#include "sptps.h"
// Symbols necessary to link with logger.o
-bool send_request(void *c, const char *msg, ...) { return false; }
+bool send_request(void *c, const char *msg, ...) {
+ return false;
+}
struct list_t *connection_list = NULL;
-bool send_meta(void *c, const char *msg , int len) { return false; }
+bool send_meta(void *c, const char *msg, int len) {
+ return false;
+}
char *logfilename = NULL;
bool do_detach = false;
struct timeval now;
char buf[4096], *bufp = buf;
int fd = *(int *)sptps->handle;
size_t len = recv(fd, buf, sizeof(buf), 0);
+
while(len) {
size_t done = sptps_receive_data(sptps, bufp, len);
- if(!done)
+
+ if(!done) {
abort();
+ }
+
bufp += done;
len -= done;
}
static bool clock_countto(double seconds) {
clock_gettime(CLOCK_PROCESS_CPUTIME_ID, &end);
elapsed = end.tv_sec + end.tv_nsec * 1e-9 - start.tv_sec - start.tv_nsec * 1e-9;
- if(elapsed < seconds)
+
+ if(elapsed < seconds) {
return ++count;
+ }
rate = count / elapsed;
return false;
// Key generation
fprintf(stderr, "Generating keys for %lg seconds: ", duration);
- for(clock_start(); clock_countto(duration);)
+
+ for(clock_start(); clock_countto(duration);) {
ecdsa_free(ecdsa_generate());
+ }
+
fprintf(stderr, "%17.2lf op/s\n", rate);
key1 = ecdsa_generate();
// Ed25519 signatures
fprintf(stderr, "Ed25519 sign for %lg seconds: ", duration);
+
for(clock_start(); clock_countto(duration);)
- if(!ecdsa_sign(key1, buf1, 256, buf2))
+ if(!ecdsa_sign(key1, buf1, 256, buf2)) {
return 1;
+ }
+
fprintf(stderr, "%20.2lf op/s\n", rate);
fprintf(stderr, "Ed25519 verify for %lg seconds: ", duration);
+
for(clock_start(); clock_countto(duration);)
if(!ecdsa_verify(key1, buf1, 256, buf2)) {
fprintf(stderr, "Signature verification failed\n");
return 1;
}
+
fprintf(stderr, "%18.2lf op/s\n", rate);
ecdh1 = ecdh_generate_public(buf1);
fprintf(stderr, "ECDH for %lg seconds: ", duration);
+
for(clock_start(); clock_countto(duration);) {
ecdh2 = ecdh_generate_public(buf2);
- if(!ecdh2)
+
+ if(!ecdh2) {
return 1;
- if(!ecdh_compute_shared(ecdh2, buf1, buf3))
+ }
+
+ if(!ecdh_compute_shared(ecdh2, buf1, buf3)) {
return 1;
+ }
}
+
fprintf(stderr, "%28.2lf op/s\n", rate);
ecdh_free(ecdh1);
// SPTPS authentication phase
int fd[2];
+
if(socketpair(AF_UNIX, SOCK_STREAM, 0, fd)) {
fprintf(stderr, "Could not create a UNIX socket pair: %s\n", sockstrerror(sockerrno));
return 1;
struct pollfd pfd[2] = {{fd[0], POLLIN}, {fd[1], POLLIN}};
fprintf(stderr, "SPTPS/TCP authenticate for %lg seconds: ", duration);
+
for(clock_start(); clock_countto(duration);) {
sptps_start(&sptps1, fd + 0, true, false, key1, key2, "sptps_speed", 11, send_data, receive_record);
sptps_start(&sptps2, fd + 1, false, false, key2, key1, "sptps_speed", 11, send_data, receive_record);
+
while(poll(pfd, 2, 0)) {
- if(pfd[0].revents)
+ if(pfd[0].revents) {
receive_data(&sptps1);
- if(pfd[1].revents)
+ }
+
+ if(pfd[1].revents) {
receive_data(&sptps2);
+ }
}
+
sptps_stop(&sptps1);
sptps_stop(&sptps2);
}
+
fprintf(stderr, "%10.2lf op/s\n", rate * 2);
// SPTPS data
sptps_start(&sptps1, fd + 0, true, false, key1, key2, "sptps_speed", 11, send_data, receive_record);
sptps_start(&sptps2, fd + 1, false, false, key2, key1, "sptps_speed", 11, send_data, receive_record);
+
while(poll(pfd, 2, 0)) {
- if(pfd[0].revents)
+ if(pfd[0].revents) {
receive_data(&sptps1);
- if(pfd[1].revents)
+ }
+
+ if(pfd[1].revents) {
receive_data(&sptps2);
+ }
}
+
fprintf(stderr, "SPTPS/TCP transmit for %lg seconds: ", duration);
+
for(clock_start(); clock_countto(duration);) {
- if(!sptps_send_record(&sptps1, 0, buf1, 1451))
+ if(!sptps_send_record(&sptps1, 0, buf1, 1451)) {
abort();
+ }
+
receive_data(&sptps2);
}
+
rate *= 2 * 1451 * 8;
- if(rate > 1e9)
+
+ if(rate > 1e9) {
fprintf(stderr, "%14.2lf Gbit/s\n", rate / 1e9);
- else if(rate > 1e6)
+ } else if(rate > 1e6) {
fprintf(stderr, "%14.2lf Mbit/s\n", rate / 1e6);
- else if(rate > 1e3)
+ } else if(rate > 1e3) {
fprintf(stderr, "%14.2lf kbit/s\n", rate / 1e3);
+ }
+
sptps_stop(&sptps1);
sptps_stop(&sptps2);
}
fprintf(stderr, "SPTPS/UDP authenticate for %lg seconds: ", duration);
+
for(clock_start(); clock_countto(duration);) {
sptps_start(&sptps1, fd + 0, true, true, key1, key2, "sptps_speed", 11, send_data, receive_record);
sptps_start(&sptps2, fd + 1, false, true, key2, key1, "sptps_speed", 11, send_data, receive_record);
+
while(poll(pfd, 2, 0)) {
- if(pfd[0].revents)
+ if(pfd[0].revents) {
receive_data(&sptps1);
- if(pfd[1].revents)
+ }
+
+ if(pfd[1].revents) {
receive_data(&sptps2);
+ }
}
+
sptps_stop(&sptps1);
sptps_stop(&sptps2);
}
+
fprintf(stderr, "%10.2lf op/s\n", rate * 2);
// SPTPS datagram data
sptps_start(&sptps1, fd + 0, true, true, key1, key2, "sptps_speed", 11, send_data, receive_record);
sptps_start(&sptps2, fd + 1, false, true, key2, key1, "sptps_speed", 11, send_data, receive_record);
+
while(poll(pfd, 2, 0)) {
- if(pfd[0].revents)
+ if(pfd[0].revents) {
receive_data(&sptps1);
- if(pfd[1].revents)
+ }
+
+ if(pfd[1].revents) {
receive_data(&sptps2);
+ }
}
+
fprintf(stderr, "SPTPS/UDP transmit for %lg seconds: ", duration);
+
for(clock_start(); clock_countto(duration);) {
- if(!sptps_send_record(&sptps1, 0, buf1, 1451))
+ if(!sptps_send_record(&sptps1, 0, buf1, 1451)) {
abort();
+ }
+
receive_data(&sptps2);
}
+
rate *= 2 * 1451 * 8;
- if(rate > 1e9)
+
+ if(rate > 1e9) {
fprintf(stderr, "%14.2lf Gbit/s\n", rate / 1e9);
- else if(rate > 1e6)
+ } else if(rate > 1e6) {
fprintf(stderr, "%14.2lf Mbit/s\n", rate / 1e6);
- else if(rate > 1e3)
+ } else if(rate > 1e3) {
fprintf(stderr, "%14.2lf kbit/s\n", rate / 1e3);
+ }
+
sptps_stop(&sptps1);
sptps_stop(&sptps2);