void Adaboost(TrainData *data,int T){
InitWi(data);
double temptheta=0.0,theta1=0.0;
double error,beta;
int p=0; //p=0 <=> '<' p=0 <=> '>'
double min;
//////////////left is positive & right is nagitive//////////////
for(int i=0;i<T;i++){
//get theta first
p=0;
min=DBL_MAX;//////Be careful
nomalization(data);
for(int j=0;j<Data_Size_G;j++){
InitStatus(data);
temptheta=data[j].property;
for(int k=0;k<Data_Size_G;k++){
if((data[k].property<=temptheta)&&(data[k].label==0))
data[k].status=MISS;
if((data[k].property>temptheta)&&(data[k].label))
data[k].status=MISS;
}
error=getError(data);
if(error<=min&&error<0.5){
theta1=temptheta;
min=error;
}
}
//////////////right is positive & left is nagitive//////////////
temptheta=0.0;
double theta2=0.0;
for(int j=0;j<Data_Size_G;j++){
InitStatus(data);
temptheta=data[j].property;
for(int k=0;k<Data_Size_G;k++){
if((data[k].property>=temptheta)&&(data[k].label==0))
data[k].status=MISS;
if((data[k].property<temptheta)&&(data[k].label))
data[k].status=MISS;
}
error=getError(data);
if(error<=min){
theta2=temptheta;
min=error;
p=1;
}
}
//////////////////////////////////////////////////////////////////////////
InitStatus(data);
double theta=p?theta2:theta1;
if(p)
for(int k=0;k<Data_Size_G;k++){
if((data[k].property>=theta)&&(data[k].label==0))
data[k].status=MISS;
if((data[k].property<theta)&&(data[k].label))
data[k].status=MISS;
}
else
for(int k=0;k<Data_Size_G;k++){
if((data[k].property<=theta)&&(data[k].label==0))
data[k].status=MISS;
if((data[k].property>theta)&&(data[k].label))
data[k].status=MISS;
}
error=getError(data);
beta=getBeta(error);
updataWi(data, beta);
if(p)
printf("|>=| |Threshold:%9lf|error:%9lf |Alpha:%9lf|\n",theta,error,getAlpha(beta));
else
printf("|<=| |Threshold:%9lf|error:%9lf |Alpha:%9lf|\n",theta,error,getAlpha(beta));
}
}
void DanglingOnTemporaryChecker::check(const MatchFinder::MatchResult &Result) {
///////////////////////////////////////
// Quick annotation conflict checker //
///////////////////////////////////////
const char *ErrorInvalidRefQualified = "methods annotated with "
"MOZ_NO_DANGLING_ON_TEMPORARIES "
"cannot be && ref-qualified";
const char *ErrorInvalidPointer = "methods annotated with "
"MOZ_NO_DANGLING_ON_TEMPORARIES must "
"return a pointer";
if (auto InvalidRefQualified =
Result.Nodes.getNodeAs<CXXMethodDecl>("invalidMethodRefQualified")) {
diag(InvalidRefQualified->getLocation(), ErrorInvalidRefQualified,
DiagnosticIDs::Error);
return;
}
if (auto InvalidPointer =
Result.Nodes.getNodeAs<CXXMethodDecl>("invalidMethodPointer")) {
diag(InvalidPointer->getLocation(), ErrorInvalidPointer,
DiagnosticIDs::Error);
return;
}
//////////////////
// Main checker //
//////////////////
const char *Error = "calling `%0` on a temporary, potentially allowing use "
"after free of the raw pointer";
const char *EscapeStmtNote =
"the raw pointer escapes the function scope here";
const ObjCMessageExpr *ParentObjCMessageExpr =
Result.Nodes.getNodeAs<ObjCMessageExpr>("parentObjCMessageExpr");
// We don't care about cases in ObjC message expressions.
if (ParentObjCMessageExpr) {
return;
}
const CXXMemberCallExpr *MemberCall =
Result.Nodes.getNodeAs<CXXMemberCallExpr>("memberCallExpr");
const CallExpr *ParentCallExpr =
Result.Nodes.getNodeAs<CallExpr>("parentCallExpr");
const CXXConstructExpr *ParentConstructExpr =
Result.Nodes.getNodeAs<CXXConstructExpr>("parentConstructExpr");
const CXXOperatorCallExpr *ParentOperatorCallExpr =
Result.Nodes.getNodeAs<CXXOperatorCallExpr>("parentOperatorCallExpr");
const Expr *ParentCallArg =
Result.Nodes.getNodeAs<Expr>("parentCallArg");
// Just in case.
if (!MemberCall) {
return;
}
// If we have a parent call, we check whether or not we escape the function
// being called.
if (ParentOperatorCallExpr || ParentCallExpr || ParentConstructExpr) {
// Just in case.
if (!ParentCallArg) {
return;
}
// No default constructor so we can't construct it using if/else.
auto FunctionEscapeData
= ParentOperatorCallExpr
? escapesFunction(ParentCallArg, ParentOperatorCallExpr)
: ParentCallExpr
? escapesFunction(ParentCallArg, ParentCallExpr)
: escapesFunction(ParentCallArg, ParentConstructExpr);
// If there was an error in the escapesFunction call.
if (std::error_code ec = FunctionEscapeData.getError()) {
// FIXME: For now we ignore the variadic case and just consider that the
// argument doesn't escape the function. Same for the case where we can't
// find the function declaration or if the function is builtin.
if (static_cast<EscapesFunctionError>(ec.value()) ==
EscapesFunctionError::FunctionIsVariadic ||
static_cast<EscapesFunctionError>(ec.value()) ==
EscapesFunctionError::FunctionDeclNotFound ||
static_cast<EscapesFunctionError>(ec.value()) ==
EscapesFunctionError::FunctionIsBuiltin) {
return;
}
// We emit the internal checker error and return.
diag(MemberCall->getExprLoc(),
std::string(ec.category().name()) + " error: " + ec.message(),
DiagnosticIDs::Error);
return;
}
// We deconstruct the function escape data.
const Stmt *EscapeStmt;
const Decl *EscapeDecl;
std::tie(EscapeStmt, EscapeDecl) = *FunctionEscapeData;
// If we didn't escape a parent function, we're done: we don't emit any
// diagnostic.
if (!EscapeStmt || !EscapeDecl) {
return;
}
// We emit the error diagnostic indicating that we are calling the method
// temporary.
diag(MemberCall->getExprLoc(), Error, DiagnosticIDs::Error)
<< MemberCall->getMethodDecl()->getName()
<< MemberCall->getSourceRange();
// We indicate the escape statement.
diag(EscapeStmt->getLocStart(), EscapeStmtNote, DiagnosticIDs::Note)
<< EscapeStmt->getSourceRange();
// We build the escape note along with its source range.
StringRef EscapeDeclNote;
SourceRange EscapeDeclRange;
if (isa<ParmVarDecl>(EscapeDecl)) {
EscapeDeclNote = "through the parameter declared here";
EscapeDeclRange = EscapeDecl->getSourceRange();
} else if (isa<VarDecl>(EscapeDecl)) {
EscapeDeclNote = "through the variable declared here";
EscapeDeclRange = EscapeDecl->getSourceRange();
} else if (isa<FieldDecl>(EscapeDecl)) {
EscapeDeclNote = "through the field declared here";
EscapeDeclRange = EscapeDecl->getSourceRange();
} else if (auto FuncDecl = dyn_cast<FunctionDecl>(EscapeDecl)) {
EscapeDeclNote = "through the return value of the function declared here";
EscapeDeclRange = FuncDecl->getReturnTypeSourceRange();
} else {
return;
}
// We emit the declaration note indicating through which decl the argument
// escapes.
diag(EscapeDecl->getLocation(), EscapeDeclNote, DiagnosticIDs::Note)
<< EscapeDeclRange;
} else {
// We emit the error diagnostic indicating that we are calling the method
// temporary.
diag(MemberCall->getExprLoc(), Error, DiagnosticIDs::Error)
<< MemberCall->getMethodDecl()->getName()
<< MemberCall->getSourceRange();
}
}
/*!
** @brief Xsocket implemention of the standard getsockopt function.
**
** Xgetsockopt is used to retrieve the settings of the underlying Xsocket
** in the Click layer. It does not access the settings of the actual
** socket passed in which is used by the API to communicate with Click.
**
** Supported Options:
** \n XOPT_HLIM Retrieves the 'hop limit' element of the XIA header as an integer value
** \n XOPT_NEXT_PROTO Gets the next proto field in the XIA header
**
** @param sockfd The control socket
** @param optname The socket option to set (currently must be IP_TTL)
** @param optval A pointer to the value to retrieve
** @param optlen A pointer to the length of optval. On input this
** should be set to the length of the data passed in. If optlen is not
** large enough, Xgetsockopt will set it to the size needed and return
** with errno set to EINVAL. If larger than needed, Xgetsockopt will set
** it to the actual length of the returned data.
**
** @returns 0 on success
** @returns -1 on error with errno set
** @returns errno values:
** @returns EBADF: The socket descriptor is invalid
** @returns EINVAL: Either optval is null, or optlen is invalid, or optval is out of range
** @returns ENOPROTOOPT: the specified optname is not recognized
*/
int Xgetsockopt(int sockfd, int optname, void *optval, socklen_t *optlen)
{
char buf[MAXBUFLEN];
/* TODO: we may need to check the type of the socket at some point, but for now
** treat them all the same as far as options go.
**
** Should we add a validate socket function that takes the expected type?
*/
if (getSocketType(sockfd) == XSOCK_INVALID) {
errno = EBADF;
return -1;
}
if (!optval || !optlen) {
errno = EINVAL;
return -1;
}
xia::XSocketMsg xsm;
xsm.set_type(xia::XGETSOCKOPT);
xia::X_Getsockopt_Msg *msg = xsm.mutable_x_getsockopt();
msg->set_opt_type(optname);
switch (optname) {
case SO_ERROR:
{
if (*optlen < sizeof(int)) {
*optlen = sizeof(int);
errno = EINVAL;
return -1;
}
*(int *)optval = getError(sockfd);
break;
}
case XOPT_HLIM:
{
if (*optlen < sizeof(int)) {
*optlen = sizeof(int);
errno = EINVAL;
return -1;
}
int flags = fcntl(sockfd, F_GETFL);
fcntl(sockfd, F_SETFL, flags &= ~O_NONBLOCK);
if (click_send(sockfd, &xsm) < 0) {
LOGF("Error talking to Click: %s", strerror(errno));
fcntl(sockfd, F_SETFL, flags);
return -1;
}
xia::XSocketMsg reply;
if (click_reply(sockfd, xia::XGETSOCKOPT, buf, sizeof(buf)) < 0) {
LOGF("Error getting status from Click: %s", strerror(errno));
fcntl(sockfd, F_SETFL, flags);
return -1;
}
fcntl(sockfd, F_SETFL, flags);
xsm.Clear();
xsm.ParseFromString(buf);
xia::X_Getsockopt_Msg *msg = xsm.mutable_x_getsockopt();
int hlim = msg->int_opt();
*optlen = sizeof(int);
*(int *)optval = hlim;
break;
}
case XOPT_NEXT_PROTO:
{
if (*optlen < sizeof(int)) {
*optlen = sizeof(int);
errno = EINVAL;
return -1;
}
int flags = fcntl(sockfd, F_GETFL);
fcntl(sockfd, F_SETFL, flags &= ~O_NONBLOCK);
if (click_send(sockfd, &xsm) < 0) {
fcntl(sockfd, F_SETFL, flags);
LOGF("Error talking to Click: %s", strerror(errno));
return -1;
}
xia::XSocketMsg reply;
if (click_reply(sockfd, xia::XGETSOCKOPT, buf, sizeof(buf)) < 0) {
fcntl(sockfd, F_SETFL, flags);
LOGF("Error getting status from Click: %s", strerror(errno));
return -1;
}
fcntl(sockfd, F_SETFL, flags);
xsm.Clear();
xsm.ParseFromString(buf);
xia::X_Getsockopt_Msg *msg = xsm.mutable_x_getsockopt();
int nxt = msg->int_opt();
*optlen = sizeof(int);
*(int *)optval = nxt;
break;
}
default:
errno = ENOPROTOOPT;
return -1;
}
return 0;
}
//##ModelId=424426D6039B
CycleSHMIntHashIndex::CycleSHMIntHashIndex(ABMException &oExp,char *shmname) :
SHMAccess(oExp, shmname), m_piHashValue(0), m_piTotal(0), m_piUsed(0), m_poHash(0)
{
if (m_poSHM&&!getError())
open ();
}
void TreeSocket::OnError(BufferedSocketError e)
{
ServerInstance->SNO->WriteGlobalSno('l', "Connection to '\002%s\002' failed with error: %s",
linkID.c_str(), getError().c_str());
LinkState = DYING;
}
bool StochasticSupervisor::trainFor(NeuralNetwork &neuralNetwork, const int count)
{
emit started(count);
qreal bestError = 1e100;
NeuralNetwork networkBackup;
RandomSupervisor rnd(-5, 5);
rnd.train(neuralNetwork);
NeuralNetwork bestNetwork = neuralNetwork;
emit iterationInfo(0, count);
emit targetErrorInfo(EPS, bestError, bestError);
for(int e = 1; e < count; ++e)
{
const qreal temperature = MAX_TEMPERATURE / (1 + e);
const qreal temperature2 = temperature * temperature;
const qreal oldError = getError(neuralNetwork, trainingSet());
networkBackup = neuralNetwork;
for (NeuralLayer &layer: neuralNetwork)
for (Neuron &neuron: layer)
for (int i = 0; i < neuron.weightNumber(); ++i)
neuron.setWeight(i, neuron.weight(i) + randReal(-0.25, 0.25));
const qreal error = getError(neuralNetwork, trainingSet());
{ // info
if (e % 100 == 0)
{
qDebug() << 100. * e / count << error << bestError; // FIXME DEBUG
emit iterationInfo(e, count);
emit targetErrorInfo(EPS, error, bestError);
QCoreApplication::processEvents();
if (checkAborted())
{
emit finished(false);
qDebug() << "ABORTED";
return false;
}
}
}
if (error > oldError)
{
const qreal errorDiff = error - oldError;
const qreal errorDiff2 = errorDiff * errorDiff;
const qreal P = temperature2 / (temperature2 + errorDiff2);
const qreal random = randReal(0, 1);
if (random > P)
neuralNetwork.swap(networkBackup);
}
else
{
if (error < bestError)
{
bestNetwork = neuralNetwork;
bestError = error;
}
}
if (error < EPS)
{
emit iterationInfo(e, count);
emit targetErrorInfo(EPS, error, bestError);
emit finished(true);
qDebug() << "SUCCESS";
return true;
}
}
neuralNetwork.swap(bestNetwork);
emit iterationInfo(count, count);
emit targetErrorInfo(EPS, bestError, bestError);
emit finished(false);
qDebug() << "FAILED";
return false;
}
static int8_t module(void *state, Message *msg)
{
app_state_t *s = (app_state_t *) state;
MsgParam *p = (MsgParam*)(msg->data);
/**
* Switch to the correct message handler
*/
switch (msg->type){
case MSG_INIT:
{
DEBUG("RATS: node %d initializing\n", ker_id());
s->pid = msg->did;
s->ts_list = NULL;
s->ts_packet.type = NORMAL_PACKET;
//Notify neighbors that RATS is starting (in case node rebooted while it was
//synchronizing with another node
post_net(s->pid, s->pid, MSG_INVALIDATE_ENTRY, 0, NULL, 0, BCAST_ADDRESS);
return SOS_OK;
}
case MSG_RATS_CLIENT_START:
{
MsgParam *p = (MsgParam *)msg->data;
DEBUG("RATS: Received MSG_RATS_CLIENT_START for node %d\n", p->word);
uint8_t request_status = add_request(s, p->word, p->byte);
//If a new request was created, then send packet to parent
if(request_status != NO_REQUEST_CREATED)
{
DEBUG("RATS: Transmitting request to node %d\n", p->word);
LED_DBG(LED_RED_TOGGLE);
//If the current node is the parent of the target node, then the target node will
//reply by informing the parent, who will add the target to its list of children.
post_net(s->pid, s->pid, MSG_RATS_SERVER_START, 0, NULL, 0, p->word);
}
else
{
//Request already exists
DEBUG("RATS: Request already exists\n");
}
//If this was the first request that was created, we need to start the panic timer
if(request_status == CREATED_FIRST_REQUEST)
{
DEBUG("RATS: PANIC_TIMER started\n");
#ifdef USE_PANIC_PACKETS
sys_timer_start(PANIC_TIMER, MIN_SAMPLING_PERIOD*1024, TIMER_REPEAT);
#endif //USE_PANIC_PACKETS
}
return SOS_OK;
}
case MSG_RATS_SERVER_START:
{
timesync_t * temp_ts_ptr = get_timesync_ptr(s, msg->saddr);
DEBUG("RATS: Received request from node %d\n", msg->saddr);
if(temp_ts_ptr == NULL)
{
DEBUG("RATS: Starting timesync with node %d\n", msg->saddr);
LED_DBG(LED_RED_TOGGLE);
//If request is coming from node, with whom the node is not synchronizing, then
//synchronization is starting
sys_timer_stop(TRANSMIT_TIMER);
sys_timer_stop(VALIDATION_TIMER);
s->ts_packet.transmission_period = INITIAL_TRANSMISSION_PERIOD;
s->ts_packet.min_period_node_id = msg->saddr;
s->transmit_timer_counter = 1; //s->ts_packet.transmission_period/INITIAL_TRANSMISSION_PERIOD;
s->validation_timer_counter = 5; //s->transmit_timer_counter + 4;
s->validation_timer_retransmissions = TOTAL_VALIDATION_RETRANSMISSIONS;
sys_timer_start(TRANSMIT_TIMER, MIN_SAMPLING_PERIOD*1024, TIMER_REPEAT);
sys_timer_start(VALIDATION_TIMER, MIN_SAMPLING_PERIOD*1024, TIMER_REPEAT);
}
return SOS_OK;
}
case MSG_RATS_GET_TIME:
{
//If the module passed a NULL pointer or if the data size is wrong, then discard
if( (msg->data == NULL)
#ifndef PC_PLATFORM
|| (msg->len != sizeof(rats_t) )
#endif //PC_PLATFORM
)
{
DEBUG("RATS: Invalid data received in MSG_RATS_GET_TIME\n");
break;
}
rats_t * rats_ptr = (rats_t *)sys_msg_take_data(msg);
DEBUG("RATS: Received MSG_RATS_GET_TIME (mod_id=%d node=%d)\n", rats_ptr->mod_id, msg->saddr);
if(rats_ptr->source_node_id == ker_id())
{
timesync_t * temp_ts_ptr = get_timesync_ptr(s, rats_ptr->target_node_id);
if(temp_ts_ptr == NULL)
{
DEBUG("RATS: Target node %d is not time synced\n", rats_ptr->target_node_id);
sys_free(rats_ptr);
break;
}
else
{
DEBUG("RATS: Calculating time for target node %d locally\n", rats_ptr->target_node_id);
if(temp_ts_ptr->packet_count < BUFFER_SIZE) // learning state
{
rats_ptr->time_at_target_node = 0;
rats_ptr->error = 0;
}
else
{
rats_ptr->time_at_target_node = convert_from_mine_to_parent_time(rats_ptr->time_at_source_node, rats_ptr->target_node_id);
rats_ptr->error = getError(&temp_ts_ptr->timestamps[0], &temp_ts_ptr->my_time[0], BUFFER_SIZE,
temp_ts_ptr->window_size, BUFFER_SIZE - temp_ts_ptr->window_size, &temp_ts_ptr->a, &temp_ts_ptr->b, temp_ts_ptr->sampling_period, FALSE);
}
}
}
else if (rats_ptr->target_node_id == ker_id())
{
timesync_t * temp_ts_ptr = get_timesync_ptr(s, rats_ptr->source_node_id);
if(temp_ts_ptr == NULL)
{
DEBUG("RATS: Source node %d is not time synced\n", rats_ptr->source_node_id);
sys_free(rats_ptr);
break;
}
else
{
DEBUG("RATS: Calculating time for source node %d locally\n", rats_ptr->source_node_id);
if(temp_ts_ptr->packet_count < BUFFER_SIZE) // learning state
{
rats_ptr->time_at_target_node = 0;
rats_ptr->error = 0;
}
else
{
rats_ptr->time_at_target_node = convert_from_parent_to_my_time(rats_ptr->time_at_source_node, rats_ptr->source_node_id);
rats_ptr->error = getError(&temp_ts_ptr->timestamps[0], &temp_ts_ptr->my_time[0], BUFFER_SIZE,
temp_ts_ptr->window_size, BUFFER_SIZE - temp_ts_ptr->window_size, &temp_ts_ptr->a, &temp_ts_ptr->b, temp_ts_ptr->sampling_period, TRUE);
}
}
}
else
{
DEBUG("RATS: Invalid request (source = %d, target - %d)\n", rats_ptr->source_node_id, rats_ptr->target_node_id);
sys_free(rats_ptr);
break;
}
DEBUG("RATS: Sending reply to module %d\n", rats_ptr->mod_id);
post_long(rats_ptr->mod_id, s->pid, rats_ptr->msg_type, sizeof(rats_t), rats_ptr, SOS_MSG_RELEASE);
break;
}
case MSG_RATS_CLIENT_STOP:
{
MsgParam *p = (MsgParam *)msg->data;
uint16_t node_id = p->word;
//First we need to remove node from list of parents
/* Select node at head of list */
timesync_t * ts_list_ptr = s->ts_list;
timesync_t * ts_delete_list_ptr;
timesync_t * ts_previous_list_ptr = s->ts_list;
/* Loop until we've reached the end of the list */
while( ts_list_ptr != NULL )
{
if(ts_list_ptr->node_id == node_id)
{
if(--ts_list_ptr->ref_counter > 0)
return SOS_OK;
DEBUG("RATS: Removing node %d from list of parents. Sending MSG_RATS_SERVER_STOP.\n", node_id);
post_net(s->pid, s->pid, MSG_RATS_SERVER_STOP, 0, NULL, 0, node_id);
/* Found the item to be deleted,
re-link the list around it */
if( ts_list_ptr == s->ts_list )
/* We're deleting the head */
s->ts_list = ts_list_ptr->next;
else
ts_previous_list_ptr->next = ts_list_ptr->next;
ts_delete_list_ptr = ts_list_ptr;
ts_list_ptr = ts_list_ptr->next;
/* Free the node */
sys_free( ts_delete_list_ptr );
//If the parent list is empty, then we're stopping the panic timer
if(s->ts_list == NULL)
{
DEBUG("RATS: Parent list is empty. Stopping panic timer\n");
#ifdef USE_PANIC_PACKETS
sys_timer_stop(PANIC_TIMER);
#endif //USE_PANIC_PACKETS
}
return SOS_OK;
}
ts_previous_list_ptr = ts_list_ptr;
ts_list_ptr = ts_list_ptr->next;
}
DEBUG("RATS: Requested parent %d was not found\n", node_id);
break;
}
case MSG_RATS_SERVER_STOP:
{
DEBUG("RATS: Received MSG_RATS_SERVER_STOP from %d\n", msg->saddr);
//If node has minimum period, then go to validation protocol
if(msg->saddr == s->ts_packet.min_period_node_id)
{
DEBUG("RATS: Going to validation protocol\n");
s->validation_timer_counter = 1;
s->validation_timer_retransmissions = BROADCAST_VALIDATION_RETRANSMISSIONS;
s->validation_node_id = ker_id();
}
break;
}
case MSG_TIMER_TIMEOUT:
{
switch(p->byte)
{
case TRANSMIT_TIMER:
{
if( (--(s->transmit_timer_counter)) == 0)
{
DEBUG("RATS: Broadcasting MSG_TIMESTAMP packet\n");
LED_DBG(LED_GREEN_TOGGLE);
post_net(s->pid, s->pid, MSG_TIMESTAMP, sizeof(ts_packet_t), &s->ts_packet, 0, BCAST_ADDRESS);
#ifdef UART_DEBUG
post_uart(s->pid, s->pid, UART_TIMESTAMP, sizeof(ts_packet_t), &s->ts_packet, 0, BCAST_ADDRESS);
#endif //UART_DEBUG
s->transmit_timer_counter = (uint16_t)(s->ts_packet.transmission_period / MIN_SAMPLING_PERIOD);
}
break;
}
case VALIDATION_TIMER:
{
if( (--(s->validation_timer_counter)) == 0)
{
s->validation_timer_counter = 1;
//Send up to MSG_PERIOD_REQUEST packets (UNICAST_VALIDATION_RETRANSMISSIONS times) to node with minimum period.
//If the node doesn't respond until then, then broadcast BROADCAST_VALIDATION_RETRANSMISSIONS times
//After the transmitting BROADCAST_VALIDATION_RETRANSMISSIONS packets, use the minimum period that
//was sent during that interval
if( s->validation_timer_retransmissions > BROADCAST_VALIDATION_RETRANSMISSIONS )
{
--s->validation_timer_retransmissions;
DEBUG("RATS: Transmitting MSG_PERIOD_REQUEST (retries left = %d) to node %d\n", s->validation_timer_retransmissions, s->ts_packet.min_period_node_id);
post_net(s->pid, s->pid, MSG_PERIOD_REQUEST, 0, NULL, 0, s->ts_packet.min_period_node_id);
#ifdef UART_DEBUG
post_uart(s->pid, s->pid, UART_PERIOD_REQUEST, 0, NULL, 0, s->ts_packet.min_period_node_id);
#endif //UART_DEBUG
}
else if( s->validation_timer_retransmissions > 0)
{
--s->validation_timer_retransmissions;
DEBUG("RATS: Broadcasting MSG_PERIOD_REQUEST (retries left = %d)\n", s->validation_timer_retransmissions);
//Invalidate node with minimum period
s->validation_node_id = ker_id();
post_net(s->pid, s->pid, MSG_PERIOD_REQUEST, 0, NULL, 0, BCAST_ADDRESS);
#ifdef UART_DEBUG
post_uart(s->pid, s->pid, UART_PERIOD_REQUEST, 0, NULL, 0, BCAST_ADDRESS);
#endif //UART_DEBUG
}
else //s->validation_timer_retransmissions == 0
{
sys_timer_stop(TRANSMIT_TIMER);
sys_timer_stop(VALIDATION_TIMER);
//Restart normal procedure only if there was a reply
if(ker_id() != s->validation_node_id)
{
DEBUG("RATS: Setting node %d as the one with min period (%d)\n",
s->validation_node_id, s->validation_period);
s->ts_packet.min_period_node_id = s->validation_node_id;
s->ts_packet.transmission_period = s->validation_period;
s->transmit_timer_counter = s->ts_packet.transmission_period/INITIAL_TRANSMISSION_PERIOD;
s->validation_timer_counter = s->transmit_timer_counter + 4;
s->validation_timer_retransmissions = TOTAL_VALIDATION_RETRANSMISSIONS;
sys_timer_start(TRANSMIT_TIMER, MIN_SAMPLING_PERIOD*1024, TIMER_REPEAT);
sys_timer_start(VALIDATION_TIMER, MIN_SAMPLING_PERIOD*1024, TIMER_REPEAT);
}
else
{
DEBUG("RATS: Validation timer expired, without receiving any packets\n");
sys_timer_stop(TRANSMIT_TIMER);
sys_timer_stop(VALIDATION_TIMER);
}
}
}
break;
}
case PANIC_TIMER:
{
//There is a fixed number of retransmissions. If the corresponding counter
//reaches zero, then the child is removed from the list
/* Select node at head of list */
timesync_t * ts_list_ptr = s->ts_list;
timesync_t * ts_delete_list_ptr;
timesync_t * ts_previous_list_ptr = s->ts_list;
/* Loop until we've reached the end of the list */
while( ts_list_ptr != NULL )
{
if(--ts_list_ptr->panic_timer_counter == 0)
{
if(ts_list_ptr->panic_timer_retransmissions > 0)
{
//Transmit the packet
--ts_list_ptr->panic_timer_retransmissions;
DEBUG("RATS: Sending panic packet to node %d (retries=%d)\n", ts_list_ptr->node_id, ts_list_ptr->panic_timer_retransmissions);
post_net(s->pid, s->pid, MSG_PANIC, 0, NULL, 0, ts_list_ptr->node_id);
//The retransmission period should be INITIAL_TRANSMISSION_PERIOD
ts_list_ptr->panic_timer_counter = 1;
}
else
{
DEBUG("RATS: Removing node %d from list of parents\n", ts_list_ptr->node_id);
/* Found the item to be deleted,
re-link the list around it */
if( ts_list_ptr == s->ts_list )
/* We're deleting the head */
s->ts_list = ts_list_ptr->next;
else
ts_previous_list_ptr->next = ts_list_ptr->next;
ts_delete_list_ptr = ts_list_ptr;
ts_list_ptr = ts_list_ptr->next;
/* Free the node */
sys_free( ts_delete_list_ptr );
continue;
}
}
ts_previous_list_ptr = ts_list_ptr;
ts_list_ptr = ts_list_ptr->next;
}
//If the parent list is empty, then we're stopping the panic timer
if(s->ts_list == NULL)
{
DEBUG("RATS: Parent list is empty. Stopping panic timer\n");
#ifdef USE_PANIC_PACKETS
sys_timer_stop(PANIC_TIMER);
#endif //USE_PANIC_PACKETS
}
break;
}
default:
break;
}
return SOS_OK;
}
case MSG_PERIOD_CHANGE:
{
uint16_t temp_transmission_period;
DEBUG("RATS: Received packet for period change from %d\n", msg->saddr);
LED_DBG(LED_YELLOW_TOGGLE);
if((msg->data == NULL) || (msg->len != sizeof(uint16_t)) )
{
DEBUG("RATS: Invalid parameters in MSG_PERIOD_CHANGE\n");
break;
}
temp_transmission_period = (* (uint16_t*)(msg->data));
//Change period if:
//a)received period is smaller than period in use
//b)node that sent period is the one that has the current smallest period
//c)I am currently using myself as the node with the smallest period (used in the beginning and in transitive modes)
if((temp_transmission_period < s->ts_packet.transmission_period)
|| (s->ts_packet.min_period_node_id == msg->saddr)
|| (s->ts_packet.min_period_node_id == ker_id()) )
{
DEBUG("RATS: Changing period (new_period=%d new_node=%d). Sending to UART\n", temp_transmission_period, msg->saddr);
sys_timer_stop(TRANSMIT_TIMER);
sys_timer_stop(VALIDATION_TIMER);
#ifdef UART_DEBUG
period_packet_t * period_packet_ptr = sys_malloc(sizeof(period_packet_t));
period_packet_ptr->saddr = msg->saddr;
period_packet_ptr->old_period = s->ts_packet.transmission_period;
period_packet_ptr->new_period = temp_transmission_period;
post_uart(s->pid, s->pid, UART_PERIOD_CHANGE, sizeof(period_packet_t), period_packet_ptr, SOS_MSG_RELEASE, UART_ADDRESS);
#endif //UART_DEBUG
s->ts_packet.transmission_period = temp_transmission_period;
s->ts_packet.min_period_node_id = msg->saddr;
s->transmit_timer_counter = (uint16_t)(s->ts_packet.transmission_period / MIN_SAMPLING_PERIOD);
s->validation_timer_counter = s->transmit_timer_counter + 4;
s->validation_timer_retransmissions = TOTAL_VALIDATION_RETRANSMISSIONS;
sys_timer_start(TRANSMIT_TIMER, INITIAL_TRANSMISSION_PERIOD*1024, TIMER_REPEAT);
sys_timer_start(VALIDATION_TIMER, INITIAL_TRANSMISSION_PERIOD*1024, TIMER_REPEAT);
}
return SOS_OK;
}
case MSG_TIMESTAMP:
{
ts_packet_t *ts_packet_ptr = (ts_packet_t *)msg->data;
DEBUG("RATS: MSG_TIMESTAMP with type = %d\n", ts_packet_ptr->type);
if(ts_packet_ptr->type == NORMAL_PACKET)
{
DEBUG("RATS: Receiving timestamp data from node %d\n", msg->saddr);
if( add_values(s, msg) == TRUE)
{
LED_DBG(LED_GREEN_TOGGLE);
DEBUG("RATS: Accessed internal structure\n");
}
else
{
DEBUG("RATS: Discarding MSG_TIMESTAMP from node %d\n", msg->saddr);
}
}
else // TEST_PACKET
{
if(ker_id() == ROOT_NODE)
{
DEBUG("RATS: Receiving test data from node %d. Sending to UART\n", msg->saddr);
#ifdef UART_DEBUG
ext_packet_t * ext_packet_ptr = (ext_packet_t *)msg->data;
debug_packet_t * debug_packet_ptr = (debug_packet_t *)sys_malloc(sizeof(debug_packet_t));
debug_packet_ptr->time[0] = ticks_to_msec_float(ext_packet_ptr->time[0]);
debug_packet_ptr->time[1] = ticks_to_msec_float(ext_packet_ptr->time[1]);
debug_packet_ptr->node_id = ker_id();
debug_packet_ptr->int_parent_time = ext_packet_ptr->time[1];
post_uart(s->pid, s->pid, UART_FORWARD_EXT, sizeof(debug_packet_t), debug_packet_ptr, SOS_MSG_RELEASE, UART_ADDRESS);
#endif //UART_DEBUG
}
else
{
DEBUG("RATS: Receiving test data from node %d. Sending to parent\n", msg->saddr);
#ifdef UART_DEBUG
ext_packet_t * ext_packet_ptr = (ext_packet_t *)msg->data;
uint32_t parent_time = convert_from_mine_to_parent_time(ext_packet_ptr->time[1], ROOT_NODE);
//Break if the parent is not found in the timestamping list
if(parent_time == 0)
{
break;
}
debug_packet_t * debug_packet_ptr = (debug_packet_t *)sys_malloc(sizeof(debug_packet_t));
debug_packet_ptr->time[0] = ticks_to_msec_float(ext_packet_ptr->time[0]);
debug_packet_ptr->time[1] = ticks_to_msec_float(parent_time);
debug_packet_ptr->int_parent_time = parent_time;
debug_packet_ptr->node_id = ker_id();
post_uart(s->pid, s->pid, UART_FORWARD_EXT, sizeof(debug_packet_t), debug_packet_ptr, SOS_MSG_RELEASE, UART_ADDRESS);
#endif //UART_DEBUG
}
}
break;
}
case MSG_PERIOD_REQUEST:
{
DEBUG("RATS: Received MSG_PERIOD_REQUEST packet from node %d\n", msg->saddr);
timesync_t * temp_ts_ptr = get_timesync_ptr(s, msg->saddr);
if(temp_ts_ptr == NULL)
{
DEBUG("RATS: Discarding MSG_PERIOD_REQUEST\n");
break;
}
uint16_t *sampling_period = (uint16_t *)sys_malloc(sizeof(uint16_t));
if(sampling_period != NULL)
{
*sampling_period = temp_ts_ptr->sampling_period;
DEBUG("RATS: Sending MSG_PERIOD_REPLY packet (period=%d) to node %d\n", *sampling_period, msg->saddr);
post_net(s->pid, s->pid, MSG_PERIOD_REPLY, sizeof(uint16_t), sampling_period, SOS_MSG_RELEASE, msg->saddr);
}
break;
}
case MSG_PERIOD_REPLY:
{
uint16_t transmission_period;
DEBUG("RATS: Received MSG_PERIOD_REPLY packet from node %d\n", msg->saddr);
memcpy(&transmission_period, &msg->data[0], sizeof(transmission_period));
s->validation_timer_counter = s->transmit_timer_counter + 4;
s->validation_timer_retransmissions = TOTAL_VALIDATION_RETRANSMISSIONS;
if((transmission_period < s->validation_period) || (s->validation_node_id == ker_id() ) )
{
DEBUG("RATS: Changing VALIDATION period (new_period=%d new_node=%d)\n", transmission_period, msg->saddr);
s->validation_period = transmission_period;
s->validation_node_id = msg->saddr;
}
break;
}
case MSG_PANIC:
{
//Transmit MSG_TIMESTAMP, restart timer, recalculate value for transmit_timer_counter
sys_timer_stop(TRANSMIT_TIMER);
sys_timer_stop(VALIDATION_TIMER);
#ifdef UART_DEBUG
uint16_t *data = (uint16_t *)sys_malloc(sizeof(uint16_t));
*data = msg->saddr;
post_uart(s->pid, s->pid, UART_PANIC, sizeof(uint16_t), data, SOS_MSG_RELEASE, UART_ADDRESS);
#endif //UART_DEBUG
post_net(s->pid, s->pid, MSG_TIMESTAMP, sizeof(ts_packet_t), &s->ts_packet, 0, BCAST_ADDRESS);
s->transmit_timer_counter = (uint16_t)(s->ts_packet.transmission_period / MIN_SAMPLING_PERIOD);
s->validation_timer_counter = s->transmit_timer_counter + 4;
s->validation_timer_retransmissions = TOTAL_VALIDATION_RETRANSMISSIONS;
sys_timer_start(TRANSMIT_TIMER, INITIAL_TRANSMISSION_PERIOD*1024, TIMER_REPEAT);
sys_timer_start(VALIDATION_TIMER, INITIAL_TRANSMISSION_PERIOD*1024, TIMER_REPEAT);
break;
}
case MSG_INVALIDATE_ENTRY:
{
DEBUG("RATS: Received invalidation message from node %d\n", msg->saddr);
timesync_t * temp_ts_ptr = get_timesync_ptr(s, msg->saddr);
if(temp_ts_ptr == NULL)
{
DEBUG("RATS: Discarding MSG_INVALIDATE_ENTRY\n");
break;
}
DEBUG("RATS: Invalidation entry for node %d\n", msg->saddr);
temp_ts_ptr->packet_count = 0;
temp_ts_ptr->a = 0;
temp_ts_ptr->b = 0;
temp_ts_ptr->sampling_period = INITIAL_TRANSMISSION_PERIOD;
temp_ts_ptr->window_size = (uint8_t)BUFFER_SIZE;
temp_ts_ptr->panic_timer_counter = 5; //(s->ts_list->sampling_period / INITIAL_TRANSMISSION_PERIOD) + 4;
temp_ts_ptr->panic_timer_retransmissions = PANIC_TIMER_RETRANSMISSIONS;
memset(temp_ts_ptr->timestamps, 0, BUFFER_SIZE*sizeof(uint32_t));
memset(temp_ts_ptr->my_time, 0, BUFFER_SIZE*sizeof(uint32_t));
//Notify node to start procedure from beginning
post_net(s->pid, s->pid, MSG_RATS_SERVER_START, 0, NULL, 0, msg->saddr);
break;
}
case MSG_FINAL:
{
sys_timer_stop(TRANSMIT_TIMER);
sys_timer_stop(VALIDATION_TIMER);
#ifdef USE_PANIC_PACKETS
sys_timer_stop(PANIC_TIMER);
#endif //USE_PANIC_PACKETS
return SOS_OK;
}
default:
return -EINVAL;
}
/**
* Return SOS_OK for those handlers that have successfully been handled.
*/
return SOS_OK;
}
int SQ_Device_Write (int did, u_char *writebuf, int nbytes)
{ int ret;
ret = write ( did, writebuf, nbytes );
if ( ret == -1 ) return ( getError ( SYS, errno ) );
return ( ret );
}
int SQ_Device_Read (int did, u_char *readbuf, int tout)
{ int ret;
ret = isatty ( did );
if ( ret == 1 ) return ( SQ_Device_Read_TTY ( did, readbuf, tout ) );
else return ( getError ( INT, ERRZ24 ) );
}
void Server::tick(NetworkEvent* event)
{
event->eventCode = eNone;
// try to initialize
if (serverSock_ == INVALID_SOCKET && clientSock_ == INVALID_SOCKET)
{
serverSock_ = socket(PF_INET, SOCK_STREAM, 0);
if (serverSock_ == INVALID_SOCKET)
{
cleanup();
event->eventCode = eCreateSocketError;
return;
}
int yes = 1;
if (setsockopt(serverSock_, SOL_SOCKET, SO_REUSEADDR, (const char*)&yes, sizeof(int)) == -1)
{
cleanup();
event->eventCode = eSetReuseAddrError;
return;
}
sockaddr_in ai_addr;
memset(&ai_addr, 0, sizeof(ai_addr));
ai_addr.sin_family = AF_INET;
ai_addr.sin_addr.s_addr = htonl(INADDR_ANY);
ai_addr.sin_port = htons(port_);
if (bind(serverSock_, (sockaddr *)&ai_addr, sizeof(ai_addr)) == -1)
{
cleanup();
event->eventCode = eBindError;
return;
}
if (listen(serverSock_, BACKLOG) == -1)
{
cleanup();
event->eventCode = eListenError;
return;
}
setNonBlocking(serverSock_, true);
}
// try to accept
if (serverSock_ != INVALID_SOCKET && clientSock_ == INVALID_SOCKET)
{
sockaddr_in client_addr;
socklen_t sizeof_client_addr = sizeof(client_addr);
clientSock_ = accept(serverSock_, (sockaddr *)&client_addr, &sizeof_client_addr);
if (clientSock_ == INVALID_SOCKET)
{
if (getError() == EWOULDBLOCK2)
{
// no connections are present to be accepted, everything is ok, just return
return;
}
else
{
// there is another error
cleanup();
event->eventCode = eAcceptError;
return;
}
}
setNonBlocking(clientSock_, true);
// we close the listening serverSock_ in order to prevent more incoming connections on the same port
setNonBlocking(serverSock_, false);
closesocket(serverSock_);
serverSock_ = INVALID_SOCKET;
event->eventCode = eOtherSideConnected;
return;
}
// send and recv
if (clientSock_ != INVALID_SOCKET)
{
tickRecv(event);
if (eFirstError < event->eventCode && event->eventCode < eLastError)
{
cleanup();
return;
}
if (event->eventCode != eNone)
return;
tickSend(event);
if (eFirstError < event->eventCode && event->eventCode < eLastError)
{
cleanup();
return;
}
}
}
void Client::tick(NetworkEvent* event)
{
event->eventCode = eNone;
if (clientSock_ == INVALID_SOCKET)
{
// create socket
clientSock_ = socket(PF_INET, SOCK_STREAM, 0);
if (clientSock_ == INVALID_SOCKET)
{
cleanup();
event->eventCode = eCreateSocketError;
return;
}
setNonBlocking(clientSock_, true);
connecting_ = true;
}
if (connecting_ == true)
{
// connect
sockaddr_in ai_addr;
ai_addr.sin_family = AF_INET;
ai_addr.sin_addr.s_addr = inet_addr(ip_.c_str());
ai_addr.sin_port = htons(port_);
int c = connect(clientSock_, (struct sockaddr*)&ai_addr, sizeof(ai_addr));
if (c == 0 || getError() == EISCONN2)
{
connecting_ = false;
event->eventCode = eOtherSideConnected;
return;
}
else
{
if (getError() == EWOULDBLOCK2 || getError() == EALREADY2 || getError() == EINPROGRESS2 || getError() == EINVAL2)
{
// still trying to connect
return;
}
else
{
cleanup();
event->eventCode = eConnectError;
return;
}
}
}
// send and recv
if (clientSock_ != INVALID_SOCKET)
{
tickRecv(event);
if (eFirstError < event->eventCode && event->eventCode < eLastError)
{
cleanup();
return;
}
if (event->eventCode != eNone)
return;
tickSend(event);
if (eFirstError < event->eventCode && event->eventCode < eLastError)
{
cleanup();
return;
}
}
}
void NetworkBase::tickRecv(NetworkEvent* event)
{
const unsigned int headerSize = sizeof(unsigned int) * 3;
if (receiveData_ == 0)
{
// first allocate data for header
receiveData_ = (char*)malloc(headerSize);
receiveCurrent_ = 0;
}
if (receiveCurrent_ < headerSize)
{
// header has not arrived yet, try to get the header
unsigned int bytesToReceive = headerSize - receiveCurrent_;
int bytes = recv(clientSock_, receiveData_ + receiveCurrent_, bytesToReceive, 0);
if (bytes == 0)
{
// other side closed the connection gracefully
cleanup();
event->eventCode = eOtherSideClosedConnection;
return;
}
else if (bytes == -1)
{
if (getError() == EWOULDBLOCK2)
{
// nothing in receive queue, nothing to worry about, just return
}
else
{
// there is another error
cleanup();
event->eventCode = eOtherSideClosedConnection; // most probably other side closed the connection ungracefully.
return;
}
}
else if (bytes > 0)
{
dataReceived_ += bytes;
receiveCurrent_ += bytes;
// we grab the header, reallocate to full size
if (receiveCurrent_ == headerSize)
{
unsigned int* header = (unsigned int*)receiveData_;
receiveSize_ = header[0];
receiveId_ = header[1];
receiveType_ = header[2];
receiveData_ = (char*)realloc(receiveData_, receiveSize_);
}
}
}
else
{
// continue to recv data
unsigned int bytesToReceive = receiveSize_ - receiveCurrent_;
int bytes = recv(clientSock_, receiveData_ + receiveCurrent_, bytesToReceive, 0);
if (bytes == 0)
{
// other side closed the connection gracefully
cleanup();
event->eventCode = eOtherSideClosedConnection;
return;
}
else if (bytes == -1)
{
if (getError() == EWOULDBLOCK2)
{
// nothing in receive queue, nothing to worry about, just return
}
else
{
// there is another error
cleanup();
event->eventCode = eOtherSideClosedConnection; // most probably other side closed the connection ungracefully
return;
}
}
else if (bytes > 0)
{
dataReceived_ += bytes;
receiveCurrent_ += bytes;
if (receiveCurrent_ == receiveSize_)
{
// we finished receiving the data
if (receiveType_ == 0)
{
event->eventCode = eDataReceived;
event->data.resize(receiveSize_ - headerSize);
memcpy(&event->data[0], receiveData_ + headerSize, receiveSize_ - headerSize);
sendAck(receiveId_);
}
else if (receiveType_ == 1)
{
event->eventCode = eDataSent;
event->id = *(unsigned int*)(receiveData_ + headerSize);
}
free(receiveData_);
receiveData_ = 0;
}
}
}
}
static PyObject * oXformProperty_setValues(PyObject * self, PyObject * args)
{
ALEMBIC_TRY_STATEMENT
oXformProperty * prop = (oXformProperty*)self;
if(prop->mArchive == NULL)
{
PyErr_SetString(getError(), "Archive already closed!");
return NULL;
}
PyObject * tuple = NULL;
if(!PyArg_ParseTuple(args, "O", &tuple))
{
PyErr_SetString(getError(), "No sample tuple specified!");
return NULL;
}
if(!PyTuple_Check(tuple) && !PyList_Check(tuple))
{
PyErr_SetString(getError(), "Sample tuple argument is not a tuple!");
return NULL;
}
/*if(prop->mMembers->mXformSchema.getNumSamples() >= prop->mMaxNbSamples)
{
PyErr_SetString(getError(), "Already stored the maximum number of samples!");
return NULL;
}*/
size_t nbItems = 0;
if(PyTuple_Check(tuple))
nbItems = PyTuple_Size(tuple);
else
nbItems = PyList_Size(tuple);
if(nbItems != 16)
{
PyErr_SetString(getError(), "Sample tuple should contain 16 items!");
return NULL;
}
std::vector<double> values(16);
for(size_t i=0;i<16;i++)
{
PyObject * item = NULL;
if(PyTuple_Check(tuple))
item = PyTuple_GetItem(tuple,i);
else
item = PyList_GetItem(tuple,i);
if(!PyArg_Parse(item,"d",&values[i]))
{
PyErr_SetString(getError(), "Some item of the sample tuple is not a floating point number!");
return NULL;
}
}
Imath::M44d matrix(values[0],values[1],values[2],values[3],values[4],values[5],values[6],values[7],
values[8],values[9],values[10],values[11],values[12],values[13],values[14],values[15]);
prop->mMembers->mSample.setInheritsXforms(true);
prop->mMembers->mSample.setMatrix(matrix);
prop->mMembers->mXformSchema.set(prop->mMembers->mSample);
return Py_BuildValue("I",prop->mMembers->mXformSchema.getNumSamples());
ALEMBIC_PYOBJECT_CATCH_STATEMENT
}
int HolisticFeatureExtractor::resampleTrace(const LTKTrace& inTrace,int resamplePoints, LTKTrace& outTrace)
{
LOG( LTKLogger::LTK_LOGLEVEL_DEBUG) <<
"Entered PCAShapeRecognizer::resampleTrace" << endl;
int pointIndex; // a variable to loop over the points of a trace
int currentPointIndex =0; // index of the current point
float xSum = 0.0f; // sum of the x coordinate values
float ySum = 0.0f; // sum of the y coordinate values
int numTracePoints; // number of points in a trace
int ptIndex = 0; // index of point in a trace
float x; // an x coord value
float y; // an y coord value
float xDiff; // differenc in x direction
float yDiff; // diference in y direction
float xTemp; // temp x storage
float yTemp; // temp y storage
float unitLength = 0; // estimated length of each segment after resampling
float pointDistance;
float balanceDistance = 0; // distance between the last resampled point and
// the next raw sample point
float measuredDistance;
float m1,m2;
floatVector xVec;
floatVector resampledXVec;
floatVector yVec;
floatVector resampledYVec;
floatVector distanceVec;
numTracePoints = inTrace.getNumberOfPoints();
if(numTracePoints == 0)
{
LOG( LTKLogger::LTK_LOGLEVEL_ERR) << string(getError(EEMPTY_TRACE)) << endl;
LTKReturnError(EEMPTY_TRACE);
}
//xVec = inTrace.getChannelValues(xChannelstr);
xVec = inTrace.getChannelValues("X");
//yVec = inTrace.getChannelValues(yChannelstr);
yVec = inTrace.getChannelValues("Y");
LOG( LTKLogger::LTK_LOGLEVEL_DEBUG) <<
"resamplePoints = " , resamplePoints << endl;
if(resamplePoints < 1)
{
resamplePoints = 1;
}
if(resamplePoints == 1)
{
xSum=accumulate(xVec.begin(),xVec.end(),0.0f);
ySum=accumulate(yVec.begin(),yVec.end(),0.0f);
x = xSum/ numTracePoints; //As only 1 point is required, this ratio is computed.
y = ySum/ numTracePoints;
LOG( LTKLogger::LTK_LOGLEVEL_DEBUG) << "x mean = " << x << endl;
LOG( LTKLogger::LTK_LOGLEVEL_DEBUG) << "y mean = " << y << endl;
resampledXVec.push_back(x);
resampledYVec.push_back(y);
outTrace.addChannel(resampledXVec, xChannelstr);
outTrace.addChannel(resampledYVec, yChannelstr);
}
else if(numTracePoints <= 1)
{
x = xVec.at(0);
y = yVec.at(0);
for(pointIndex = 0; pointIndex < resamplePoints; ++pointIndex)
{
resampledXVec.push_back(x);
resampledYVec.push_back(y);
LOG( LTKLogger::LTK_LOGLEVEL_DEBUG) <<
"resampled point " << x << y << endl;
}
outTrace.addChannel(resampledXVec, xChannelstr);
outTrace.addChannel(resampledYVec, yChannelstr);
}
else
{
LOG( LTKLogger::LTK_LOGLEVEL_DEBUG) << "Point distances" << endl;
for( pointIndex = 0; pointIndex < (numTracePoints-1); ++pointIndex)
{
xDiff = xVec.at(pointIndex) - xVec.at(pointIndex+1);
yDiff = yVec.at(pointIndex) - yVec.at(pointIndex+1);
pointDistance = (float) (sqrt(xDiff*xDiff + yDiff*yDiff)); //distance between 2 points.
unitLength += pointDistance; // finding the length of trace.
distanceVec.push_back(pointDistance); //storing distances between every 2 consecutive points.
LOG( LTKLogger::LTK_LOGLEVEL_DEBUG) << "point distance: " <<
pointDistance << endl;
}
unitLength /= (resamplePoints -1);
LOG( LTKLogger::LTK_LOGLEVEL_DEBUG) <<
"unitLength = " << unitLength << endl;
x = xVec.at(0); // adding x of first point;
y = yVec.at(0); // adding y of first point;
resampledXVec.push_back(x);
resampledYVec.push_back(y);
LOG( LTKLogger::LTK_LOGLEVEL_DEBUG) << "resampled point " << x << y << endl;
for(pointIndex = 1; pointIndex < (resamplePoints-1); ++pointIndex)
{
measuredDistance = balanceDistance;
while(measuredDistance < unitLength)
{
measuredDistance += distanceVec.at(ptIndex++);
if(ptIndex == 1)
{
currentPointIndex = 1;
}
else
{
currentPointIndex++;
}
}
if(ptIndex < 1) ptIndex = 1;
m2 = measuredDistance - unitLength;
m1 = distanceVec.at(ptIndex -1) - m2;
if( fabs(m1+m2) > EPS)
{
xTemp = (m1* xVec.at(currentPointIndex) + m2* xVec.at(currentPointIndex -1))/(m1+m2);
yTemp = (m1* yVec.at(currentPointIndex) + m2* yVec.at(currentPointIndex -1))/(m1+m2);
}
else
{
xTemp = xVec.at(currentPointIndex);
yTemp = yVec.at(currentPointIndex);
}
resampledXVec.push_back(xTemp);
resampledYVec.push_back(yTemp);
LOG( LTKLogger::LTK_LOGLEVEL_DEBUG) << "resampled point " <<
xTemp << yTemp << endl;
balanceDistance = m2;
}
x = xVec.at(xVec.size() - 1); // adding x of last point;
y = yVec.at(yVec.size() - 1); // adding y of last point;
resampledXVec.push_back(x);
resampledYVec.push_back(y);
LOG( LTKLogger::LTK_LOGLEVEL_DEBUG) <<
"resampled point " << x << y << endl;
outTrace.addChannel(resampledXVec, xChannelstr);
outTrace.addChannel(resampledYVec, yChannelstr);
}
LOG( LTKLogger::LTK_LOGLEVEL_DEBUG) <<
"Exiting PCAShapeRecognizer::resampleTrace" << endl;
return SUCCESS;
}
int MprSocket::write(char *buf, int bufsize)
{
#if BLD_FEATURE_IPV6
struct addrinfo hints, *res;
struct sockaddr_storage server6;
char port_string[MPR_MAX_IP_PORT];
int rc;
#endif
struct sockaddr_in server;
struct sockaddr *sa;
MprSocklen addrlen;
int sofar, errCode, len, written;
mprAssert(buf);
mprAssert(bufsize >= 0);
mprAssert((flags & MPR_SOCKET_CLOSED) == 0);
addrlen = 0;
sa = 0;
lock();
if (flags & (MPR_SOCKET_BROADCAST | MPR_SOCKET_DATAGRAM)) {
#if BLD_FEATURE_IPV6
if (ipv6) {
memset((char *) &hints, '\0', sizeof(hints));
memset((char *) &server, '\0', sizeof(struct sockaddr_storage));
mprSprintf(port_string, sizeof(port_string), "%d", port);
hints.ai_socktype = SOCK_STREAM;
hints.ai_flags = AI_NUMERICHOST;
if (strcmp(ipAddr, "") == 0) {
// Note that IPv6 does not support broadcast, there is no
// 255.255.255.255 equiv. Multicast can be used over a specific
// link, but the user must provide that address plus %scope_id.
unlock();
return -1;
}
rc = getaddrinfo(ipAddr, port_string, &hints, &res);
if (rc) {
unlock();
return -1;
} else {
memcpy(&server, res->ai_addr, res->ai_addrlen);
addrlen = res->ai_addrlen;
freeaddrinfo(res);
}
sa = (struct sockaddr*) &server6;
} else
#endif
{
memset((char*) &server, '\0', sizeof(struct sockaddr_in));
addrlen = sizeof(struct sockaddr_in);
server.sin_family = AF_INET;
server.sin_port = htons((short) (port & 0xFFFF));
if (strcmp(ipAddr, "") != 0) {
server.sin_addr.s_addr = inet_addr(ipAddr);
} else {
server.sin_addr.s_addr = INADDR_ANY;
}
sa = (struct sockaddr*) &server;
}
}
if (flags & MPR_SOCKET_EOF) {
sofar = bufsize;
} else {
errCode = 0;
len = bufsize;
sofar = 0;
while (len > 0) {
if ((flags & MPR_SOCKET_BROADCAST) ||
(flags & MPR_SOCKET_DATAGRAM)) {
written = sendto(sock, &buf[sofar], len, MSG_NOSIGNAL, sa, addrlen);
} else {
written = send(sock, &buf[sofar], len, MSG_NOSIGNAL);
}
if (written < 0) {
errCode = getError();
if (errCode == EINTR) {
mprLog(8, log, "%d: write: EINTR\n", sock);
continue;
} else if (errCode == EAGAIN || errCode == EWOULDBLOCK) {
mprLog(8, log, "%d: write: EAGAIN returning %d\n", sock, sofar);
unlock();
return sofar;
}
mprLog(8, log, "%d: write: error %d\n", sock, -errCode);
unlock();
return -errCode;
}
len -= written;
sofar += written;
}
}
mprLog(8, log, "%d: write: %d bytes, ask %d, flags %x\n", sock, sofar, bufsize, flags);
unlock();
return sofar;
}
void UserIOHandler::OnError(BufferedSocketError)
{
ServerInstance->Users->QuitUser(user, getError());
}
void ConnectionHandler::onClosed()
{
LOG(info, "channel closed: " << addr());
requests_queue_.clear(getError() ? getError() : base::net::E_NET_HANDLER_CLOSED);
}
ElevatorLabWindow::ElevatorLabWindow(QWidget *parent) :
QMainWindow(parent),
ui(new Ui::ElevatorLabWindow)
{
ui->setupUi(this);
//Set up constants
//Positive means up for everything
/// Mass of the mass, kilograms
const double mass = 0.5;
/// Floor height, meters
const double floorHeight = 4.1;
/// Initial height above the ground, meters
//TODO when the algorithm is working: Change this to the
const double initialHeight = floorHeight * 6;
/// Time elapsed between lines in the CSV file, seconds
const double lineTime = 0.1;
//Set up loop variables
/// Velocity, meters/second
double velocity = 0;
/// Height, meters
double height = initialHeight;
//Hard-coded file path. Change this if running on another computer.
QFile csvFile("/Users/samcrow/Downloads/elevator_lab.csv");
csvFile.open(QIODevice::Text | QIODevice::ReadOnly);
//Read and ignore the first line (headers)
csvFile.readLine();
//Open the output file in the same directory as the input file
QFileInfo csvInfo(csvFile);
QString outPath = csvInfo.absoluteDir().path() + "/elevator_out.csv";
qDebug() << outPath;
QFile outFile(outPath);
outFile.open(QIODevice::Text | QIODevice::Truncate | QIODevice::WriteOnly);
outFile.write("Time, Acceleration, Velocity, Corrected Velocity, Height, Floor\n");
//Iterate through every line
while(true) {
QString line = csvFile.readLine();
//Exit condition: Leave the loop if the end of file is reached
if(line.isEmpty()) {
break;
}
QStringList parts = line.split(',');
double time = parts.at(0).trimmed().toDouble();
//The downward force, in newtons, excluding the force of gravity, that the 0.5 kg mass applies to the elevator
//If this force is negative, the elevator is accelerating upwards and applying an equal and opposite force to the mass
double forceOnElevator = parts.at(2).trimmed().toDouble();
//The equal and opposite force that the elevator applies to the mass to accelerate it
double forceOnMass = -forceOnElevator;
//f = m a
//a = f / m
double acceleration = forceOnMass / mass;
velocity += acceleration * lineTime;
/// The velocity, corrected to reduce accumulated error
double correctedVelocity = velocity - getError(time);
//Try to correct for any additional error in the corrected velocity by setting values with very small magnitudes to zero
if(qAbs<double>(correctedVelocity) < 0.1) {
correctedVelocity = 0;
}
height += correctedVelocity * lineTime;
//Calculate which floor the elevator is on
int floor = qRound(height / floorHeight);
qDebug() << "Time" << time << "\tVelocity" << velocity << "\tCorrected velocity" << correctedVelocity << "\tError" << getError(time) << "\tHeight" << height;
//Write data to the CSV file
outFile.write(QByteArray::number(time));
outFile.write(",");
outFile.write(QByteArray::number(acceleration));
outFile.write(",");
outFile.write(QByteArray::number(velocity));
outFile.write(",");
outFile.write(QByteArray::number(correctedVelocity));
outFile.write(",");
outFile.write(QByteArray::number(height));
outFile.write(",");
outFile.write(QByteArray::number(floor));
outFile.write("\n");
}
outFile.close();
csvFile.close();
}
void StateGraphViewerPanel::workerTaskLoop()
{
while (true)
{
std::unique_lock<std::mutex> Lock{TaskMutex};
// Wait until the main thread gives us a task.
TaskCV.wait(Lock);
// This indicates that we should end the worker thread because the panel is
// being destroyed.
if (!TaskAccess && !TaskProcess)
return;
// Create a graph of the process state in dot format.
auto const GraphString = workerGenerateDot();
if (GraphString.empty()) {
wxLogDebug("GraphString.empty()");
continue;
}
// The remainder of the graph generation does not use the state, so we can
// release access to the task information.
Lock.unlock();
// Write the graph to a temporary file.
llvm::SmallString<256> GraphPath;
{
int GraphFD;
auto const GraphErr =
llvm::sys::fs::createTemporaryFile("seecgraph", "dot",
GraphFD,
GraphPath);
if (GraphErr) {
wxLogDebug("Couldn't create temporary dot file: %s",
wxString(GraphErr.message()));
continue;
}
llvm::raw_fd_ostream GraphStream(GraphFD, true);
GraphStream << GraphString;
}
// Remove the temporary file when we exit this function.
auto const RemoveGraph = seec::scopeExit([&] () {
bool Existed = false;
llvm::sys::fs::remove(GraphPath.str(), Existed);
});
// Create a temporary filename for the dot result.
llvm::SmallString<256> SVGPath;
auto const SVGErr =
llvm::sys::fs::createTemporaryFile("seecgraph", "svg", SVGPath);
if (SVGErr) {
wxLogDebug("Couldn't create temporary svg file: %s",
wxString(SVGErr.message()));
continue;
}
auto const RemoveSVG = seec::scopeExit([&] () {
bool Existed = false;
llvm::sys::fs::remove(SVGPath.str(), Existed);
});
// Run dot using the temporary input/output files.
char const *Args[] = {
"dot",
"-Gfontnames=svg",
#if defined(__APPLE__)
"-Nfontname=\"Times-Roman\"",
#endif
"-o",
SVGPath.c_str(),
"-Tsvg",
GraphPath.c_str(),
nullptr
};
std::vector<char const *> Environment;
#if !defined(_WIN32)
Environment.emplace_back(PathToGraphvizLibraries.c_str());
Environment.emplace_back(PathToGraphvizPlugins.c_str());
#endif
Environment.emplace_back(nullptr);
char const **EnvPtr = Environment.size() > 1 ? Environment.data()
: nullptr;
std::string ErrorMsg;
bool ExecFailed = false;
auto const Result = HiddenExecuteAndWait(PathToDot, Args, EnvPtr, &ErrorMsg,
&ExecFailed);
if (!ErrorMsg.empty()) {
wxLogDebug("Dot failed: %s", ErrorMsg);
continue;
}
if (Result) {
// TODO: send a message to the user - possibly they have selected the
// wrong executable?
wxLogDebug("Dot returned non-zero.");
continue;
}
// Read the dot-generated SVG from the temporary file.
auto ErrorOrSVGData = llvm::MemoryBuffer::getFile(SVGPath.str());
if (!ErrorOrSVGData) {
wxLogDebug("Couldn't read temporary svg file: %s",
wxString(ErrorOrSVGData.getError().message()));
continue;
}
auto &SVGData = *ErrorOrSVGData;
auto SharedSVG = std::make_shared<std::string>(SVGData->getBufferStart(),
SVGData->getBufferEnd());
// Remove all non-print characters from the SVG and prepare it to be sent to
// the WebView via javascript.
auto SharedScript = std::make_shared<wxString>();
auto &Script = *SharedScript;
Script.reserve(SVGData->getBufferSize() + 256);
Script << "SetState(\"";
for (auto const Ch : *SharedSVG)
{
if (std::isprint(Ch)) {
if (Ch == '\\' || Ch == '"')
Script << '\\';
Script << Ch;
}
}
Script << "\");";
auto EvPtr = seec::makeUnique<GraphRenderedEvent>
(SEEC_EV_GRAPH_RENDERED,
this->GetId(),
std::move(SharedSVG),
std::move(SharedScript));
EvPtr->SetEventObject(this);
wxQueueEvent(this->GetEventHandler(), EvPtr.release());
}
}
int
main(int argc, char** argv)
{
#ifdef CH_MPI
MPI_Init(&argc, &argv);
#endif
int eekflag = 0;
{//begin forever present scoping trick
const char* in_file = "ramp.inputs";
//parse input file
ParmParse pp(0,NULL,NULL,in_file);
//define the geometry object.
//need the new and delete because of
//strong construction
//make the gometry. this makes the first Chombo_EBIS
Box domainFine, domainCoar;
Real dxFine, dxCoar;
//and defines it using a geometryservice
eekflag = makeGeometry(domainFine, dxFine);
CH_assert(eekflag == 0);
domainCoar = coarsen(domainFine, 2);
dxCoar = 2.0*dxFine;
//make grids
DisjointBoxLayout gridsFine, gridsCoar;
eekflag = makeLayout(gridsFine, domainFine);
CH_assert(eekflag == 0);
coarsen(gridsCoar, gridsFine, 2);
///create ebislayout
int nghost = 2;
EBISLayout ebislFine, ebislCoar;
eekflag = makeEBISL(ebislFine, gridsFine, domainFine, nghost);
if (eekflag != 0) return eekflag;
eekflag = makeEBISL(ebislCoar, gridsCoar, domainCoar, nghost);
if (eekflag != 0) return eekflag;
int nvar = 1;
EBCellFactory ebcellfactFine(ebislFine);
EBCellFactory ebcellfactCoar(ebislCoar);
IntVect ivghost = nghost*IntVect::Unit;
LevelData<EBCellFAB> errorFine(gridsFine, nvar,
ivghost,ebcellfactFine);
LevelData<EBCellFAB> errorCoar(gridsCoar, nvar,
ivghost,ebcellfactCoar);
eekflag = getError(errorFine,ebislFine, gridsFine, domainFine, dxFine);
if (eekflag != 0) return eekflag;
eekflag = getError(errorCoar,ebislCoar, gridsCoar, domainCoar, dxCoar);
if (eekflag != 0) return eekflag;
eekflag = compareError(errorFine, ebislFine, gridsFine, domainFine,
errorCoar, ebislCoar, gridsCoar, domainCoar);
if (eekflag != 0) return eekflag;
}//end omnipresent scoping trick
EBIndexSpace* ebisPtr = Chombo_EBIS::instance();
ebisPtr->clear();
if (eekflag == 0)
{
pout() << "aggpwlfpTest passed" << endl;
}
#ifdef CH_MPI
MPI_Finalize();
#endif
return eekflag;
}
uint8_t add_values(app_state_t *s, Message *msg)
{
timesync_t *ts_list_ptr;
ts_packet_t *ts_packet_ptr = (ts_packet_t *)msg->data;
float est_error = 0;
// Case 1: Empty list
if(s->ts_list == NULL)
{
return FALSE;
}
// Case 2: Entry found
ts_list_ptr = s->ts_list;
while(ts_list_ptr)
{
if(ts_list_ptr->node_id == msg->saddr)
{
uint8_t i;
DEBUG("RATS: Found entry for node %d\n", msg->saddr);
//first we have to move the old data one position downwards
for(i = 0; i< BUFFER_SIZE-1 ; i++)
{
ts_list_ptr->timestamps[i] = ts_list_ptr->timestamps[i+1];
ts_list_ptr->my_time[i] = ts_list_ptr->my_time[i+1];
}
//afterwards we write the new data in the last position
ts_list_ptr->timestamps[BUFFER_SIZE-1] = ts_packet_ptr->time[0];
ts_list_ptr->my_time[BUFFER_SIZE-1] = ts_packet_ptr->time[1];
//calculate error and new window size
if(ts_list_ptr->packet_count < BUFFER_SIZE) // learning state
{
ts_list_ptr->packet_count++;
DEBUG("RATS: Learning state: %d packets received\n", ts_list_ptr->packet_count);
}
else
{
getRegression(&ts_list_ptr->timestamps[0], &ts_list_ptr->my_time[0], BUFFER_SIZE,
ts_list_ptr->window_size, BUFFER_SIZE - ts_list_ptr->window_size, &ts_list_ptr->a, &ts_list_ptr->b);
DEBUG("RATS: est_error * SCALING_FACTOR = %f\n", est_error * SCALING_FACTOR);
DEBUG("RATS: LOWER_THRESHOLD * sync_precision = %f\n", LOWER_THRESHOLD * ts_list_ptr->sync_precision);
est_error = getError(&ts_list_ptr->timestamps[0], &ts_list_ptr->my_time[0], BUFFER_SIZE,
ts_list_ptr->window_size, BUFFER_SIZE - ts_list_ptr->window_size, &ts_list_ptr->a, &ts_list_ptr->b, ts_list_ptr->sampling_period, FALSE);
if( (est_error) < (LOWER_THRESHOLD * ts_list_ptr->sync_precision))
{
if( (ts_list_ptr->sampling_period * 2) <= MAX_SAMPLING_PERIOD)
ts_list_ptr->sampling_period *= 2;
else
ts_list_ptr->sampling_period = MAX_SAMPLING_PERIOD;
DEBUG("RATS: New period (doubled): %d\n", ts_list_ptr->sampling_period);
}
else if((est_error) > (HIGHER_THRESHOLD * ts_list_ptr->sync_precision))
{
if( (ts_list_ptr->sampling_period / 2) >= MIN_SAMPLING_PERIOD)
ts_list_ptr->sampling_period /= 2;
else
ts_list_ptr->sampling_period = MIN_SAMPLING_PERIOD;
DEBUG("RATS: New period (divided by 2): %d\n", ts_list_ptr->sampling_period);
}
else
{
DEBUG("RATS: Period remains constant: %d\n", ts_list_ptr->sampling_period);
}
// window size has to be in the limits of [2, BUFFER_SIZE]
uint8_t temp = (uint8_t)(TIME_CONSTANT/ts_list_ptr->sampling_period);
if((temp >= 2)&& (temp <= BUFFER_SIZE))
{
ts_list_ptr->window_size = temp;
}
else if (temp < 2)
ts_list_ptr->window_size = (uint8_t)2;
DEBUG("RATS: Current window size : %d\n", ts_list_ptr->window_size);
}
// send packet only if calculated period is less than the one used by the parent
// or if I am the node that has the minimum period or if transmitter has set
// his id equal to the id with the minimum period (used in transitive modes)
if((ts_list_ptr->sampling_period < ts_packet_ptr->transmission_period)
|| (ts_packet_ptr->min_period_node_id == ker_id())
|| (ts_packet_ptr->min_period_node_id == msg->saddr) )
{
DEBUG("RATS: new_period=min OR I am min_period_node => transmit new_period\n");
post_net(s->pid, s->pid, MSG_PERIOD_CHANGE, sizeof(uint16_t),
&ts_list_ptr->sampling_period, 0, msg->saddr);
}
//Update fields for panic packets
ts_list_ptr->panic_timer_retransmissions = PANIC_TIMER_RETRANSMISSIONS;
ts_list_ptr->panic_timer_counter = (ts_list_ptr->sampling_period / INITIAL_TRANSMISSION_PERIOD) + 4;
LED_DBG(LED_YELLOW_TOGGLE);
#ifdef UART_DEBUG
send_debug_packet(s, ts_packet_ptr, est_error);
#endif //UART_DEBUG
return TRUE;
}
if(ts_list_ptr->next != NULL)
ts_list_ptr = ts_list_ptr->next;
else
break;
}
// Case 3: Entry not found
return FALSE;
}
RawSocketDevice::RecvPacketResult RawSocketDevice::receivePacket(RawPacket& rawPacket, bool blocking, int timeout)
{
#if defined(WIN32) || defined(WINx64) || defined(PCAPPP_MINGW_ENV)
if (!isOpened())
{
LOG_ERROR("Device is not open");
return RecvError;
}
SOCKET fd = ((SocketContainer*)m_Socket)->fd;
char* buffer = new char[RAW_SOCKET_BUFFER_LEN];
memset(buffer, 0, RAW_SOCKET_BUFFER_LEN);
// value of 0 timeout means disabling timeout
if (timeout < 0)
timeout = 0;
u_long blockingMode = (blocking? 0 : 1);
ioctlsocket(fd, FIONBIO, &blockingMode);
DWORD timeoutVal = timeout * 1000;
setsockopt(fd, SOL_SOCKET, SO_RCVTIMEO, (const char*)&timeoutVal, sizeof(timeoutVal));
//recvfrom(fd, buffer, RAW_SOCKET_BUFFER_LEN, 0, (struct sockaddr*)&sockAddr,(socklen_t*)&sockAddrLen);
int bufferLen = recv(fd, buffer, RAW_SOCKET_BUFFER_LEN, 0);
if (bufferLen < 0)
{
delete [] buffer;
int errorCode = 0;
RecvPacketResult error = getError(errorCode);
if (error == RecvError)
LOG_ERROR("Error reading from recvfrom. Error code is %d", errorCode);
return error;
}
if (bufferLen > 0)
{
timeval time;
gettimeofday(&time, NULL);
rawPacket.setRawData((const uint8_t*)buffer, bufferLen, time, LINKTYPE_DLT_RAW1);
return RecvSuccess;
}
LOG_ERROR("Buffer length is zero");
delete [] buffer;
return RecvError;
#elif LINUX
if (!isOpened())
{
LOG_ERROR("Device is not open");
return RecvError;
}
int fd = ((SocketContainer*)m_Socket)->fd;
char* buffer = new char[RAW_SOCKET_BUFFER_LEN];
memset(buffer, 0, RAW_SOCKET_BUFFER_LEN);
// value of 0 timeout means disabling timeout
if (timeout < 0)
timeout = 0;
// set blocking or non-blocking flag
int flags = fcntl(fd, F_GETFL, 0);
if (flags == -1)
{
LOG_ERROR("Cannot get socket flags");
return RecvError;
}
flags = (blocking ? (flags & ~O_NONBLOCK) : (flags | O_NONBLOCK));
if (fcntl(fd, F_SETFL, flags) != 0)
{
LOG_ERROR("Cannot set socket non-blocking flag");
return RecvError;
}
// set timeout on socket
struct timeval timeoutVal;
timeoutVal.tv_sec = timeout;
timeoutVal.tv_usec = 0;
setsockopt(fd, SOL_SOCKET, SO_RCVTIMEO, (const char*)&timeoutVal, sizeof(timeoutVal));
int bufferLen = recv(fd, buffer, RAW_SOCKET_BUFFER_LEN, 0);
if (bufferLen < 0)
{
delete [] buffer;
int errorCode = errno;
RecvPacketResult error = getError(errorCode);
if (error == RecvError)
LOG_ERROR("Error reading from recvfrom. Error code is %d", errorCode);
return error;
}
if (bufferLen > 0)
{
timeval time;
gettimeofday(&time, NULL);
rawPacket.setRawData((const uint8_t*)buffer, bufferLen, time, LINKTYPE_ETHERNET);
return RecvSuccess;
}
LOG_ERROR("Buffer length is zero");
delete [] buffer;
return RecvError;
#else
LOG_ERROR("Raw socket are not supported on this platform");
return RecvError;
#endif
}
// wrapper around the reference Punycode implementation
static int32_t convertToPuny(const UChar* src, int32_t srcLength,
UChar* dest, int32_t destCapacity,
UErrorCode& status){
uint32_t b1Stack[MAX_LABEL_BUFFER_SIZE];
int32_t b1Len = 0, b1Capacity = MAX_LABEL_BUFFER_SIZE;
uint32_t* b1 = b1Stack;
char b2Stack[MAX_LABEL_BUFFER_SIZE];
char* b2 = b2Stack;
int32_t b2Len =MAX_LABEL_BUFFER_SIZE ;
punycode_status error;
unsigned char* caseFlags = NULL;
u_strToUTF32((UChar32*)b1,b1Capacity,&b1Len,src,srcLength,&status);
if(status == U_BUFFER_OVERFLOW_ERROR){
// redo processing of string
/* we do not have enough room so grow the buffer*/
b1 = (uint32_t*) uprv_malloc(b1Len * sizeof(uint32_t));
if(b1==NULL){
status = U_MEMORY_ALLOCATION_ERROR;
goto CLEANUP;
}
status = U_ZERO_ERROR; // reset error
u_strToUTF32((UChar32*)b1,b1Len,&b1Len,src,srcLength,&status);
}
if(U_FAILURE(status)){
goto CLEANUP;
}
//caseFlags = (unsigned char*) uprv_malloc(b1Len *sizeof(unsigned char));
error = punycode_encode(b1Len,b1,caseFlags, (uint32_t*)&b2Len, b2);
status = getError(error);
if(status == U_BUFFER_OVERFLOW_ERROR){
/* we do not have enough room so grow the buffer*/
b2 = (char*) uprv_malloc( b2Len * sizeof(char));
if(b2==NULL){
status = U_MEMORY_ALLOCATION_ERROR;
goto CLEANUP;
}
status = U_ZERO_ERROR; // reset error
punycode_status error = punycode_encode(b1Len,b1,caseFlags, (uint32_t*)&b2Len, b2);
status = getError(error);
}
if(U_FAILURE(status)){
goto CLEANUP;
}
if(b2Len < destCapacity){
convertASCIIToUChars(b2,dest,b2Len);
}else{
status =U_BUFFER_OVERFLOW_ERROR;
}
CLEANUP:
if(b1Stack != b1){
uprv_free(b1);
}
if(b2Stack != b2){
uprv_free(b2);
}
uprv_free(caseFlags);
return b2Len;
}
int MprSocket::read(char *buf, int bufsize)
{
#if BLD_FEATURE_IPV6
struct sockaddr_storage server6;
#endif
struct sockaddr_in server;
struct sockaddr *sa;
MprSocklen addrlen;
int bytes, errCode;
mprAssert(buf);
mprAssert(bufsize > 0);
mprAssert(~(flags & MPR_SOCKET_CLOSED));
lock();
if (flags & MPR_SOCKET_EOF) {
unlock();
return 0;
}
again:
if (flags & MPR_SOCKET_DATAGRAM) {
#if BLD_FEATURE_IPV6
if (ipv6) {
sa = (struct sockaddr*) &server6;
addrlen = sizeof(server6);
} else
#endif
{
sa = (struct sockaddr*) &server;
addrlen = sizeof(server);
}
bytes = recvfrom(sock, buf, bufsize, MSG_NOSIGNAL, sa, (SocketLenPtr) &addrlen);
} else {
bytes = recv(sock, buf, bufsize, MSG_NOSIGNAL);
}
if (bytes < 0) {
errCode = getError();
if (errCode == EINTR) {
goto again;
} else if (errCode == EAGAIN || errCode == EWOULDBLOCK) {
bytes = 0; // No data available
} else if (errCode == ECONNRESET) {
flags |= MPR_SOCKET_EOF; // Disorderly disconnect
bytes = 0;
} else {
flags |= MPR_SOCKET_EOF; // Some other error
bytes = -errCode;
}
} else if (bytes == 0) { // EOF
flags |= MPR_SOCKET_EOF;
mprLog(8, log, "%d: read: %d bytes, EOF\n", sock, bytes);
} else {
mprLog(8, log, "%d: read: %d bytes\n", sock, bytes);
}
unlock();
return bytes;
}
void EmitterSystem::init(bool firsttime)
{
std::cout << "-> Initialize particles as a circle." << std::endl;
cl_int err = 0;
std::random_device rd;
std::mt19937 eng(rd());
std::uniform_real_distribution<float> dist(1.f, 3.5f);
std::uniform_real_distribution<float> dist_life(0.1f, 1.5f);
std::uniform_real_distribution<float> dist_vel(0.f, 1.f);
std::uniform_real_distribution<float> dist_polar(0.f, Pi2);
std::uniform_real_distribution<float> dist_half_polar(-PiDiv2, PiDiv2);
glBindBuffer(GL_ARRAY_BUFFER, m_vbo[Index::Particles]);
Particle *p = static_cast<Particle*>(glMapBuffer(GL_ARRAY_BUFFER, GL_WRITE_ONLY));
for (std::size_t i = 0; i < m_particleCount; i++)
p[i].position = Vector3(0.f, 0.f, 0.f);
if (firsttime)
{
m_glBuffer[Index::Particles] = cl::BufferGL(getContext(), CL_MEM_READ_WRITE, m_vbo[Index::Particles], &err);
if (err)
std::cout << "ERROR (" << getError(err) << "): kernel loading failed." << std::endl;
m_clBuffer[Index::Particles] = cl::Buffer(getContext(), CL_MEM_READ_WRITE, m_particleCount * sizeof(Particle), NULL, &err);
}
err = getQueue().enqueueWriteBuffer(m_clBuffer[Index::Particles], CL_TRUE, 0, m_particleCount * sizeof(Particle), p);
if (err)
std::cout << "ERROR -> " << getError(err) << std::endl;
glUnmapBuffer(GL_ARRAY_BUFFER);
glBindBuffer(GL_ARRAY_BUFFER, m_vbo[Index::Velocity]);
Vector3 * v = static_cast<Vector3*>(glMapBuffer(GL_ARRAY_BUFFER, GL_WRITE_ONLY));
for (std::size_t i = 0; i < m_particleCount; i++)
{
Vector3 vec = Vector3(dist(eng), dist(eng), dist(eng));
v[i * 2 + 0] = vec;
v[i * 2 + 1] = vec;
}
if (firsttime)
{
m_glBuffer[Index::Velocity] = cl::BufferGL(getContext(), CL_MEM_READ_WRITE, m_vbo[Index::Velocity], &err);
if (err)
std::cout << "ERROR (" << getError(err) << "): kernel loading failed." << std::endl;
m_clBuffer[Index::Velocity] = cl::Buffer(getContext(), CL_MEM_READ_WRITE, 2 * m_particleCount * sizeof(Vector3), NULL, &err);
if (err)
std::cout << "ERROR (" << err << ")" << getError(err) << std::endl;
}
err = getQueue().enqueueWriteBuffer(m_clBuffer[Index::Velocity], CL_TRUE, 0, 2 * m_particleCount * sizeof(Vector3), v);
if (err)
std::cout << "ERROR -> " << getError(err) << std::endl;
glUnmapBuffer(GL_ARRAY_BUFFER);
glBindBuffer(GL_ARRAY_BUFFER, m_vbo[Index::Life]);
float *l = static_cast<float*>(glMapBuffer(GL_ARRAY_BUFFER, GL_WRITE_ONLY));
for (std::size_t i = 0; i < m_particleCount; i++)
{
l[i * 2 + 0] = 0.f;
l[i * 2 + 1] = dist_life(eng);
}
if (firsttime)
{
m_glBuffer[Index::Life] = cl::BufferGL(getContext(), CL_MEM_READ_WRITE, m_vbo[Index::Life], &err);
if (err)
std::cout << "ERROR (" << getError(err) << "): kernel loading failed." << std::endl;
m_clBuffer[Index::Life] = cl::Buffer(getContext(), CL_MEM_READ_WRITE, 2 * m_particleCount * sizeof(float), NULL, &err);
if (err)
std::cout << "ERROR (" << err << ")" << getError(err) << std::endl;
}
err = getQueue().enqueueWriteBuffer(m_clBuffer[Index::Life], CL_TRUE, 0, 2 * m_particleCount * sizeof(float), l);
if (err)
std::cout << "ERROR -> " << getError(err) << std::endl;
glUnmapBuffer(GL_ARRAY_BUFFER);
}
int MprSocket::openClient(char *addr, int portNum, int initialFlags)
{
#if BLD_FEATURE_IPV6
struct addrinfo hints, *res;
struct sockaddr_storage remoteAddr6;
char portNum_string[MPR_MAX_IP_PORT];
char addrBuf[MPR_MAX_IP_ADDR];
#endif
struct sockaddr_in remoteAddr;
struct hostent *hostent;
struct sockaddr *sa;
MprSocklen addrlen;
int broadcast, datagram, rc, err;
mprLog(6, log, "openClient: %s:%d, flags %x\n", addr, portNum,
initialFlags);
#if BLD_FEATURE_IPV6
if (addr[0] == '[') {
ipv6 = 1;
mprStrcpy(addrBuf, sizeof(addr), &addr[1]);
mprAssert(addrBuf[strlen(addrBuf) - 2] == ']');
addrBuf[strlen(addrBuf) - 2] = '\0';
addr = addrBuf;
} else {
ipv6 = 0;
}
if (ipv6) {
memset((char*) &hints, '\0', sizeof(hints));
memset((char*) &remoteAddr6, '\0', sizeof(struct sockaddr_storage));
mprSprintf(portNum_string, sizeof(portNum_string), "%d", portNum);
hints.ai_socktype = SOCK_STREAM;
rc = getaddrinfo(addr, portNum_string, &hints, &res);
if (rc) {
/* no need to unlock yet */
return MPR_ERR_CANT_OPEN;
}
sa = (struct sockaddr*) &remoteAddr6;
memcpy(sa, res->ai_addr, res->ai_addrlen);
addrlen = res->ai_addrlen;
freeaddrinfo(res);
} else
#endif
{
memset((char *) &remoteAddr, '\0', sizeof(struct sockaddr_in));
remoteAddr.sin_family = AF_INET;
remoteAddr.sin_port = htons((short) (portNum & 0xFFFF));
sa = (struct sockaddr*) &remoteAddr;
addrlen = sizeof(remoteAddr);
}
lock();
port = portNum;
flags = (initialFlags &
(MPR_SOCKET_BROADCAST | MPR_SOCKET_DATAGRAM | MPR_SOCKET_BLOCK |
MPR_SOCKET_LISTENER | MPR_SOCKET_NOREUSE | MPR_SOCKET_NODELAY));
// Save copy of the address
ipAddr = mprStrdup(addr);
#if BLD_FEATURE_IPV6
if (!ipv6) {
// Nothing here
} else
#endif
{
remoteAddr.sin_addr.s_addr = inet_addr(ipAddr);
if (remoteAddr.sin_addr.s_addr == INADDR_NONE) {
hostent = mprGetHostByName(ipAddr);
if (hostent != 0) {
memcpy((char*) &remoteAddr.sin_addr, (char*) hostent->h_addr_list[0],
(size_t) hostent->h_length);
mprFreeGetHostByName(hostent);
} else {
unlock();
return MPR_ERR_NOT_FOUND;
}
}
}
broadcast = flags & MPR_SOCKET_BROADCAST;
if (broadcast) {
flags |= MPR_SOCKET_DATAGRAM;
}
datagram = flags & MPR_SOCKET_DATAGRAM;
//
// Create the O/S socket
//
sock = socket(sa->sa_family, datagram ? SOCK_DGRAM: SOCK_STREAM, 0);
if (sock < 0) {
err = getError();
unlock();
return -err;
}
#if !WIN && !WINCE && !VXWORKS
fcntl(sock, F_SETFD, FD_CLOEXEC); // Children won't inherit this fd
#endif
if (broadcast) {
int flag = 1;
if (setsockopt(sock, SOL_SOCKET, SO_BROADCAST, (char *) &flag, sizeof(flag)) < 0) {
err = getError();
::closesocket(sock);
sock = -1;
unlock();
return -err;
}
}
if (!datagram) {
flags |= MPR_SOCKET_CONNECTING;
rc = connect(sock, sa, addrlen);
if (rc < 0) {
err = getError();
::closesocket(sock);
sock = -1;
unlock();
#if UNUSED
//
// If the listen backlog is too high, ECONNREFUSED is returned
//
if (err == EADDRINUSE || err == ECONNREFUSED) {
return MPR_ERR_BUSY;
}
#endif
return -err;
}
}
setBlockingMode((bool) (flags & MPR_SOCKET_BLOCK));
//
// TCP/IP stacks have the No delay option (nagle algorithm) on by default.
//
if (flags & MPR_SOCKET_NODELAY) {
setNoDelay(1);
}
unlock();
return sock;
}
virtual void run()
{
fTraceInfo = 1;
LocalPointer<NumberFormat> percentFormatter;
UErrorCode status = U_ZERO_ERROR;
#if 0
// debugging code,
for (int i=0; i<4000; i++) {
status = U_ZERO_ERROR;
UDataMemory *data1 = udata_openChoice(0, "res", "en_US", isAcceptable, 0, &status);
UDataMemory *data2 = udata_openChoice(0, "res", "fr", isAcceptable, 0, &status);
udata_close(data1);
udata_close(data2);
if (U_FAILURE(status)) {
error("udata_openChoice failed.\n");
break;
}
}
return;
#endif
#if 0
// debugging code,
int m;
for (m=0; m<4000; m++) {
status = U_ZERO_ERROR;
UResourceBundle *res = NULL;
const char *localeName = NULL;
Locale loc = Locale::getEnglish();
localeName = loc.getName();
// localeName = "en";
// ResourceBundle bund = ResourceBundle(0, loc, status);
//umtx_lock(&gDebugMutex);
res = ures_open(NULL, localeName, &status);
//umtx_unlock(&gDebugMutex);
//umtx_lock(&gDebugMutex);
ures_close(res);
//umtx_unlock(&gDebugMutex);
if (U_FAILURE(status)) {
error("Resource bundle construction failed.\n");
break;
}
}
return;
#endif
// Keep this data here to avoid static initialization.
FormatThreadTestData kNumberFormatTestData[] =
{
FormatThreadTestData((double)5.0, UnicodeString("5", "")),
FormatThreadTestData( 6.0, UnicodeString("6", "")),
FormatThreadTestData( 20.0, UnicodeString("20", "")),
FormatThreadTestData( 8.0, UnicodeString("8", "")),
FormatThreadTestData( 8.3, UnicodeString("8.3", "")),
FormatThreadTestData( 12345, UnicodeString("12,345", "")),
FormatThreadTestData( 81890.23, UnicodeString("81,890.23", "")),
};
int32_t kNumberFormatTestDataLength = (int32_t)(sizeof(kNumberFormatTestData) /
sizeof(kNumberFormatTestData[0]));
// Keep this data here to avoid static initialization.
FormatThreadTestData kPercentFormatTestData[] =
{
FormatThreadTestData((double)5.0, CharsToUnicodeString("500\\u00a0%")),
FormatThreadTestData( 1.0, CharsToUnicodeString("100\\u00a0%")),
FormatThreadTestData( 0.26, CharsToUnicodeString("26\\u00a0%")),
FormatThreadTestData(
16384.99, CharsToUnicodeString("1\\u00a0638\\u00a0499\\u00a0%")), // U+00a0 = NBSP
FormatThreadTestData(
81890.23, CharsToUnicodeString("8\\u00a0189\\u00a0023\\u00a0%")),
};
int32_t kPercentFormatTestDataLength =
(int32_t)(sizeof(kPercentFormatTestData) / sizeof(kPercentFormatTestData[0]));
int32_t iteration;
status = U_ZERO_ERROR;
LocalPointer<NumberFormat> formatter(NumberFormat::createInstance(Locale::getEnglish(),status));
if(U_FAILURE(status)) {
error("Error on NumberFormat::createInstance().");
goto cleanupAndReturn;
}
percentFormatter.adoptInstead(NumberFormat::createPercentInstance(Locale::getFrench(),status));
if(U_FAILURE(status)) {
error("Error on NumberFormat::createPercentInstance().");
goto cleanupAndReturn;
}
for(iteration = 0;!getError() && iteration<kFormatThreadIterations;iteration++)
{
int32_t whichLine = (iteration + fOffset)%kNumberFormatTestDataLength;
UnicodeString output;
formatter->format(kNumberFormatTestData[whichLine].number, output);
if(0 != output.compare(kNumberFormatTestData[whichLine].string)) {
error("format().. expected " + kNumberFormatTestData[whichLine].string
+ " got " + output);
goto cleanupAndReturn;
}
// Now check percent.
output.remove();
whichLine = (iteration + fOffset)%kPercentFormatTestDataLength;
percentFormatter->format(kPercentFormatTestData[whichLine].number, output);
if(0 != output.compare(kPercentFormatTestData[whichLine].string))
{
error("percent format().. \n" +
showDifference(kPercentFormatTestData[whichLine].string,output));
goto cleanupAndReturn;
}
// Test message error
const int kNumberOfMessageTests = 3;
UErrorCode statusToCheck;
UnicodeString patternToCheck;
Locale messageLocale;
Locale countryToCheck;
double currencyToCheck;
UnicodeString expected;
// load the cases.
switch((iteration+fOffset) % kNumberOfMessageTests)
{
default:
case 0:
statusToCheck= U_FILE_ACCESS_ERROR;
patternToCheck= "0:Someone from {2} is receiving a #{0}"
" error - {1}. Their telephone call is costing "
"{3,number,currency}."; // number,currency
messageLocale= Locale("en","US");
countryToCheck= Locale("","HR");
currencyToCheck= 8192.77;
expected= "0:Someone from Croatia is receiving a #4 error - "
"U_FILE_ACCESS_ERROR. Their telephone call is costing $8,192.77.";
break;
case 1:
statusToCheck= U_INDEX_OUTOFBOUNDS_ERROR;
patternToCheck= "1:A customer in {2} is receiving a #{0} error - {1}. Their telephone call is costing {3,number,currency}."; // number,currency
messageLocale= Locale("de","DE@currency=DEM");
countryToCheck= Locale("","BF");
currencyToCheck= 2.32;
expected= CharsToUnicodeString(
"1:A customer in Burkina Faso is receiving a #8 error - U_INDEX_OUTOFBOUNDS_ERROR. Their telephone call is costing 2,32\\u00A0DM.");
break;
case 2:
statusToCheck= U_MEMORY_ALLOCATION_ERROR;
patternToCheck= "2:user in {2} is receiving a #{0} error - {1}. "
"They insist they just spent {3,number,currency} "
"on memory."; // number,currency
messageLocale= Locale("de","AT@currency=ATS"); // Austrian German
countryToCheck= Locale("","US"); // hmm
currencyToCheck= 40193.12;
expected= CharsToUnicodeString(
"2:user in Vereinigte Staaten is receiving a #7 error"
" - U_MEMORY_ALLOCATION_ERROR. They insist they just spent"
" \\u00f6S\\u00A040.193,12 on memory.");
break;
}
UnicodeString result;
UErrorCode status = U_ZERO_ERROR;
formatErrorMessage(status,patternToCheck,messageLocale,statusToCheck,
countryToCheck,currencyToCheck,result);
if(U_FAILURE(status))
{
UnicodeString tmp(u_errorName(status));
error("Failure on message format, pattern=" + patternToCheck +
", error = " + tmp);
goto cleanupAndReturn;
}
if(result != expected)
{
error("PatternFormat: \n" + showDifference(expected,result));
goto cleanupAndReturn;
}
} /* end of for loop */
cleanupAndReturn:
// while (fNum == 4) {SimpleThread::sleep(10000);} // Force a failure by preventing thread from finishing
fTraceInfo = 2;
}
void MprSocket::acceptProc(int isMprPoolThread)
{
MprSocket *nsp;
MprSocketService *ss;
#if BLD_FEATURE_IPV6
struct sockaddr_storage addr6;
char hbuf[NI_MAXHOST]; char sbuf[NI_MAXSERV];
int rc;
#endif
struct sockaddr_in addr;
struct sockaddr *sa;
char callerIpAddr[MPR_MAX_IP_ADDR];
MprSocklen addrlen;
int fd, max, numClients;
if (acceptCallback == 0) {
return;
}
lock();
#if BLD_FEATURE_IPV6
if (ipv6) {
sa = (struct sockaddr*) &addr6;
addrlen = sizeof(addr6);
} else
#endif
{
sa = (struct sockaddr*) &addr;
addrlen = sizeof(addr);
}
fd = accept(sock, sa, (SocketLenPtr) &addrlen);
if (fd < 0) {
mprLog(0, log, "%d: acceptProc: accept failed %d\n", sock, getError());
unlock();
return;
}
#if !WIN && !WINCE && !VXWORKS
fcntl(fd, F_SETFD, FD_CLOEXEC); // Prevent children inheriting
#endif
ss = mprGetMpr()->socketService;
max = ss->getMaxClients();
numClients = ss->getNumClients();
if (max > 0 && numClients >= max) {
mprLog(3, "Rejecting connection, too many client connections (%d)\n", numClients);
#if CYGWIN || LINUX || MACOSX || SOLARIS || VXWORKS || FREEBSD
shutdown(fd, MPR_SHUTDOWN_BOTH);
#endif
::closesocket(fd);
mprGetMpr()->selectService->awaken(0);
unlock();
return;
}
nsp = newSocket();
nsp->lock();
nsp->sock = fd;
nsp->ipAddr = mprStrdup(ipAddr);
nsp->acceptData = acceptData;
nsp->ioData = ioData;
nsp->ioData2 = ioData2;
nsp->port = port;
nsp->acceptCallback = acceptCallback;
nsp->flags = flags;
nsp->flags &= ~MPR_SOCKET_LISTENER;
nsp->setBlockingMode((nsp->flags & MPR_SOCKET_BLOCK) ? 1: 0);
if (nsp->flags & MPR_SOCKET_NODELAY) {
nsp->setNoDelay(1);
}
nsp->inUse++;
mprLog(6, log, "%d: acceptProc: isMprPoolThread %d, newSock %d\n", sock, isMprPoolThread, fd);
nsp->unlock();
//
// Call the user accept callback.
//
#if BLD_FEATURE_IPV6
if (ipv6) {
rc = getnameinfo(sa, addrlen, hbuf, sizeof(hbuf), sbuf, sizeof(sbuf),
NI_NUMERICHOST | NI_NUMERICSERV);
if (rc) {
mprError(MPR_L, MPR_LOG, "Exiting acceptProc with failed getnameinfo");
delete nsp;
return;
}
(nsp->acceptCallback)(nsp->acceptData, nsp, hbuf, atoi(sbuf), this, isMprPoolThread);
} else
#endif
{
mprInetNtoa(callerIpAddr, sizeof(callerIpAddr), addr.sin_addr);
(nsp->acceptCallback)(nsp->acceptData, nsp, callerIpAddr,
ntohs(addr.sin_port), this, isMprPoolThread);
}
nsp->lock();
if (--nsp->inUse == 0 && nsp->flags & MPR_SOCKET_DISPOSED) {
mprLog(9, log, "%d: acceptProc: Leaving deleted\n", sock);
delete nsp;
} else{
nsp->unlock();
}
unlock();
}
bool Pipe::_configInitWGLEW()
{
//----- Create and make current a temporary GL context to initialize WGLEW
// window class
std::ostringstream className;
className << "TMP" << (void*)this;
const std::string& classStr = className.str();
HINSTANCE instance = GetModuleHandle( 0 );
WNDCLASS wc = { 0 };
wc.lpfnWndProc = DefWindowProc;
wc.hInstance = instance;
wc.hIcon = LoadIcon( 0, IDI_WINLOGO );
wc.hCursor = LoadCursor( 0, IDC_ARROW );
wc.lpszClassName = classStr.c_str();
if( !RegisterClass( &wc ))
{
setError( ERROR_WGLPIPE_REGISTERCLASS_FAILED );
EQWARN << getError() << ": " << co::base::sysError << std::endl;
return false;
}
// window
DWORD windowStyleEx = WS_EX_APPWINDOW;
DWORD windowStyle = WS_CLIPSIBLINGS | WS_CLIPCHILDREN | WS_OVERLAPPEDWINDOW;
HWND hWnd = CreateWindowEx( windowStyleEx,
wc.lpszClassName, "TMP",
windowStyle, 0, 0, 1, 1,
0, 0, // parent, menu
instance, 0 );
if( !hWnd )
{
setError( ERROR_SYSTEMPIPE_CREATEWINDOW_FAILED );
EQWARN << getError() << ": " << co::base::sysError << std::endl;
UnregisterClass( classStr.c_str(), instance );
return false;
}
HDC dc = GetDC( hWnd );
PIXELFORMATDESCRIPTOR pfd = {0};
pfd.nSize = sizeof(PIXELFORMATDESCRIPTOR);
pfd.nVersion = 1;
pfd.dwFlags = PFD_DRAW_TO_WINDOW |
PFD_SUPPORT_OPENGL;
int pf = ChoosePixelFormat( dc, &pfd );
if( pf == 0 )
{
setError( ERROR_SYSTEMPIPE_PIXELFORMAT_NOTFOUND );
EQWARN << getError() << ": " << co::base::sysError << std::endl;
DestroyWindow( hWnd );
UnregisterClass( classStr.c_str(), instance );
return false;
}
if( !SetPixelFormat( dc, pf, &pfd ))
{
setError( ERROR_WGLPIPE_SETPF_FAILED );
EQWARN << getError() << ": " << co::base::sysError << std::endl;
ReleaseDC( hWnd, dc );
DestroyWindow( hWnd );
UnregisterClass( classStr.c_str(), instance );
return false;
}
// context
HGLRC context = wglCreateContext( dc );
if( !context )
{
setError( ERROR_SYSTEMPIPE_CREATECONTEXT_FAILED );
EQWARN << getError() << ": " << co::base::sysError << std::endl;
ReleaseDC( hWnd, dc );
DestroyWindow( hWnd );
UnregisterClass( classStr.c_str(), instance );
return false;
}
HDC oldDC = wglGetCurrentDC();
HGLRC oldContext = wglGetCurrentContext();
wglMakeCurrent( dc, context );
const GLenum result = wglewInit();
bool success = result == GLEW_OK;
if( success )
{
EQINFO << "Pipe WGLEW initialization successful" << std::endl;
success = configInitGL();
}
else
{
setError( ERROR_WGLPIPE_WGLEWINIT_FAILED );
EQWARN << getError() << ": " << result << std::endl;
}
wglDeleteContext( context );
ReleaseDC( hWnd, dc );
DestroyWindow( hWnd );
UnregisterClass( classStr.c_str(), instance );
wglMakeCurrent( oldDC, oldContext );
return success;
}
EFI_STATUS efi_main(EFI_HANDLE ImageHandle, EFI_SYSTEM_TABLE *SystemTable)
{
InitializeLib(ImageHandle, SystemTable);
CallConstructors();
EFI_STATUS Status;
const char16_t* searchdir = u"\\EFI\\ChaiOS\\";
if (Status = SetWorkingDirectory(searchdir))
printf(u"Error setting working directory: %s\r\n", getError(Status));
CHAIOS_BOOT_FILES* bootfile = nullptr;
while (bootfile = iterateBootFiles(bootfile))
{
if (bootfile->loadLocation != nullptr)
continue; //Support in-memory images
EFI_FILE* file = OpenFile(bootfile->fileName, "r");
if (!file)
{
printf(u"Error: could not open %s: %s\r\n", bootfile->fileName, getError(getErrno()));
}
UINT64 fileSize = GetFileSize(file);
VOID* bootfilebuf = kmalloc(fileSize+1);
UINTN read = ReadFile(bootfilebuf, 1, fileSize, file);
if (read < fileSize)
printf(u"Read %d bytes, failed\r\n", read);
else
printf(u"Successfully read %d bytes\r\n", read);
//Boot file is now loaded into memory
CloseFile(file);
bootfile->loadLocation = bootfilebuf;
bootfile->fileSize = fileSize;
if (bootfile->bootType == CHAIOS_BOOT_CONFIGURATION)
{
//We need to parse this now. INI format
((char*)bootfilebuf)[fileSize] = '\0';
ini_parse_string((const char*)bootfilebuf, &bootini_handler, nullptr);
}
}
//size_t value = GetIntegerInput(u"Enter scrolling lines configuration: ");
//set_scrolllines(value);
UINT32 AutoMode = IterateGraphicsMode(&match_config_resoultion);
EFI_GRAPHICS_OUTPUT_MODE_INFORMATION* info; UINTN SizeOfInfo;
if (AutoMode == UINT32_MAX)
{
if (!EFI_ERROR(GetGraphicsModeInfo(AutoMode, &info, &SizeOfInfo)))
{
IterateGraphicsMode(&print_graphics_mode);
size_t value = GetIntegerInput(u"Enter boot graphics mode: ");
SetGraphicsMode(value);
AutoMode = value;
}
}
else
{
SetGraphicsMode(AutoMode);
}
if (!EFI_ERROR(GetGraphicsModeInfo(AutoMode, &info, &SizeOfInfo)))
{
printf(u"Graphics mode %d: %dx%d\r\n", AutoMode, info->HorizontalResolution, info->VerticalResolution);
}
puts(u"ChaiOS 0.09 UEFI Loader\r\n");
int majorver = SystemTable->Hdr.Revision / (1 << 16);
int minorver = SystemTable->Hdr.Revision % (1 << 16);
printf(u"Firmware Vendor: %s, version: %d (UEFI:%d.%d)\r\n", SystemTable->FirmwareVendor, SystemTable->FirmwareRevision, majorver, minorver);
//Read ACPI configuration tables
//startup_acpi(SystemTable);
//startup_multiprocessor();
const size_t EARLY_PAGE_STACK_SIZE = 1024*1024;
EFI_PHYSICAL_ADDRESS earlyPhypageStack = 0;
if (EFI_ERROR(SystemTable->BootServices->AllocatePages(AllocateAnyPages, EfiLoaderData, EARLY_PAGE_STACK_SIZE / EFI_PAGE_SIZE, &earlyPhypageStack)))
{
puts(u"Could not allocate page stack\r\n");
return EFI_OUT_OF_RESOURCES;
}
SystemTable->BootServices->SetWatchdogTimer(0, 0, 0, nullptr);
PrepareExitBootServices();
EfiMemoryMap map;
map.MemMapSize = map.MapKey = map.DescriptorSize = map.DescriptorVersion = 0;
SystemTable->BootServices->GetMemoryMap(&map.MemMapSize, nullptr, &map.MapKey, &map.DescriptorSize, &map.DescriptorVersion);
//Give a nice bit of room to spare (memory map can change)
map.MemMapSize += 16 * map.DescriptorSize;
map.memmap = (EFI_MEMORY_DESCRIPTOR*)kmalloc(map.MemMapSize); //Allocate a nice buffer
SystemTable->BootServices->GetMemoryMap(&map.MemMapSize, map.memmap, &map.MapKey, &map.DescriptorSize, &map.DescriptorVersion);
printf(u"EFI Memory Map: Descriptor size %d\n", map.DescriptorSize);
#if 0
//Dump the UEFI memory map to a file for testing
EFI_FILE* file = OpenFile(u"efimap.dat", "w");
if (!file)
{
printf(u"Error: could not open %s: %s\r\n", u"efimap.dat", getError(getErrno()));
}
WriteFile(map.memmap, 1, map.MemMapSize, file);
CloseFile(file);
#endif
if (EFI_ERROR(Status = SystemTable->BootServices->ExitBootServices(ImageHandle, map.MapKey)))
{
printf(u"Failed to exit boot services: %s\r\n", getError(Status));
UINTN index;
SystemTable->BootServices->WaitForEvent(1, &SystemTable->ConIn->WaitForKey, &index);
return EFI_SUCCESS;
}
//We need to take control of the hardware now. Setup basic memory management
setLiballocAllocator(nullptr, nullptr);
InitializePmmngr(map, (void*)earlyPhypageStack, EARLY_PAGE_STACK_SIZE);
puts(u"Physical memory manager intialized\n");
arch_initialize_paging();
puts(u"Paging initialized\n");
setLiballocAllocator(&arch_allocate_pages, &arch_free_pages);
//Now load the OS!
bootfile = nullptr;
kimage_entry kentry = nullptr;
KLOAD_HANDLE kernel = NULL;
while (bootfile = iterateBootFiles(bootfile))
{
printf(u"Boot file: %s @ %x, length %d, type %d\n", bootfile->fileName, bootfile->loadLocation, bootfile->fileSize, bootfile->bootType);
if (!bootfile->loadLocation)
continue;
if (bootfile->bootType == CHAIOS_DLL)
{
KLOAD_HANDLE dll = LoadImage(bootfile->loadLocation, bootfile->fileName);
if (GetProcAddress(dll, "memcpy"))
{
set_memcpy((memcpy_proc)GetProcAddress(dll, "memcpy"));
}
}
else if (bootfile->bootType == CHAIOS_KERNEL)
{
kernel = LoadImage(bootfile->loadLocation, bootfile->fileName);
kentry = GetEntryPoint(kernel);
}
}
size_t kstacksize = GetStackSize(kernel);
if (!paging_map(stackaddr, PADDR_T_MAX, kstacksize, PAGE_ATTRIBUTE_WRITABLE))
{
puts(u"Error: could not allocate kernel stack\n");
while (1);
}
KERNEL_BOOT_INFO bootinfo;
fill_pmmngr_info(bootinfo.pmmngr_info);
fill_arch_paging_info(bootinfo.paging_info);
fill_modloader_info(bootinfo.modloader_info);
get_framebuffer_info(bootinfo.fbinfo);
populate_kterm_info(bootinfo.kterm_status);
bootinfo.efi_system_table = SystemTable;
bootinfo.memory_map = ↦
bootinfo.loaded_files = &bootfiles;
bootinfo.boottype = CHAIOS_BOOT_TYPE_UEFI;
bootinfo.printf_proc = &printf;
bootinfo.puts_proc = &puts;
printf(u"Success: Kernel entry point at %x, stack at %x, length %x\n", kentry, stackaddr, kstacksize);
call_kernel(&bootinfo, kentry, stackaddr, kstacksize);
puts(u"Kernel returned");
while (1);
}