int
show_summary_msg(struct imsg *imsg, int type)
{
struct rdr *rdr;
struct table *table;
struct host *host;
struct relay *rlay;
struct router *rt;
struct netroute *nr;
struct ctl_stats stats[RELAY_MAXPROC];
char name[MAXHOSTNAMELEN];
switch (imsg->hdr.type) {
case IMSG_CTL_RDR:
if (!(type == SHOW_SUM || type == SHOW_RDRS))
break;
rdr = imsg->data;
printf("%-4u\t%-8s\t%-24s\t%-7s\t%s\n",
rdr->conf.id, "redirect", rdr->conf.name, "",
print_rdr_status(rdr->conf.flags));
break;
case IMSG_CTL_TABLE:
if (!(type == SHOW_SUM || type == SHOW_HOSTS))
break;
table = imsg->data;
printf("%-4u\t%-8s\t%-24s\t%-7s\t%s\n",
table->conf.id, "table", table->conf.name, "",
print_table_status(table->up, table->conf.flags));
break;
case IMSG_CTL_HOST:
if (!(type == SHOW_SUM || type == SHOW_HOSTS))
break;
host = imsg->data;
if (host->conf.parentid)
snprintf(name, sizeof(name), "%s parent %u",
host->conf.name, host->conf.parentid);
else
strlcpy(name, host->conf.name, sizeof(name));
printf("%-4u\t%-8s\t%-24s\t%-7s\t%s\n",
host->conf.id, "host", name,
print_availability(host->check_cnt, host->up_cnt),
print_host_status(host->up, host->flags));
if (type == SHOW_HOSTS && host->check_cnt) {
printf("\t%8s\ttotal: %lu/%lu checks",
"", host->up_cnt, host->check_cnt);
if (host->retry_cnt)
printf(", %d retries", host->retry_cnt);
if (host->he && host->up == HOST_DOWN)
printf(", error: %s", host_error(host->he));
printf("\n");
}
break;
case IMSG_CTL_RELAY:
if (!(type == SHOW_SUM || type == SHOW_RELAYS))
break;
rlay = imsg->data;
printf("%-4u\t%-8s\t%-24s\t%-7s\t%s\n",
rlay->rl_conf.id, "relay", rlay->rl_conf.name, "",
print_relay_status(rlay->rl_conf.flags));
break;
case IMSG_CTL_RDR_STATS:
if (type != SHOW_RDRS)
break;
bcopy(imsg->data, &stats[0], sizeof(stats[0]));
stats[1].id = EMPTY_ID;
print_statistics(stats);
break;
case IMSG_CTL_RELAY_STATS:
if (type != SHOW_RELAYS)
break;
bcopy(imsg->data, &stats, sizeof(stats));
print_statistics(stats);
break;
case IMSG_CTL_ROUTER:
if (!(type == SHOW_SUM || type == SHOW_ROUTERS))
break;
rt = imsg->data;
printf("%-4u\t%-8s\t%-24s\t%-7s\t%s\n",
rt->rt_conf.id, "router", rt->rt_conf.name, "",
print_relay_status(rt->rt_conf.flags));
if (type != SHOW_ROUTERS)
break;
if (rt->rt_conf.rtable)
printf("\t%8s\trtable: %d\n", "", rt->rt_conf.rtable);
if (strlen(rt->rt_conf.label))
printf("\t%8s\trtlabel: %s\n", "", rt->rt_conf.label);
break;
case IMSG_CTL_NETROUTE:
if (type != SHOW_ROUTERS)
break;
nr = imsg->data;
(void)print_host(&nr->nr_conf.ss, name, sizeof(name));
printf("\t%8s\troute: %s/%d\n",
"", name, nr->nr_conf.prefixlen);
break;
case IMSG_CTL_END:
return (1);
default:
errx(1, "wrong message in summary: %u", imsg->hdr.type);
break;
}
return (0);
}
void BackpropTrainer::train(FeedForwardNetwork& network, LabeledDataset& ds, int epochs) {
FeedForwardNetwork::LayerIterator lit;
for (lit = network.layers_begin(); lit != network.layers_end(); ++lit) {
int k = lit->get_k();
sigmas_.push_back(lit->clone());
outputs_.push_back(new viennacl::vector<float>(k));
derivatives_.push_back(new viennacl::vector<float>(k));
}
std::vector<int> indexes;
for (int i = 0; i < ds.size(); ++i) {
indexes.push_back(i);
}
viennacl::vector<float> error;
std::vector<float> host_error(ds.output_size(), 0);
for (int i = 0; i < epochs; ++i) {
float avg_rms_error = 0.0f;
std::random_shuffle(indexes.begin(), indexes.end());
for (std::vector<int>::iterator it = indexes.begin(); it != indexes.end(); ++it) {
const viennacl::vector<float>& input = ds.get_input(*it);
const viennacl::vector<float>& output = ds.get_output(*it);
// Forward pass.
network.get_input_layer().get_value() = input;
for (int j = 0; j < network.get_num_connections(); ++j) {
Layer& layer = network.get_layer(j);
Layer& next_layer = network.get_layer(j + 1);
Connection& conn = network.get_connection(j);
layer.activate(derivatives_[j]);
conn.layer_propogate(layer, next_layer);
viennacl::ocl::get_queue().finish();
outputs_[j] = layer.get_value();
}
Layer& output_layer = network.get_output_layer();
output_layer.activate(derivatives_.back());
// Backwards pass.
error = output - output_layer.get_value();
sigmas_.back().get_value() = viennacl::linalg::element_prod(derivatives_.back(), error);
for (int j = network.get_num_layers() - 1; j > 0; --j) {
Layer& prev_layer = network.get_layer(j - 1);
Layer& layer = network.get_layer(j);
Connection& conn = network.get_connection(j - 1);
delegate_->backpropogate(sigmas_[j - 1], conn, sigmas_[j], derivatives_[j - 1]);
viennacl::ocl::get_queue().finish();
delegate_->update(conn, sigmas_[j].get_value(), outputs_[j - 1]);
viennacl::ocl::get_queue().finish();
delegate_->update(layer, sigmas_[j].get_value());
viennacl::ocl::get_queue().finish();
}
fast_copy(error, host_error);
float rms_error = 0.0f;
for (size_t j = 0; j < host_error.size(); ++j) {
rms_error += host_error[j] * host_error[j];
}
rms_error = sqrt(rms_error / host_error.size());
avg_rms_error += rms_error;
}
avg_rms_error /= ds.size();
std::cout << "Epoch=" << i << " Avg-RMS=" << avg_rms_error << std::endl;
}
}
/*
Entry point from Windows 386 Virtual Device Driver (INSIGNIA.386) - Provide
virtualising services as required.
*/
GLOBAL void
virtual_device_trap IFN0()
{
int new_vb;
switch ( getEAX() )
{
case VxD_Device_Init:
/* We can check that the Intel version is valid */
insignia_386_version = getDX();
always_trace2("386 VxD: Device_Init version %d.%02d",
insignia_386_version / 100,
insignia_386_version % 100);
/* pm selectors for virtualisation are in ebx and ecx */
if ((getBX() !=0) && (getCX() !=0))
sas_init_pm_selectors (getBX(), getCX());
else
always_trace0("386 VxD: Device_Init. Failed to get pm selectors!!");
/* Compatibility test:
* Return in top half of EDX the the "current" Intel version of the driver.
* This allows an incompatible future driver to reject an old SoftWindows.
*/
#define INTEL_VERSION 102
setEDX(INTEL_VERSION << 16);
break;
case VxD_Sys_VM_Init:
always_trace0("386 VxD: Sys_VM_Init.");
/* As safety measure undo anything which may be currently active */
deallocate_all_NIDDB();
restore_snapshot();
/* Lock out Insignia Device Driver requests */
allocation_allowed = FALSE;
/* Form new instance */
if ( allocate_NIDDB(getEBX(), &new_vb) )
{
/* Make new instance active (for create callback) */
swap_NIDDB(new_vb);
/* Copy instance data and action create callback */
copy_instance_data(vrecs[new_vb].vr_pinst_tbl, snapshot_ptrs);
/* Return virtualising byte to INSIGNIA.386 */
setEAX(new_vb);
}
else
{
/* We can't do it */
setCF(1); /* Inform Windows that Virtual Machine can't be created */
host_error(EG_MALLOC_FAILURE, ERR_CONT , "");
}
break;
case VxD_VM_Init:
always_trace0("386 VxD: VM_Init.");
/* Form new instance */
if ( allocate_NIDDB(getEBX(), &new_vb) )
{
/* Make new instance active (for create callback) */
swap_NIDDB(new_vb);
/* Copy instance data and action create callback */
copy_instance_data(vrecs[new_vb].vr_pinst_tbl, snapshot_ptrs);
/* Return virtualising byte to INSIGNIA.386 */
setEAX(new_vb);
}
else
{
/* We can't do it */
setCF(1); /* Inform Windows that Virtual Machine can't be created */
host_error(EG_MALLOC_FAILURE, ERR_CONT , "");
}
break;
case VxD_VM_Not_Executeable:
always_trace0("386 VxD: VM_Not_Executeable.");
deallocate_specific_NIDDB(getEBX());
break;
case VxD_Device_Reboot_Notify:
always_trace0("386 VxD: Device_Reboot_Notify.");
deallocate_all_NIDDB();
restore_snapshot();
/* Clear our version number in case we are changing disks */
insignia_386_version = 0;
break;
case VxD_System_Exit:
always_trace0("386 VxD: System_Exit.");
deallocate_all_NIDDB();
restore_snapshot();
ClearInstanceDataMarking();
#ifndef NTVDM
host_mswin_disable();
#endif /* ! NTVDM */
/* Clear our version number in case we are changing disks */
insignia_386_version = 0;
break;
default:
always_trace1("386 VxD: Unrecognised Control Message. 0x%02x", getEAX());
}
}
