wirez can redirect all TCP/UDP traffic made by any given program (application, script, shell, etc.) to SOCKS5 proxy and block other IP traffic (ICMP, SCTP etc).
Compared with tsocks, proxychains or
proxychains-ng, wirez is not using the LD_PRELOAD hack
that only works for dynamically linked programs, e.g., applications built by Go can not be hooked by proxychains-ng.
Instead, wirez is based on the rootless container technology and the userspace network stack, that is much more robust and secure.
See how does it work for more details.
Also, wirez can act as a simple SOCKS5 load balancer server.
demo.mp4
wirez is a cross-platform application. However, run subcommand is available only on Linux.
From the root of the source tree, run:
go build
start bash shell and redirect all TCP and UDP traffic through socks5 proxy server that is listening on 127.0.0.1:1234 address:
wirez run -F 127.0.0.1:1234 bash
proxy a curl request to example.com:
wirez run -F 127.0.0.1:1234 -- curl example.com
By default, all UDP traffic is forwarded to SOCKS5 proxy using UDP ASSOCIATE request.
If SOCKS5 proxy doesn't support this method (like ssh and Tor) you can use local port forwarding option -L.
It specifies that connections to the target host and TCP/UDP port are to be directly forwarded to the given host and port.
For instance, forward all TCP traffic through proxy, but all UDP traffic directly to 1.1.1.1 DNS server:
wirez run -F 127.0.0.1:1234 -L 53:1.1.1.1:53/udp -- curl example.com
forward all TCP and UDP traffic through the proxy, but redirect TCP traffic targeted to 10.10.10.10:2345 directly to 127.0.0.1:4567:
wirez run -F 127.0.0.1:1234 -L 10.10.10.10:2345:127.0.0.1:4567/tcp bash
Create a plain text file with one socks5 proxy per line. For demonstration purposes, here is an example file proxies.txt:
10.1.1.1:1035
10.2.2.2:1037
Start wirez on the localhost on port 1080:
wirez server -f proxies.txt -l 127.0.0.1:1080
Now every socks5 request on 1080 port will be load balanced between socks5 proxies in the proxies.txt file. Enjoy!
wirez help
First of all, run command creates a new unix socket pair for parent/child process communication.
fds, err := unix.Socketpair(unix.AF_UNIX, unix.SOCK_STREAM, 0)
After that we start a new child process in a new Linux user namespace, see user_namespaces(7):
proc.SysProcAttr = &syscall.SysProcAttr{
Cloneflags: syscall.CLONE_NEWUTS | syscall.CLONE_NEWNET | syscall.CLONE_NEWUSER,
...
}
Inside the new namespace, the child process has root capabilities, so we open a new tun network device:
tunFd, err := tun.Open(tunDevice)
and send this tun file descriptor to the parent process using the unix socket pair:
rights := unix.UnixRights(fd)
return unix.Sendmsg(c.socketFd, nil, rights, nil, 0)
in the parent process we receive this tun file descriptor:
func (c *parentUnixSocketConn) ReceiveFd() (fd int, err error) {
// receive socket control message
b := make([]byte, unix.CmsgSpace(4))
if _, _, _, _, err = unix.Recvmsg(c.socketFd, nil, b, 0); err != nil {
return
}
// parse socket control message
cmsgs, err := unix.ParseSocketControlMessage(b)
if err != nil {
return 0, fmt.Errorf("parse socket control message: %w", err)
}
tunFds, err := unix.ParseUnixRights(&cmsgs[0])
if err != nil {
return 0, err
}
if len(tunFds) == 0 {
return 0, errors.New("tun fds slice is empty")
}
return tunFds[0], nil
}
and initialize a gVisor userspace network stack on top of it. Then in the child process we set up the tun device as default IP gateway and, finally, start a target process specified in cli args. That's it!
This project is licensed under the MIT License. See the LICENSE file for the full license text.
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