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Minor changes to selftest, updated TESTING readme, removed old test personality conf files

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This commit is contained in:
Joseph Henry
2017-07-13 10:53:19 -07:00
parent 494ec2508c
commit 43caf4a6f2
9 changed files with 220 additions and 266 deletions
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56
TESTING.md
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@@ -1,17 +1,61 @@
## Testing via [selftest.cpp](test/selftest.cpp) ## Testing via [selftest.cpp](test/selftest.cpp)
### Enabling debug output ### Step 1. Enabling debug output
- `SDK_DEBUG=1`: For debugging libzt - `make static_lib SDK_DEBUG=1`: For debugging libzt
- `ZT_DEBUG=1`: For debugging the ZeroTier core protocol - `make static_lib ZT_DEBUG=1`: For debugging the ZeroTier core protocol (you usually won't need this)
After building the static library, you can run: ### Step 2. Build the test programs:
- `make tests` - `make tests`
This will output `selftest` to `build/$PLATFORM/`. Using this, you can run the tests below. Note, the following examples assume your testing environment is `linux`, you'll see this in the build output path. If this is not true, change it to `darwin`, `freebsd`, or `win` depending on what you're running. This will output `selftest` and `echotest` to `build/$PLATFORM/`
*Note, the following examples assume your testing environment is `linux`, you'll see this in the build output path. If this is not true, change it to `darwin`, `freebsd`, or `win` depending on what you're running.*
### Step 3. Define your test configuration in `test/selftest.conf`:
This is essentially just a listing of libzt-based app identities and host machine identities. We will be conducting `library-to-remote-library`, `library-to-remote-host`, and `remote-host-to-library` tests over the network. For this reason we need to define who should be talking to who.
A simple test configutation might look like the following. This will create an `alice` and `bob` test personality, that is, we will run one instance of the library as a server (alice), and one instance of the `echotest` on the same host machine. `echotest` is merely a program to record timings for transmitted data and also generate data for the library to receive). Additionally we will be running a library as a client `bob` on another remote host as well as another instance of `echotest` on that same machine. In this configuration the following will happen:
- `alice` libzt will tx/rx to/from `bob` libzt
- `alice` libzt will send X bytes to `bob`'s `echotest` to test maximum TX rate
- `alice` libzt will request X bytes from `bob`'s `echotest` to test maximum RX rate
- `bob` libzt will send X bytes to `alice`'s `echotest` to test maximum TX rate
- `bob` libzt will request X bytes from `alice`'s `echotest` to test maximum RX rate
```
# Tests will use ports starting from 'port' to 'port+n' where 'n' is the number of tests
# Alice
name alice
mode server
nwid 17d7094b2c2c7319
test comprehensive
port 7000
path test/alice
ipv4 172.30.30.10
ipv6 fd12:d719:4b6c:6c53:f799:13c4:07e0:abb8
echo_ipv4 172.30.30.1
echo_ipv6 fd11:d759:136e:2b53:6791:9328:31ce:618a
;
# Bob
name bob
mode client
nwid 17d7094b2c2c7319
test comprehensive
port 7000
path test/bob
ipv4 172.30.30.20
ipv6 fd11:d759:136e:2b53:6791:9328:31ce:618a
echo_ipv4 172.30.30.2
echo_ipv6 fd12:d719:4b6c:6c53:f799:13c4:07e0:abb8
```
Simply add your `host-1` and `host-2` address, port, and network information to `test/alice.conf` and `test/bob.conf`, this way you can use the selftest shorthand shown below. The file contain examples of what you should do.
Build outputs are as follows: Build outputs are as follows:

34
include/libzt.h
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@@ -24,8 +24,8 @@
* of your own application. * of your own application.
*/ */
#ifndef ZT_ZEROTIERSDK_H #ifndef ZT_LIBZT_H
#define ZT_ZEROTIERSDK_H #define ZT_LIBZT_H
#include <sys/socket.h> #include <sys/socket.h>
@@ -34,23 +34,30 @@
/****************************************************************************/ /****************************************************************************/
#define ZT_SDK_MTU ZT_MAX_MTU #define ZT_SDK_MTU ZT_MAX_MTU
#define ZT_PHY_POLL_INTERVAL 10 // ms #define ZT_PHY_POLL_INTERVAL 2 // ms
#define ZT_ACCEPT_RECHECK_DELAY 100 // ms (for blocking zts_accept() calls) #define ZT_ACCEPT_RECHECK_DELAY 100 // ms (for blocking zts_accept() calls)
#define ZT_CONNECT_RECHECK_DELAY 100 // ms (for blocking zts_connect() calls) #define ZT_CONNECT_RECHECK_DELAY 100 // ms (for blocking zts_connect() calls)
#define ZT_API_CHECK_INTERVAL 100 // ms #define ZT_API_CHECK_INTERVAL 500 // ms
#define MAX_PICO_FRAME_RX_BUF_SZ ZT_MAX_MTU * 128 #define MAX_PICO_FRAME_RX_BUF_SZ ZT_MAX_MTU * 128
#define ZT_TCP_TX_BUF_SZ 1024 * 1024 * 5 #define ZT_TCP_TX_BUF_SZ 1024 * 1024 * 128
#define ZT_TCP_RX_BUF_SZ 1024 * 1024 * 5 #define ZT_TCP_RX_BUF_SZ 1024 * 1024 * 128
#define ZT_UDP_TX_BUF_SZ ZT_MAX_MTU #define ZT_UDP_TX_BUF_SZ ZT_MAX_MTU
#define ZT_UDP_RX_BUF_SZ ZT_MAX_MTU * 10 #define ZT_UDP_RX_BUF_SZ ZT_MAX_MTU * 10
#define ZT_STACK_TCP_SOCKET_TX_SZ 2048 // Send and Receive buffer sizes for the network stack
#define ZT_STACK_TCP_SOCKET_RX_SZ 2048 // By default picoTCP sets them to 16834, this is good for embedded-scale
// stuff but you might want to consider higher values for desktop and mobile
// applications.
#define ZT_STACK_TCP_SOCKET_TX_SZ ZT_TCP_TX_BUF_SZ
#define ZT_STACK_TCP_SOCKET_RX_SZ ZT_TCP_RX_BUF_SZ
#define ZT_STACK_SOCKET_RD_MAX 2048 // Maximum size we're allowed to read or write from a stack socket
#define ZT_STACK_SOCKET_WR_MAX 2048 // This is put in place because picoTCP seems to fail at higher values.
// If you use another stack you can probably bump this up a bit.
#define ZT_STACK_SOCKET_WR_MAX 4096
#define ZT_STACK_SOCKET_RD_MAX 4096*4
#define ZT_CORE_VERSION_MAJOR 1 #define ZT_CORE_VERSION_MAJOR 1
#define ZT_CORE_VERSION_MINOR 2 #define ZT_CORE_VERSION_MINOR 2
@@ -79,7 +86,7 @@
// a short period of time by default as a precaution. // a short period of time by default as a precaution.
#define ZT_SOCK_BEHAVIOR_LINGER true #define ZT_SOCK_BEHAVIOR_LINGER true
#define ZT_SOCK_BEHAVIOR_LINGER_TIME 10000 // ms #define ZT_SOCK_BEHAVIOR_LINGER_TIME 3 // s
// Wait time for socket closure if data is still present in the write queue // Wait time for socket closure if data is still present in the write queue
#define ZT_SDK_CLTIME 60 #define ZT_SDK_CLTIME 60
@@ -94,6 +101,9 @@
// Interval for performing cleanup tasks on Tap/Stack objects // Interval for performing cleanup tasks on Tap/Stack objects
#define ZT_HOUSEKEEPING_INTERVAL 10 // s #define ZT_HOUSEKEEPING_INTERVAL 10 // s
// Whether or not we want libzt to shit its pants
#define ZT_EXIT_ON_GENERAL_FAIL false
/****************************************************************************/ /****************************************************************************/
/* Socket API Signatures */ /* Socket API Signatures */
/****************************************************************************/ /****************************************************************************/
@@ -385,7 +395,7 @@ int zts_read(ZT_READ_SIG);
int zts_write(ZT_WRITE_SIG); int zts_write(ZT_WRITE_SIG);
/* /*
* Sends a FIN segment * Sends a FIN segment
*/ */
int zts_shutdown(ZT_SHUTDOWN_SIG); int zts_shutdown(ZT_SHUTDOWN_SIG);

8
src/libzt.cpp
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@@ -401,7 +401,6 @@ int zts_socket(ZT_SOCKET_SIG) {
int value = 1; int value = 1;
pico_socket_setoption(psock, PICO_TCP_NODELAY, &value); pico_socket_setoption(psock, PICO_TCP_NODELAY, &value);
if((t_err = pico_socket_setoption(psock, PICO_SOCKET_OPT_SNDBUF, &tx_buf_sz)) < 0) if((t_err = pico_socket_setoption(psock, PICO_SOCKET_OPT_SNDBUF, &tx_buf_sz)) < 0)
DEBUG_ERROR("unable to set SNDBUF size, err = %d, pico_err = %d", t_err, pico_err); DEBUG_ERROR("unable to set SNDBUF size, err = %d, pico_err = %d", t_err, pico_err);
if((t_err = pico_socket_setoption(psock, PICO_SOCKET_OPT_RCVBUF, &rx_buf_sz)) < 0) if((t_err = pico_socket_setoption(psock, PICO_SOCKET_OPT_RCVBUF, &rx_buf_sz)) < 0)
@@ -962,8 +961,6 @@ Linux / Darwin:
[ ] [EIO] A previously-uncommitted write(2) encountered an input/output error. [ ] [EIO] A previously-uncommitted write(2) encountered an input/output error.
*/ */
// FIXME: See pico_socket_setoption's LINGER functionality
int zts_close(ZT_CLOSE_SIG) int zts_close(ZT_CLOSE_SIG)
{ {
DEBUG_EXTRA("fd = %d", fd); DEBUG_EXTRA("fd = %d", fd);
@@ -1067,16 +1064,15 @@ int zts_close(ZT_CLOSE_SIG)
return err; return err;
} }
//#define ZT_POLL_SIG struct pollfd *fds, nfds_t nfds, int timeout
//#define ZT_SELECT_SIG int nfds, fd_set *readfds, fd_set *writefds, fd_set *exceptfds, struct timeval *timeout
int zts_poll(ZT_POLL_SIG) int zts_poll(ZT_POLL_SIG)
{ {
// struct pollfd *fds, nfds_t nfds, int timeout
return 0; return 0;
} }
int zts_select(ZT_SELECT_SIG) int zts_select(ZT_SELECT_SIG)
{ {
// int nfds, fd_set *readfds, fd_set *writefds, fd_set *exceptfds, struct timeval *timeout
return 0; return 0;
} }

4
src/picoTCP.hpp
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@@ -158,12 +158,12 @@ namespace ZeroTier
int pico_Close(Connection *conn); int pico_Close(Connection *conn);
/* /*
* Converts error code to pretty string * Converts picoTCP error codes to pretty string
*/ */
static char *beautify_pico_error(int err); static char *beautify_pico_error(int err);
/* /*
* * Converts picoTCP socket states into pretty string
*/ */
static char *beautify_pico_state(int state); static char *beautify_pico_state(int state);
}; };

15
test/alice.conf
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@@ -1,15 +0,0 @@
nwid e5cd7a9e1c0fd272
mode server
test comprehensive
local_path zt2
local_port 4444
local_port6 5555
local_ipv4 10.9.9.51
local_ipv6 fde5:cd7a:9e1c:0fd2:7299:93e1:b555:8c83
remote_path zt1
remote_port 4444
remote_port6 5555
remote_ipv4 10.9.9.50
remote_ipv6 fde5:cd7a:9e1c:fd2:7299:93c4:fe0:4bb8

8
test/alice.sh
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@@ -1,8 +0,0 @@
#!/bin/bash
OSTYPE=$(uname -s | tr '[A-Z]' '[a-z]')
./build/$OSTYPE/selftest test/alice.conf &
echo $! >> "test/selftest.alice"
./build/$OSTYPE/echotest test/alice.conf &
echo $! >> "test/echotest.alice"

15
test/bob.conf
View File

@@ -1,15 +0,0 @@
nwid e5cd7a9e1c0fd272
mode client
test comprehensive
local_path zt1
local_port 4444
local_port6 5555
local_ipv4 10.9.9.50
local_ipv6 fde5:cd7a:9e1c:fd2:7299:93c4:fe0:4bb8
remote_path zt2
remote_port 4444
remote_port6 5555
remote_ipv4 10.9.9.51
remote_ipv6 fde5:cd7a:9e1c:0fd2:7299:93e1:b555:8c83

8
test/bob.sh
View File

@@ -1,8 +0,0 @@
#!/bin/bash
OSTYPE=$(uname -s | tr '[A-Z]' '[a-z]')
./build/$OSTYPE/selftest test/bob.conf &
echo $! >> "test/selftest.bob"
./build/$OSTYPE/echotest test/bob.conf &
echo $! >> "test/selftest.bob"

338
test/selftest.cpp
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@@ -1124,37 +1124,6 @@ int random_api_test()
} }
/****************************************************************************/
/* test driver, called from main() */
/****************************************************************************/
/*
path = place where ZT keys, and config files will be stored
nwid = network for app to join
type = simple, sustained
ipv = 4, 6
mode = client, server
addr = ip address string
port = integer
operation = n_times, n_seconds, n_bytes, etc
count = number of operations of type
delay = delay between each operation
*/
int test_driver(std::string name, std::string path, std::string nwid,
int type,
int ipv,
int mode,
std::string ipstr,
int port,
int operation,
int count,
int delay,
std::vector<std::string> *results)
{
return 0;
}
/* /*
For each API call, test the following: For each API call, test the following:
- All possible combinations of plausible system-defined arguments - All possible combinations of plausible system-defined arguments
@@ -1334,7 +1303,6 @@ int main(int argc , char *argv[])
fprintf(stderr, "\tpath = %s\n", path.c_str()); fprintf(stderr, "\tpath = %s\n", path.c_str());
fprintf(stderr, "\tnwid = %s\n", nwid.c_str()); fprintf(stderr, "\tnwid = %s\n", nwid.c_str());
fprintf(stderr, "\ttype = %s\n\n", stype.c_str()); fprintf(stderr, "\ttype = %s\n\n", stype.c_str());
fprintf(stderr, "DESTINATION:\n\n"); fprintf(stderr, "DESTINATION:\n\n");
fprintf(stderr, "\tremote_ipstr = %s\n", remote_ipstr.c_str()); fprintf(stderr, "\tremote_ipstr = %s\n", remote_ipstr.c_str());
fprintf(stderr, "\tremote_ipstr6 = %s\n", remote_ipstr6.c_str()); fprintf(stderr, "\tremote_ipstr6 = %s\n", remote_ipstr6.c_str());
@@ -1351,200 +1319,182 @@ int main(int argc , char *argv[])
DEBUG_TEST("Ready. Contacting selftest program on first host.\n\n"); DEBUG_TEST("Ready. Contacting selftest program on first host.\n\n");
// What follows is a long-form of zts_simple_start(): // What follows is a long-form of zts_simple_start():
// zts_start(path.c_str()); /*
// printf("waiting for service to start...\n"); zts_start(path.c_str());
// while(!zts_running()) printf("waiting for service to start...\n");
// sleep(1); while(!zts_running())
// printf("joining network...\n"); sleep(1);
// zts_join(nwid.c_str()); printf("joining network...\n");
// printf("waiting for address assignment...\n"); zts_join(nwid.c_str());
// while(!zts_has_address(nwid.c_str())) printf("waiting for address assignment...\n");
// sleep(1); while(!zts_has_address(nwid.c_str()))
sleep(1);
// SLAM */
// Perform thsouands of repetitions of the same plausible API sequences to detect faults
if(stype == "slam")
{
slam_api_test();
return 0;
}
/****************************************************************************/ /****************************************************************************/
/* COMPREHENSIVE */ /* COMPREHENSIVE */
/****************************************************************************/ /****************************************************************************/
// More info can be found in TESTING.md int test_number = 0, ipv;
// test purpposefully bad arguments
//test_bad_args();
//exit(0);
int test_number = 0;
int ipv;
struct sockaddr addr; struct sockaddr addr;
char details[128]; char details[128];
memset(&details, 0, sizeof details); memset(&details, 0, sizeof details);
bool passed = 0; bool passed = 0;
// Tests ALL API calls port = start_port;
if(stype == "comprehensive") delay = 0;
{ count = 1024*128;
operation = TEST_OP_N_BYTES;
port = start_port;
delay = 0;
count = 1024*128;
operation = TEST_OP_N_BYTES;
// ipv4 client/server // ipv4 client/server
ipv = 4; ipv = 4;
if(mode == TEST_MODE_SERVER) { if(mode == TEST_MODE_SERVER) {
create_addr(local_ipstr, port, ipv, (struct sockaddr *)&addr); create_addr(local_ipstr, port, ipv, (struct sockaddr *)&addr);
tcp_server_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_server_4 tcp_server_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_server_4
} }
else if(mode == TEST_MODE_CLIENT) { else if(mode == TEST_MODE_CLIENT) {
sleep(WAIT_FOR_SERVER_TO_COME_ONLINE); sleep(WAIT_FOR_SERVER_TO_COME_ONLINE);
create_addr(remote_ipstr, port, ipv, (struct sockaddr *)&addr); create_addr(remote_ipstr, port, ipv, (struct sockaddr *)&addr);
tcp_client_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_client_4 tcp_client_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_client_4
} }
RECORD_RESULTS(&test_number, passed, details, &results); RECORD_RESULTS(&test_number, passed, details, &results);
mode = mode == TEST_MODE_SERVER ? TEST_MODE_CLIENT : TEST_MODE_SERVER; // switch roles mode = mode == TEST_MODE_SERVER ? TEST_MODE_CLIENT : TEST_MODE_SERVER; // switch roles
port++; // move up one port port++; // move up one port
if(mode == TEST_MODE_SERVER) { if(mode == TEST_MODE_SERVER) {
create_addr(local_ipstr, port, ipv, (struct sockaddr *)&addr); create_addr(local_ipstr, port, ipv, (struct sockaddr *)&addr);
tcp_server_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_server_4 tcp_server_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_server_4
} }
else if(mode == TEST_MODE_CLIENT) { else if(mode == TEST_MODE_CLIENT) {
sleep(WAIT_FOR_SERVER_TO_COME_ONLINE); sleep(WAIT_FOR_SERVER_TO_COME_ONLINE);
create_addr(remote_ipstr, port, ipv, (struct sockaddr *)&addr); create_addr(remote_ipstr, port, ipv, (struct sockaddr *)&addr);
tcp_client_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_client_4 tcp_client_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_client_4
} }
RECORD_RESULTS(&test_number, passed, details, &results); RECORD_RESULTS(&test_number, passed, details, &results);
port++; port++;
// ipv4 sustained transfer // ipv4 sustained transfer
ipv = 4; ipv = 4;
if(mode == TEST_MODE_SERVER) { if(mode == TEST_MODE_SERVER) {
create_addr(local_ipstr, port, ipv, (struct sockaddr *)&addr); create_addr(local_ipstr, port, ipv, (struct sockaddr *)&addr);
tcp_server_sustained_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_server_sustained_4 tcp_server_sustained_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_server_sustained_4
} }
else if(mode == TEST_MODE_CLIENT) { else if(mode == TEST_MODE_CLIENT) {
sleep(WAIT_FOR_SERVER_TO_COME_ONLINE); sleep(WAIT_FOR_SERVER_TO_COME_ONLINE);
create_addr(remote_ipstr, port, ipv, (struct sockaddr *)&addr); create_addr(remote_ipstr, port, ipv, (struct sockaddr *)&addr);
tcp_client_sustained_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_client_sustained_4 tcp_client_sustained_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_client_sustained_4
} }
RECORD_RESULTS(&test_number, passed, details, &results); // swtich roles RECORD_RESULTS(&test_number, passed, details, &results); // swtich roles
mode = mode == TEST_MODE_SERVER ? TEST_MODE_CLIENT : TEST_MODE_SERVER; // switch roles mode = mode == TEST_MODE_SERVER ? TEST_MODE_CLIENT : TEST_MODE_SERVER; // switch roles
port++; port++;
if(mode == TEST_MODE_SERVER) { if(mode == TEST_MODE_SERVER) {
create_addr(local_ipstr, port, ipv, (struct sockaddr *)&addr); create_addr(local_ipstr, port, ipv, (struct sockaddr *)&addr);
tcp_server_sustained_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_server_sustained_4 tcp_server_sustained_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_server_sustained_4
} }
else if(mode == TEST_MODE_CLIENT) { else if(mode == TEST_MODE_CLIENT) {
sleep(WAIT_FOR_SERVER_TO_COME_ONLINE); sleep(WAIT_FOR_SERVER_TO_COME_ONLINE);
create_addr(remote_ipstr, port, ipv, (struct sockaddr *)&addr); create_addr(remote_ipstr, port, ipv, (struct sockaddr *)&addr);
tcp_client_sustained_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_client_sustained_4 tcp_client_sustained_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_client_sustained_4
} }
RECORD_RESULTS(&test_number, passed, details, &results); RECORD_RESULTS(&test_number, passed, details, &results);
port++; port++;
// ipv6 client/server // ipv6 client/server
ipv = 6; ipv = 6;
if(mode == TEST_MODE_SERVER) { if(mode == TEST_MODE_SERVER) {
create_addr(local_ipstr6, port, ipv, (struct sockaddr *)&addr); create_addr(local_ipstr6, port, ipv, (struct sockaddr *)&addr);
tcp_server_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_server_6 tcp_server_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_server_6
} }
else if(mode == TEST_MODE_CLIENT) { else if(mode == TEST_MODE_CLIENT) {
DEBUG_TEST("waiting (15s) for other selftest to complete before continuing..."); DEBUG_TEST("waiting (15s) for other selftest to complete before continuing...");
sleep(WAIT_FOR_TEST_TO_CONCLUDE); sleep(WAIT_FOR_TEST_TO_CONCLUDE);
create_addr(remote_ipstr6, port, ipv, (struct sockaddr *)&addr); create_addr(remote_ipstr6, port, ipv, (struct sockaddr *)&addr);
tcp_client_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_client_6 tcp_client_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_client_6
} }
RECORD_RESULTS(&test_number, passed, details, &results); RECORD_RESULTS(&test_number, passed, details, &results);
mode = mode == TEST_MODE_SERVER ? TEST_MODE_CLIENT : TEST_MODE_SERVER; // switch roles mode = mode == TEST_MODE_SERVER ? TEST_MODE_CLIENT : TEST_MODE_SERVER; // switch roles
port++; // move up one port port++; // move up one port
if(mode == TEST_MODE_SERVER) { if(mode == TEST_MODE_SERVER) {
create_addr(local_ipstr6, port, ipv, (struct sockaddr *)&addr); create_addr(local_ipstr6, port, ipv, (struct sockaddr *)&addr);
tcp_server_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_server_6 tcp_server_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_server_6
} }
else if(mode == TEST_MODE_CLIENT) { else if(mode == TEST_MODE_CLIENT) {
sleep(WAIT_FOR_SERVER_TO_COME_ONLINE); sleep(WAIT_FOR_SERVER_TO_COME_ONLINE);
create_addr(remote_ipstr6, port, ipv, (struct sockaddr *)&addr); create_addr(remote_ipstr6, port, ipv, (struct sockaddr *)&addr);
tcp_client_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_client_6 tcp_client_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_client_6
} }
RECORD_RESULTS(&test_number, passed, details, &results); RECORD_RESULTS(&test_number, passed, details, &results);
port++; port++;
// ipv6 sustained transfer // ipv6 sustained transfer
ipv = 6; ipv = 6;
if(mode == TEST_MODE_SERVER) { if(mode == TEST_MODE_SERVER) {
create_addr(local_ipstr6, port, ipv, (struct sockaddr *)&addr); create_addr(local_ipstr6, port, ipv, (struct sockaddr *)&addr);
tcp_server_sustained_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_server_sustained_4 tcp_server_sustained_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_server_sustained_4
} }
else if(mode == TEST_MODE_CLIENT) { else if(mode == TEST_MODE_CLIENT) {
sleep(WAIT_FOR_SERVER_TO_COME_ONLINE); sleep(WAIT_FOR_SERVER_TO_COME_ONLINE);
create_addr(remote_ipstr6, port, ipv, (struct sockaddr *)&addr); create_addr(remote_ipstr6, port, ipv, (struct sockaddr *)&addr);
tcp_client_sustained_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_client_sustained_4 tcp_client_sustained_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_client_sustained_4
} }
RECORD_RESULTS(&test_number, passed, details, &results); // swtich roles RECORD_RESULTS(&test_number, passed, details, &results); // swtich roles
mode = mode == TEST_MODE_SERVER ? TEST_MODE_CLIENT : TEST_MODE_SERVER; // switch roles mode = mode == TEST_MODE_SERVER ? TEST_MODE_CLIENT : TEST_MODE_SERVER; // switch roles
port++; port++;
if(mode == TEST_MODE_SERVER) { if(mode == TEST_MODE_SERVER) {
create_addr(local_ipstr6, port, ipv, (struct sockaddr *)&addr); create_addr(local_ipstr6, port, ipv, (struct sockaddr *)&addr);
tcp_server_sustained_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_server_sustained_4 tcp_server_sustained_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_server_sustained_4
} }
else if(mode == TEST_MODE_CLIENT) { else if(mode == TEST_MODE_CLIENT) {
sleep(WAIT_FOR_SERVER_TO_COME_ONLINE); sleep(WAIT_FOR_SERVER_TO_COME_ONLINE);
create_addr(remote_ipstr6, port, ipv, (struct sockaddr *)&addr); create_addr(remote_ipstr6, port, ipv, (struct sockaddr *)&addr);
tcp_client_sustained_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_client_sustained_4 tcp_client_sustained_6((struct sockaddr_in6 *)&addr, operation, count, delay, details, &passed); // tcp_client_sustained_4
} }
RECORD_RESULTS(&test_number, passed, details, &results); RECORD_RESULTS(&test_number, passed, details, &results);
port++; port++;
// PERFORMANCE (between this library instance and a native non library instance (echo) ) // PERFORMANCE (between this library instance and a native non library instance (echo) )
// Client/Server mode isn't being tested here, so it isn't important, we'll just set it to client // Client/Server mode isn't being tested here, so it isn't important, we'll just set it to client
// ipv4 echo test // ipv4 echo test
ipv = 4; ipv = 4;
if(me == "alice" || me == "ted") { if(me == "alice" || me == "ted") {
port=start_port+100; // e.g. 7100 port=start_port+100; // e.g. 7100
create_addr(remote_echo_ipv4, port, ipv, (struct sockaddr *)&addr); create_addr(remote_echo_ipv4, port, ipv, (struct sockaddr *)&addr);
tcp_perf_tx_echo_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_perf_tx_echo_4 tcp_perf_tx_echo_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_perf_tx_echo_4
RECORD_RESULTS(&test_number, passed, details, &results); RECORD_RESULTS(&test_number, passed, details, &results);
sleep(WAIT_FOR_SERVER_TO_COME_ONLINE); sleep(WAIT_FOR_SERVER_TO_COME_ONLINE);
tcp_perf_rx_echo_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_perf_rx_echo_4 tcp_perf_rx_echo_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_perf_rx_echo_4
RECORD_RESULTS(&test_number, passed, details, &results); RECORD_RESULTS(&test_number, passed, details, &results);
} }
if(me == "bob" || me == "carol") { if(me == "bob" || me == "carol") {
DEBUG_TEST("waiting (15s) for other selftest to complete before continuing..."); DEBUG_TEST("waiting (15s) for other selftest to complete before continuing...");
sleep(WAIT_FOR_TEST_TO_CONCLUDE); sleep(WAIT_FOR_TEST_TO_CONCLUDE);
port=start_port+101; // e.g. 7101 port=start_port+101; // e.g. 7101
create_addr(remote_echo_ipv4, port, ipv, (struct sockaddr *)&addr); create_addr(remote_echo_ipv4, port, ipv, (struct sockaddr *)&addr);
tcp_perf_rx_echo_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_perf_tx_echo_4 tcp_perf_rx_echo_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_perf_tx_echo_4
RECORD_RESULTS(&test_number, passed, details, &results); RECORD_RESULTS(&test_number, passed, details, &results);
sleep(WAIT_FOR_SERVER_TO_COME_ONLINE); sleep(WAIT_FOR_SERVER_TO_COME_ONLINE);
tcp_perf_tx_echo_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_perf_rx_echo_4 tcp_perf_tx_echo_4((struct sockaddr_in *)&addr, operation, count, delay, details, &passed); // tcp_perf_rx_echo_4
RECORD_RESULTS(&test_number, passed, details, &results); RECORD_RESULTS(&test_number, passed, details, &results);
}
} }
// RANDOM API TEST
//random_api_test();
/****************************************************************************/ // SLAM API TEST
/* RANDOM */ //slam_api_test();
/****************************************************************************/
// RANDOM // BAD ARGS API TEST
// performs random API calls with plausible (and random) arguments/data //test_bad_args();
if(stype == "random")
{
random_api_test();
}
// OBSCURE API TEST
//obscure_api_test();
// Print results of all tests
printf("--------------------------------------------------------------------------------\n"); printf("--------------------------------------------------------------------------------\n");
for(int i=0;i<results.size(); i++) { for(int i=0;i<results.size(); i++) {
fprintf(stderr, "%s\n", results[i].c_str()); fprintf(stderr, "%s\n", results[i].c_str());