNS::Transport.register_announce_handler(announce_handler);
// Everything's ready!
// Let's hand over control to the announce loop
announceLoop(destination_1, destination_2);
}
*/
#ifndef NATIVE
void setup() { void setup() {
#ifndef NATIVE
Serial.begin(115200); Serial.begin(115200);
Serial.print("Hello from T-Beam on PlatformIO!\n"); Serial.print("Hello from T-Beam on PlatformIO!\n");
#endif
#ifndef NDEBUG
//RNS::loglevel(RNS::LOG_WARNING);
RNS::loglevel(RNS::LOG_EXTREME);
//test();
testCrypto();
return;
#endif
//std::stringstream test; //std::stringstream test;
// !!! just adding this single stringstream alone (not even using it) adds a whopping 17.1% !!! // !!! just adding this single stringstream alone (not even using it) adds a whopping 17.1% !!!
@ -415,42 +66,35 @@ void setup() {
RNS::Destination destination(identity, RNS::Destination::IN, RNS::Destination::SINGLE, "test", "context"); RNS::Destination destination(identity, RNS::Destination::IN, RNS::Destination::SINGLE, "test", "context");
// 23.0% (+0.4%) // 23.0% (+0.4%)
destination.announce(RNS::bytesFromString("fruit"), true, nullptr, RNS::bytesFromString("test_tag")); //destination.announce(RNS::bytesFromString(fruits[rand() % 7]));
// test path
destination.announce(RNS::bytesFromString(fruits[rand() % 7]), true, nullptr, RNS::bytesFromString("test_tag"));
// 23.9% (+0.8%) // 23.9% (+0.8%)
#ifndef NDEBUG //zdestination.set_proof_strategy(RNS::Destination::PROVE_ALL);
// begin with logging turned down for unit tests
RNS::loglevel(RNS::LOG_WARNING);
//RNS::loglevel(RNS::LOG_EXTREME);
testMap(); //zannounce_handler = ExampleAnnounceHandler(
testBytes(); //z aspect_filter="example_utilities.announcesample.fruits";
testCowBytes(); //z)
testObjects();
testBytesConversion();
// 24.8% (+0.9%) //zRNS::Transport.register_announce_handler(announce_handler);
#endif
// increase logging for functional tests
RNS::loglevel(RNS::LOG_EXTREME);
//program_setup();
#ifndef NATIVE
Serial.print("Goodbye from T-Beam on PlatformIO!\n"); Serial.print("Goodbye from T-Beam on PlatformIO!\n");
#endif
} }
void loop() { void loop() {
} }
#else int main(void) {
int main(int argc, char **argv) {
printf("Hello from Native on PlatformIO!\n"); printf("Hello from Native on PlatformIO!\n");
program_setup(); setup();
//while (true) {
// loop();
//}
printf("Goodbye from Native on PlatformIO!\n"); printf("Goodbye from Native on PlatformIO!\n");
} }
#endif

View File

@ -1,157 +0,0 @@
#include "Reticulum.h"
#include "Identity.h"
#include "Destination.h"
#ifndef NATIVE
#include <Arduino.h>
#endif
#include <stdlib.h>
#include <unistd.h>
#include <unity.h>
// Let's define an app name. We'll use this for all
// destinations we create. Since this basic example
// is part of a range of example utilities, we'll put
// them all within the app namespace "example_utilities"
const char* APP_NAME = "example_utilities";
// We initialise two lists of strings to use as app_data
const char* fruits[] = {"Peach", "Quince", "Date", "Tangerine", "Pomelo", "Carambola", "Grape"};
const char* noble_gases[] = {"Helium", "Neon", "Argon", "Krypton", "Xenon", "Radon", "Oganesson"};
void announceLoop(RNS::Destination* destination_1, RNS::Destination* destination_2) {
// Let the user know that everything is ready
RNS::log("Announce example running, hit enter to manually send an announce (Ctrl-C to quit)");
// We enter a loop that runs until the users exits.
// If the user hits enter, we will announce our server
// destination on the network, which will let clients
// know how to create messages directed towards it.
while (true) {
//zentered = input();
#ifndef NATIVE
delay(1000);
#else
usleep(1000);
#endif
RNS::log("Sending announce...");
// Randomly select a fruit
//const char* fruit = fruits[rand() % sizeof(fruits)];
const char* fruit = fruits[rand() % 7];
RNS::log(fruit);
//RNS::log(String("fruit: ") + fruit);
// Send the announce including the app data
/*
destination_1->announce(app_data=fruit.encode("utf-8"));
RNS::log(
"Sent announce from "+
RNS.prettyhexrep(destination_1.hash)+
" ("+destination_1.name+")"
);
*/
// Randomly select a noble gas
//const char* noble_gas = noble_gases[rand() % sizeof(noble_gas)];
const char* noble_gas = noble_gases[rand() % 7];
RNS::log(noble_gas);
//RNS::log(String("noble_gas: ") + noble_gas);
// Send the announce including the app data
/*
destination_2->announce(app_data=noble_gas.encode("utf-8"));
RNS::log(
"Sent announce from "+
RNS.prettyhexrep(destination_2.hash)+
" ("+destination_2.name+")"
);
*/
}
}
// This initialisation is executed when the program is started
void program_setup() {
// We must first initialise Reticulum
RNS::Reticulum* reticulum = new RNS::Reticulum();
// Randomly create a new identity for our example
RNS::Identity* identity = new RNS::Identity();
// Using the identity we just created, we create two destinations
// in the "example_utilities.announcesample" application space.
//
// Destinations are endpoints in Reticulum, that can be addressed
// and communicated with. Destinations can also announce their
// existence, which will let the network know they are reachable
// and autoomatically create paths to them, from anywhere else
// in the network.
RNS::Destination* destination_1 = new RNS::Destination(
identity,
RNS::Destination::IN,
RNS::Destination::SINGLE,
APP_NAME,
//z"announcesample",
//z"fruits"
nullptr
);
RNS::Destination* destination_2 = new RNS::Destination(
identity,
RNS::Destination::IN,
RNS::Destination::SINGLE,
APP_NAME,
//z"announcesample",
//z"noble_gases"
nullptr
);
// We configure the destinations to automatically prove all
// packets adressed to it. By doing this, RNS will automatically
// generate a proof for each incoming packet and transmit it
// back to the sender of that packet. This will let anyone that
// tries to communicate with the destination know whether their
// communication was received correctly.
//zdestination_1->set_proof_strategy(RNS::Destination::PROVE_ALL);
//zdestination_2->set_proof_strategy(RNS::Destination::PROVE_ALL);
// We create an announce handler and configure it to only ask for
// announces from "example_utilities.announcesample.fruits".
// Try changing the filter and see what happens.
//zannounce_handler = ExampleAnnounceHandler(
//z aspect_filter="example_utilities.announcesample.fruits";
//z)
// We register the announce handler with Reticulum
//zRNS::Transport.register_announce_handler(announce_handler);
// Everything's ready!
// Let's hand over control to the announce loop
announceLoop(destination_1, destination_2);
}
#ifndef NATIVE
void setup() {
Serial.begin(115200);
RNS::log("Hello T-Beam from PlatformIO!");
program_setup();
}
void loop() {
}
#else
int main(int argc, char **argv) {
RNS::log("Hello Native from PlatformIO!");
UNITY_BEGIN();
RUN_TEST(program_setup);
UNITY_END();
}
#endif