8 Commits

Author SHA1 Message Date
87c9d921d4 startiing to clean up c api 2025-04-30 17:04:32 -04:00
f212454dfb Big changes to the C api implementations
Should map directly to the zig struct instead of mallocing
2025-04-27 18:03:06 -04:00
983544facf Add C to Zig converter
Further simplify struct
2025-04-27 18:03:06 -04:00
67818ed9d6 Make C struct match the binary API more closely
Also make the internal conversion function return errors properly
2025-04-27 18:03:06 -04:00
d459dd60ef Convert from Zig struct to C struct 2025-04-27 18:03:06 -04:00
ce21b94a43 use InstallHeader function to install the header 2025-04-27 18:03:06 -04:00
c0e466b28a successfully build c interface 2025-04-27 18:03:06 -04:00
ee6062334b Initial C api 2025-04-27 18:03:06 -04:00
9 changed files with 234 additions and 240 deletions

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@@ -1,4 +1,5 @@
const std = @import("std"); const std = @import("std");
const Step = std.Build.Step;
// Although this function looks imperative, note that its job is to // Although this function looks imperative, note that its job is to
// declaratively construct a build graph that will be executed by an external // declaratively construct a build graph that will be executed by an external
@@ -33,18 +34,33 @@ pub fn build(b: *std.Build) void {
}); });
lib_mod.addImport("network", b.dependency("network", .{}).module("network")); lib_mod.addImport("network", b.dependency("network", .{}).module("network"));
lib_mod.addImport("gatorcat", b.dependency("gatorcat", .{}).module("gatorcat"));
exe_mod.addImport("zaprus", lib_mod); exe_mod.addImport("zaprus", lib_mod);
exe_mod.addImport("clap", b.dependency("clap", .{}).module("clap")); exe_mod.addImport("clap", b.dependency("clap", .{}).module("clap"));
const lib = b.addLibrary(.{ const static_lib = b.addLibrary(.{
.linkage = .static, .linkage = .static,
.name = "zaprus", .name = "zaprus",
.root_module = lib_mod, .root_module = lib_mod,
}); });
static_lib.addIncludePath(.{ .cwd_relative = "include" });
static_lib.linkLibC();
b.installArtifact(lib); b.installArtifact(static_lib);
const dynamic_lib = b.addLibrary(.{
.linkage = .dynamic,
.name = "zaprus",
.root_module = lib_mod,
});
dynamic_lib.addIncludePath(.{ .cwd_relative = "include" });
dynamic_lib.linkLibC();
b.installArtifact(dynamic_lib);
// C Headers
const c_header = b.addInstallHeaderFile(b.path("include/zaprus.h"), "zaprus.h");
b.getInstallStep().dependOn(&c_header.step);
// This creates another `std.Build.Step.Compile`, but this one builds an executable // This creates another `std.Build.Step.Compile`, but this one builds an executable
// rather than a static library. // rather than a static library.

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@@ -44,10 +44,6 @@
.url = "git+https://github.com/Hejsil/zig-clap?ref=0.10.0#e47028deaefc2fb396d3d9e9f7bd776ae0b2a43a", .url = "git+https://github.com/Hejsil/zig-clap?ref=0.10.0#e47028deaefc2fb396d3d9e9f7bd776ae0b2a43a",
.hash = "clap-0.10.0-oBajB434AQBDh-Ei3YtoKIRxZacVPF1iSwp3IX_ZB8f0", .hash = "clap-0.10.0-oBajB434AQBDh-Ei3YtoKIRxZacVPF1iSwp3IX_ZB8f0",
}, },
.gatorcat = .{
.url = "git+https://github.com/kj4tmp/gatorcat#bb1847f6c95852e7a0ec8c07870a948c171d5f98",
.hash = "gatorcat-0.3.2-WcrpTf1mBwDrmPaIhKCfLJO064v8Sjjn7DBq4CKZSgHH",
},
}, },
.paths = .{ .paths = .{
"build.zig", "build.zig",

15
include/zaprus.h Normal file
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@@ -0,0 +1,15 @@
// client
#include<stdint.h>
#include<stdlib.h>
int zaprus_init(void);
int zaprus_deinit(void);
int zaprus_send_relay(const char* payload, size_t len, char dest[4]);
int zaprus_send_initial_connection(const char* payload, size_t len, uint16_t initial_port);
void* zaprus_connect(const char* payload, size_t len);

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@@ -1,6 +1,3 @@
const base64Enc = std.base64.Base64Encoder.init(std.base64.standard_alphabet_chars, '=');
const base64Dec = std.base64.Base64Decoder.init(std.base64.standard_alphabet_chars, '=');
var rand: ?Random = null; var rand: ?Random = null;
pub fn init() !void { pub fn init() !void {
@@ -17,14 +14,9 @@ pub fn deinit() void {
network.deinit(); network.deinit();
} }
fn broadcastSaprusMessage(msg: *SaprusMessage, udp_port: u16) !void { fn broadcastSaprusMessage(msg: SaprusMessage, udp_port: u16, allocator: Allocator) !void {
if (false) { const msg_bytes = try msg.toBytes(allocator);
var foo: gcat.nic.RawSocket = try .init("enp7s0"); // /proc/net/dev defer allocator.free(msg_bytes);
defer foo.deinit();
}
const msg_bytes = msg.asBytes();
try msg.networkFromNativeEndian();
defer msg.nativeFromNetworkEndian() catch unreachable;
var sock = try network.Socket.create(.ipv4, .udp); var sock = try network.Socket.create(.ipv4, .udp);
defer sock.close(); defer sock.close();
@@ -48,22 +40,14 @@ fn broadcastSaprusMessage(msg: *SaprusMessage, udp_port: u16) !void {
} }
pub fn sendRelay(payload: []const u8, dest: [4]u8, allocator: Allocator) !void { pub fn sendRelay(payload: []const u8, dest: [4]u8, allocator: Allocator) !void {
const msg_bytes = try allocator.alignedAlloc( const msg = SaprusMessage{
u8, .relay = .{
@alignOf(SaprusMessage), .header = .{ .dest = dest },
try SaprusMessage.lengthForPayloadLength( .payload = payload,
.relay, },
base64Enc.calcSize(payload.len), };
),
);
defer allocator.free(msg_bytes);
const msg: *SaprusMessage = .init(.relay, msg_bytes);
const relay = (try msg.getSaprusTypePayload()).relay; try broadcastSaprusMessage(msg, 8888, allocator);
relay.dest = dest;
_ = base64Enc.encode(relay.getPayload(), payload);
try broadcastSaprusMessage(msg, 8888);
} }
fn randomPort() u16 { fn randomPort() u16 {
@@ -75,36 +59,31 @@ fn randomPort() u16 {
return p; return p;
} }
pub fn sendInitialConnection(payload: []const u8, initial_port: u16, allocator: Allocator) !*SaprusMessage { pub fn sendInitialConnection(payload: []const u8, initial_port: u16, allocator: Allocator) !SaprusMessage {
const dest_port = randomPort(); const dest_port = randomPort();
const msg_bytes = try allocator.alignedAlloc( const msg = SaprusMessage{
u8, .connection = .{
@alignOf(SaprusMessage), .header = .{
try SaprusMessage.lengthForPayloadLength( .src_port = initial_port,
.connection, .dest_port = dest_port,
base64Enc.calcSize(payload.len), },
), .payload = payload,
); },
};
const msg: *SaprusMessage = .init(.connection, msg_bytes); try broadcastSaprusMessage(msg, 8888, allocator);
const connection = (try msg.getSaprusTypePayload()).connection;
connection.src_port = initial_port;
connection.dest_port = dest_port;
_ = base64Enc.encode(connection.getPayload(), payload);
try broadcastSaprusMessage(msg, 8888);
return msg; return msg;
} }
pub fn connect(payload: []const u8, allocator: Allocator) !?SaprusConnection { pub fn connect(payload: []const u8, allocator: Allocator) !SaprusMessage {
var initial_port: u16 = 0; var initial_port: u16 = 0;
if (rand) |r| { if (rand) |r| {
initial_port = r.intRangeAtMost(u16, 1024, 65000); initial_port = r.intRangeAtMost(u16, 1024, 65000);
} else unreachable; } else unreachable;
var initial_conn_res: ?*SaprusMessage = null; var initial_conn_res: ?SaprusMessage = null;
errdefer if (initial_conn_res) |c| c.deinit(allocator);
var sock = try network.Socket.create(.ipv4, .udp); var sock = try network.Socket.create(.ipv4, .udp);
defer sock.close(); defer sock.close();
@@ -120,26 +99,20 @@ pub fn connect(payload: []const u8, allocator: Allocator) !?SaprusConnection {
try sock.bind(bind_addr); try sock.bind(bind_addr);
const msg = try sendInitialConnection(payload, initial_port, allocator); const msg = try sendInitialConnection(payload, initial_port, allocator);
defer allocator.free(msg.asBytes());
var response_buf: [4096]u8 align(@alignOf(SaprusMessage)) = undefined; var response_buf: [4096]u8 = undefined;
_ = try sock.receive(&response_buf); // Ignore message that I sent. _ = try sock.receive(&response_buf); // Ignore message that I sent.
const len = try sock.receive(&response_buf); const len = try sock.receive(&response_buf);
std.debug.print("response bytes: {x}\n", .{response_buf[0..len]}); initial_conn_res = try SaprusMessage.fromBytes(response_buf[0..len], allocator);
initial_conn_res = SaprusMessage.init(.connection, response_buf[0..len]);
// Complete handshake after awaiting response // Complete handshake after awaiting response
try broadcastSaprusMessage(msg, randomPort()); try broadcastSaprusMessage(msg, randomPort(), allocator);
if (false) {
return initial_conn_res.?; return initial_conn_res.?;
}
return null;
} }
const SaprusMessage = @import("message.zig").Message; const SaprusMessage = @import("message.zig").Message;
const SaprusConnection = @import("Connection.zig");
const std = @import("std"); const std = @import("std");
const Random = std.Random; const Random = std.Random;
@@ -147,6 +120,5 @@ const posix = std.posix;
const mem = std.mem; const mem = std.mem;
const network = @import("network"); const network = @import("network");
const gcat = @import("gatorcat");
const Allocator = mem.Allocator; const Allocator = mem.Allocator;

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32
src/c_api.zig Normal file
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@@ -0,0 +1,32 @@
// client
export fn zaprus_init() c_int {
SaprusClient.init() catch return 1;
return 0;
}
export fn zaprus_deinit() c_int {
SaprusClient.deinit();
return 0;
}
export fn zaprus_send_relay(payload: [*]const u8, len: usize, dest: [*]u8) c_int {
SaprusClient.sendRelay(payload[0..len], dest[0..4].*, allocator) catch return 1;
return 0;
}
export fn zaprus_connect(payload: [*]const u8, len: usize, output: *SaprusConnection) c_int {
output.* = (SaprusClient.connect(payload[0..len], allocator) catch return 1).?;
return 0;
}
const std = @import("std");
const zaprus = @import("./root.zig");
const SaprusClient = zaprus.Client;
const SaprusConnection = zaprus.Connection;
const allocator = std.heap.c_allocator;
test {
std.testing.refAllDeclsRecursively(@This());
}

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@@ -50,7 +50,7 @@ pub fn main() !void {
} }
if (res.args.relay) |r| { if (res.args.relay) |r| {
const dest = parseDest(res.args.dest); const dest = parseDest(res.args.dest) catch .{ 70, 70, 70, 70 };
try SaprusClient.sendRelay( try SaprusClient.sendRelay(
if (r.len > 0) r else "Hello darkness my old friend", if (r.len > 0) r else "Hello darkness my old friend",
dest, dest,
@@ -59,10 +59,16 @@ pub fn main() !void {
// std.debug.print("Sent: {s}\n", .{r}); // std.debug.print("Sent: {s}\n", .{r});
return; return;
} else if (res.args.connect) |c| { } else if (res.args.connect) |c| {
_ = SaprusClient.connect(if (c.len > 0) c else "Hello darkness my old friend", gpa) catch |err| switch (err) { const conn_res: ?SaprusMessage = SaprusClient.connect(if (c.len > 0) c else "Hello darkness my old friend", gpa) catch |err| switch (err) {
error.WouldBlock => null, error.WouldBlock => null,
else => return err, else => return err,
}; };
defer if (conn_res) |r| r.deinit(gpa);
if (conn_res) |r| {
std.debug.print("{s}\n", .{r.connection.payload});
} else {
std.debug.print("No response from connection request\n", .{});
}
return; return;
} }
@@ -80,7 +86,7 @@ fn parseDest(in: ?[]const u8) [4]u8 {
const addr = std.net.Ip4Address.parse(dest, 0) catch return "FAIL".*; const addr = std.net.Ip4Address.parse(dest, 0) catch return "FAIL".*;
return @bitCast(addr.sa.addr); return @bitCast(addr.sa.addr);
} }
return "zap\x00".*; return "zap".*;
} }
const builtin = @import("builtin"); const builtin = @import("builtin");

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@@ -1,3 +1,6 @@
const base64Enc = std.base64.Base64Encoder.init(std.base64.standard_alphabet_chars, '=');
const base64Dec = std.base64.Base64Decoder.init(std.base64.standard_alphabet_chars, '=');
/// Type tag for Message union. /// Type tag for Message union.
/// This is the first value in the actual packet sent over the network. /// This is the first value in the actual packet sent over the network.
pub const PacketType = enum(u16) { pub const PacketType = enum(u16) {
@@ -20,195 +23,153 @@ pub const ConnectionOptions = packed struct(u8) {
opt8: bool = false, opt8: bool = false,
}; };
pub const MessageTypeError = error{ pub const Error = error{
NotImplementedSaprusType, NotImplementedSaprusType,
UnknownSaprusType, UnknownSaprusType,
}; };
pub const MessageParseError = MessageTypeError || error{
InvalidMessage,
};
// ZERO COPY STUFF
// &payload could be a void value that is treated as a pointer to a [*]u8
/// All Saprus messages /// All Saprus messages
pub const Message = packed struct { pub const Message = union(PacketType) {
const Relay = packed struct { pub const Relay = struct {
pub const Header = packed struct {
dest: @Vector(4, u8), dest: @Vector(4, u8),
payload: void,
pub fn getPayload(self: *align(1) Relay) []u8 {
const len: *u16 = @ptrFromInt(@intFromPtr(self) - @sizeOf(u16));
return @as([*]u8, @ptrCast(&self.payload))[0 .. len.* - @sizeOf(Relay)];
}
}; };
const Connection = packed struct { header: Header,
payload: []const u8,
};
pub const Connection = struct {
pub const Header = packed struct {
src_port: u16, // random number > 1024 src_port: u16, // random number > 1024
dest_port: u16, // random number > 1024 dest_port: u16, // random number > 1024
seq_num: u32 = 0, seq_num: u32 = 0,
msg_id: u32 = 0, msg_id: u32 = 0,
reserved: u8 = 0, reserved: u8 = 0,
options: ConnectionOptions = .{}, options: ConnectionOptions = .{},
payload: void,
pub fn getPayload(self: *align(1) Connection) []u8 {
const len: *u16 = @ptrFromInt(@intFromPtr(self) - @sizeOf(u16));
return @as([*]u8, @ptrCast(&self.payload))[0 .. len.* - @sizeOf(Connection)];
}
fn nativeFromNetworkEndian(self: *align(1) Connection) void {
self.src_port = bigToNative(@TypeOf(self.src_port), self.src_port);
self.dest_port = bigToNative(@TypeOf(self.dest_port), self.dest_port);
self.seq_num = bigToNative(@TypeOf(self.seq_num), self.seq_num);
self.msg_id = bigToNative(@TypeOf(self.msg_id), self.msg_id);
}
fn networkFromNativeEndian(self: *align(1) Connection) void {
self.src_port = nativeToBig(@TypeOf(self.src_port), self.src_port);
self.dest_port = nativeToBig(@TypeOf(self.dest_port), self.dest_port);
self.seq_num = nativeToBig(@TypeOf(self.seq_num), self.seq_num);
self.msg_id = nativeToBig(@TypeOf(self.msg_id), self.msg_id);
}
}; };
header: Header,
const Self = @This(); payload: []const u8,
const SelfBytes = []align(@alignOf(Self)) u8;
type: PacketType,
length: u16,
bytes: void = {},
/// Takes a byte slice, and returns a Message struct backed by the slice.
/// This properly initializes the top level headers within the slice.
pub fn init(@"type": PacketType, bytes: []align(@alignOf(Self)) u8) *Self {
std.debug.assert(bytes.len >= @sizeOf(Self));
const res: *Self = @ptrCast(bytes.ptr);
res.type = @"type";
res.length = @intCast(bytes.len - @sizeOf(Self));
return res;
}
pub fn lengthForPayloadLength(comptime @"type": PacketType, payload_len: usize) MessageTypeError!u16 {
std.debug.assert(payload_len < std.math.maxInt(u16));
const header_size = @sizeOf(switch (@"type") {
.relay => Relay,
.connection => Connection,
.file_transfer => return MessageTypeError.NotImplementedSaprusType,
else => return MessageTypeError.UnknownSaprusType,
});
return @intCast(payload_len + @sizeOf(Self) + header_size);
}
fn getRelay(self: *Self) *align(1) Relay {
return std.mem.bytesAsValue(Relay, &self.bytes);
}
fn getConnection(self: *Self) *align(1) Connection {
return std.mem.bytesAsValue(Connection, &self.bytes);
}
pub fn getSaprusTypePayload(self: *Self) MessageTypeError!(union(PacketType) {
relay: *align(1) Relay,
file_transfer: void,
connection: *align(1) Connection,
}) {
return switch (self.type) {
.relay => .{ .relay = self.getRelay() },
.connection => .{ .connection = self.getConnection() },
.file_transfer => MessageTypeError.NotImplementedSaprusType,
else => MessageTypeError.UnknownSaprusType,
}; };
} relay: Relay,
file_transfer: void, // unimplemented
connection: Connection,
pub fn nativeFromNetworkEndian(self: *Self) MessageTypeError!void { /// Should be called for any Message that was declared using a function that you pass an allocator to.
self.type = @enumFromInt(bigToNative( pub fn deinit(self: Message, allocator: Allocator) void {
@typeInfo(@TypeOf(self.type)).@"enum".tag_type, switch (self) {
@intFromEnum(self.type), .relay => |r| allocator.free(r.payload),
)); .connection => |c| allocator.free(c.payload),
self.length = bigToNative(@TypeOf(self.length), self.length);
errdefer {
// If the payload specific headers fail, revert the top level header values
self.type = @enumFromInt(nativeToBig(
@typeInfo(@TypeOf(self.type)).@"enum".tag_type,
@intFromEnum(self.type),
));
self.length = nativeToBig(@TypeOf(self.length), self.length);
}
switch (try self.getSaprusTypePayload()) {
.relay => {},
.connection => |*con| con.*.nativeFromNetworkEndian(),
// We know other values are unreachable,
// because they would have returned an error from the switch condition.
else => unreachable, else => unreachable,
} }
} }
pub fn networkFromNativeEndian(self: *Self) MessageTypeError!void { fn toBytesAux(
try switch (try self.getSaprusTypePayload()) { header: anytype,
.relay => {}, payload: []const u8,
.connection => |*con| con.*.networkFromNativeEndian(), buf: *std.ArrayList(u8),
.file_transfer => MessageTypeError.NotImplementedSaprusType, allocator: Allocator,
else => MessageTypeError.UnknownSaprusType, ) !void {
}; const Header = @TypeOf(header);
self.type = @enumFromInt(nativeToBig( // Create a growable string to store the base64 bytes in.
@typeInfo(@TypeOf(self.type)).@"enum".tag_type, // Doing this first so I can use the length of the encoded bytes for the length field.
@intFromEnum(self.type), var payload_list = std.ArrayList(u8).init(allocator);
)); defer payload_list.deinit();
self.length = nativeToBig(@TypeOf(self.length), self.length); const buf_w = payload_list.writer();
// Write the payload bytes as base64 to the growable string.
try base64Enc.encodeWriter(buf_w, payload);
// At this point, payload_list contains the base64 encoded payload.
// Add the payload length to the output buf.
try buf.*.appendSlice(
asBytes(&nativeToBig(u16, @intCast(payload_list.items.len + @bitSizeOf(Header) / 8))),
);
// Add the header bytes to the output buf.
var header_buf: [@sizeOf(Header)]u8 = undefined;
var header_buf_stream = std.io.fixedBufferStream(&header_buf);
try header_buf_stream.writer().writeStructEndian(header, .big);
// Add the exact number of bits in the header without padding.
try buf.*.appendSlice(header_buf[0 .. @bitSizeOf(Header) / 8]);
try buf.*.appendSlice(payload_list.items);
} }
/// Deprecated. /// Caller is responsible for freeing the returned bytes.
/// If I need the bytes, I should just pass around the slice that is backing this to begin with. pub fn toBytes(self: Message, allocator: Allocator) ![]u8 {
pub fn asBytes(self: *Self) SelfBytes { // Create a growable list of bytes to store the output in.
const size = @sizeOf(Self) + self.length; var buf = std.ArrayList(u8).init(allocator);
return @as([*]align(@alignOf(Self)) u8, @ptrCast(self))[0..size]; errdefer buf.deinit();
// Start with writing the message type, which is the first 16 bits of every Saprus message.
try buf.appendSlice(asBytes(&nativeToBig(u16, @intFromEnum(self))));
// Write the proper header and payload for the given packet type.
switch (self) {
.relay => |r| try toBytesAux(r.header, r.payload, &buf, allocator),
.connection => |c| try toBytesAux(c.header, c.payload, &buf, allocator),
.file_transfer => return Error.NotImplementedSaprusType,
}
// Collect the growable list as a slice and return it.
return buf.toOwnedSlice();
}
fn fromBytesAux(
comptime packet: PacketType,
len: u16,
r: std.io.FixedBufferStream([]const u8).Reader,
allocator: Allocator,
) !Message {
const Header = @field(@FieldType(Message, @tagName(packet)), "Header");
// Read the header for the current message type.
var header_bytes: [@sizeOf(Header)]u8 = undefined;
_ = try r.read(header_bytes[0 .. @bitSizeOf(Header) / 8]);
var header_stream = std.io.fixedBufferStream(&header_bytes);
const header = try header_stream.reader().readStructEndian(Header, .big);
// Read the base64 bytes into a list to be able to call the decoder on it.
const payload_buf = try allocator.alloc(u8, len - @bitSizeOf(Header) / 8);
defer allocator.free(payload_buf);
_ = try r.readAll(payload_buf);
// Create a buffer to store the payload in, and decode the base64 bytes into the payload field.
const payload = try allocator.alloc(u8, try base64Dec.calcSizeForSlice(payload_buf));
try base64Dec.decode(payload, payload_buf);
// Return the type of Message specified by the `packet` argument.
return @unionInit(Message, @tagName(packet), .{
.header = header,
.payload = payload,
});
}
/// Caller is responsible for calling .deinit on the returned value.
pub fn fromBytes(bytes: []const u8, allocator: Allocator) !Message {
var s = std.io.fixedBufferStream(bytes);
const r = s.reader();
// Read packet type
const packet_type = @as(PacketType, @enumFromInt(try r.readInt(u16, .big)));
// Read the length of the header + base64 encoded payload.
const len = try r.readInt(u16, .big);
switch (packet_type) {
.relay => return fromBytesAux(.relay, len, r, allocator),
.connection => return fromBytesAux(.connection, len, r, allocator),
.file_transfer => return Error.NotImplementedSaprusType,
else => return Error.UnknownSaprusType,
}
} }
}; };
test "testing variable length zero copy struct" {
const gpa = std.testing.allocator;
const payload = "Hello darkness my old friend";
// Create a view of the byte slice as a Message
const msg: *Message = try .init(gpa, .relay, payload.len);
defer msg.deinit(gpa);
{
// Set the message values
{
// These are both set by the init call.
// msg.type = .relay;
// msg.length = payload_len;
}
const relay = (try msg.getSaprusTypePayload()).relay;
relay.dest = .{ 1, 2, 3, 4 };
@memcpy(relay.getPayload(), payload);
}
{
const bytes = msg.asBytes();
// Print the message as hex using the network byte order
try msg.networkFromNativeEndian();
// We know the error from nativeFromNetworkEndian is unreachable because
// it would have returned an error from networkFromNativeEndian.
defer msg.nativeFromNetworkEndian() catch unreachable;
std.debug.print("network bytes: {x}\n", .{bytes});
std.debug.print("bytes len: {d}\n", .{bytes.len});
}
if (false) {
// Illegal behavior
std.debug.print("{any}\n", .{(try msg.getSaprusTypePayload()).connection});
}
try std.testing.expectEqualDeep(msg, try Message.bytesAsValue(msg.asBytes()));
}
const std = @import("std"); const std = @import("std");
const Allocator = std.mem.Allocator; const Allocator = std.mem.Allocator;
const asBytes = std.mem.asBytes; const asBytes = std.mem.asBytes;
const nativeToBig = std.mem.nativeToBig; const nativeToBig = std.mem.nativeToBig;
const bigToNative = std.mem.bigToNative;
test "Round trip Relay toBytes and fromBytes" { test "Round trip Relay toBytes and fromBytes" {
const gpa = std.testing.allocator; const gpa = std.testing.allocator;
@@ -248,7 +209,3 @@ test "Round trip Connection toBytes and fromBytes" {
try std.testing.expectEqualDeep(msg, from_bytes); try std.testing.expectEqualDeep(msg, from_bytes);
} }
test {
std.testing.refAllDeclsRecursive(@This());
}

View File

@@ -1,4 +1,4 @@
pub const Client = @import("Client.zig"); pub const Client = @import("Client.zig");
pub const Connection = @import("Connection.zig");
pub usingnamespace @import("message.zig"); pub usingnamespace @import("message.zig");
pub usingnamespace @import("c_api.zig");