uptr_t eval(uptr_t *env, uptr_t form) {
if (IS_INT(form) || IS_NIL(form))
return form;
if (IS_SYM(form))
return get(*env, form);
if (IS_CONS(form)) {
uptr_t *form_p = refer(form),
*fn_p = refer(eval(env, CAR(*form_p))),
rval;
if (IS_SYM(*fn_p)) {
rval = exec_special(env, *form_p);
} else if (IS_CONS(*fn_p) && SVAL(CAR(*fn_p)) == S_FN) {
rval = _fn(env, *fn_p, eval_list(env, CDR(*form_p)));
} else {
printf_P(PSTR("ERROR: "));
print_form(CAR(*form_p));
printf_P(PSTR(" cannot be in function position.\n"));
rval = NIL;
}
release(2); // form_p, fn_p
return rval;
}
return NIL;
}
int main() {
init_env(); // Poorly named. Has nothing to do with env alist.
init_mem();
uptr_t *env = refer(NIL);
init_syms(env);
uptr_t *form_p = refer(NIL);
while(1) {
print_env(env);
print_mem();
printf_P(PSTR("> "));
*form_p = read_form(stdin);
while(getc(stdin) != '\r');
print_form(eval(env, *form_p));
printf_P(PSTR("\n"));
// print_mem();
__GC__();
}
release(2); // Just a formality really...
return 0;
}
int main (void)
{
A alpha, *aap, *abp;
B beta, *bbp;
empty e;
alpha.a1 = 100;
beta.a1 = 200; beta.b1 = 201; beta.b2 = 202;
aap = α refer (aap);
abp = β refer (abp);
bbp = β refer (bbp);
refer (&e);
return 0; // marker return 0
} // marker close brace
int main (int argc, char **argv)
{
if (argc != 1) {
nthreads = atoi(argv[1]);
degree = nthreads; // flat phaser by default
if (argc > 2)
degree = atoi(argv[2]);
delaylength = 0;
innerreps = 1000000;
if (argc > 3)
delaylength = atoi(argv[3]);
} else {
// TODO should get number of workers here
int nthreads = 3;
degree = nthreads; // flat phaser by default
delaylength = 0;
innerreps = 1000000;
}
printf(" Running phaser barrier benchmark on %d thread(s) and phaser tree degree %d\n", nthreads, degree);
/* GENERATE REFERENCE TIME */
refer();
/* TEST BARRIER */
hclib_init(&argc, argv);
testbar();
hclib_finalize();
return 0;
}
void HttpDownloader::Start(bool is_support_start)
{
if (is_running_ == true)
return;
is_running_ = true;
string refer(url_info_.refer_url_);
assert(download_driver_->GetStatistic());
statistic_ = download_driver_->GetStatistic()->AttachHttpDownloaderStatistic(url_info_.url_);
assert(statistic_);
statistic_->SetReferUrl(refer);
statistic_->SetIsDeath(false);
is_support_start_ = is_support_start;
if (http_request_demo_)
http_connection_ = HttpConnection::Create(io_svc_, http_request_demo_, shared_from_this(), url_info_, is_to_get_header_, is_head_only_);
else
http_connection_ = HttpConnection::Create(io_svc_, shared_from_this(), url_info_, is_head_only_);
if (is_original_)
{
http_connection_->Start(is_support_start, is_open_service_, download_driver_->GetOpenServiceHeadLength());
}
}
uptr_t eval_list(uptr_t *env, uptr_t list) {
if (IS_NIL(list))
return NIL;
uptr_t *list_p = refer(list), rval;
rval = build_cons(eval(env, CAR(*list_p)), eval_list(env, CDR(*list_p)));
release(1); // list_p
return rval;
}
uptr_t let(uptr_t *env, uptr_t args) {
uptr_t *bindings_p = refer(CAR(args)),
*body_p = refer(CDR(args)),
*local_env = refer(*env);
while (*bindings_p) {
assoc(local_env, CAR(*bindings_p), eval(local_env, CADR(*bindings_p)));
*bindings_p = CDDR(*bindings_p);
}
uptr_t rval = NIL;
while(*body_p) {
rval = eval(local_env, CAR(*body_p));
*body_p = CDR(*body_p);
}
release(3); // bindings_p, body_p, local_env
return rval;
}
uptr_t _fn(uptr_t *env, uptr_t fn, uptr_t args) {
uptr_t *lvars_p = refer(CADR(fn)),
*body_p = refer(CDDR(fn)),
*args_p = refer(args),
*local_env = refer(*env);
while (*lvars_p && *args_p) {
assoc(local_env, CAR(*lvars_p), CAR(*args_p));
*lvars_p = CDR(*lvars_p);
*args_p = CDR(*args_p);
}
uptr_t rval = NIL;
while(*body_p) {
rval = eval(local_env, CAR(*body_p));
*body_p = CDR(*body_p);
}
release(4); // lvars_p, body_p, args_p, local_env
return rval;
}
// This message exists to encapsulate the Dialog State into a SIP message.
// It is created on BS1 to send to BS2, which then uses it as a re-invite.
// So fill it out as a re-invite but leaving the parts based on the BS2 address empty, ie, no via or contact.
// Note that when we send it to BS2 the via and contact are BS1, which BS2 must fix.
// We need to pass the the remote proxy address that we derived from the 'contact' from the peer,
// that was passed in in the initial incoming invite or the response to our outgoing invite.
// We place it in the Refer-To header, and BS2 turns the REFER into an INVITE to that URI.
// This goes in the URI of the header, implying that we cannot send this message to BS2 using normal SIP
// unless we move that to another field, eg, Contact.
SipMessageHandoverRefer::SipMessageHandoverRefer(const SipBase *dialog, string peer)
{
// The request URI will be the BTS we are sending it to...
this->smInit();
this->msmReqMethod = string("REFER");
this->msmReqUri = makeUri("handover",peer);
this->msmTo = *dialog->dsRequestToHeader();
this->msmFrom = *dialog->dsRequestFromHeader();
this->msmCallId = dialog->callId();
this->msmCSeqMethod = this->msmReqMethod; // It is "INVITE".
// The CSeq num of the are-INVITE follows.
// RFC3261 14.1: The Cseq for re-INVITE follows same rules for in-dialog requests, namely, CSeq num must be
// incremented by exactly one. We do not know if BTS-2 is going to send this this re-INVITE or not,
// so we send the current CSeqNum without incrementing it and let BTS-2 increment it.
this->msmCSeqNum = dialog->mLocalCSeq;
SipParam refer("Refer-To",dialog->dsRemoteURI()); // This is the proxy from the Contact or route header.
this->msmHeaders.push_back(refer);
// We need to send the SDP answer, which is the local SDP for MTC or the remote SDP for MOC,
// but we need to send the peer (remote) RTP port in either case.
// For the re-invite, you can put nearly anything in here, but you must not just use
// the identical o= line of the original without at least incrementing the version number.
SdpInfo sdpRefer, sdpRemote;
//sdpRefer.sdpInitOffer(dialog);
sdpRemote.sdpParse(dialog->getSdpRemote());
// Put the remote SIP server port in the REFER message. BTS-2 will grab it then substitute its own local port.
//sdpRefer.sdpRtpPort = sdpRemote.sdpRtpPort;
sdpRefer.sdpInitRefer(dialog, sdpRemote.sdpRtpPort);
// TODO: Put the remote session id and version, incrementing the version. Paul at yate says these should be 0
//SdpInfo sdpRefer; sdpRefer.sdpParse(dialog->mSdpAnswer);
//sdpRefer.sdpUsername = dialog->sipLocalusername();
// Update: This did not work for asterisk either.
//sdpRefer.sdpUsername = dialog->sipLocalUsername(); // This modification was recommended by Paul for Yate.
//this->smAddBody(string("application/sdp"),sdpRefer.sdpValue());
// Try just using the sdpremote verbatim? Gosh, that worked too.
this->smAddBody(string("application/sdp"),sdpRefer.sdpValue());
// The via and contact will be filled in by BS2:
// this->smAddViaBranch(dialog);
// this->msmContactValue = dialog->dsRemoteURI();
// TODO: route set.
}
int main (int argv, char **argc)
{
#pragma omp parallel
{
#pragma omp master
{
nthreads = omp_get_num_threads();
}
}
printf("Running OpenMP benchmark on %d thread(s)\n", nthreads);
/* TUNE LENGTH OF LOOP BODY */
getdelay();
itersperthr = 1204; /*change from 128 to 256 for more test on guided,Liao*/
innerreps = 1000;
/* GENERATE REFERENCE TIME */
refer();
/* TEST STATIC */
teststatic();
/* TEST STATIC,n */
cksz = 1;
while (cksz <= itersperthr){
teststaticn();
cksz *= 2;
}
/* TEST DYNAMIC,n */
cksz = 1;
while (cksz <= itersperthr){
testdynamicn();
cksz *= 2;
}
/* TEST GUIDED,n */
cksz = 1;
while (cksz <= itersperthr*2/nthreads){ /*increase cksz*/
testguidedn();
cksz *= 2;
}
}
/* Calculate the reference time. */
void reference(char *name, void (*refer)(void)) {
int k;
double start;
// Calculate the required number of innerreps
innerreps = getinnerreps(refer);
initreference(name);
for (k = 0; k <= outerreps; k++) {
start = getclock();
refer();
times[k] = (getclock() - start) * 1.0e6 / (double) innerreps;
}
finalisereference(name);
}
BOOL SendUrlToEM(LPCTSTR pszUrl, LPCTSTR pszReferer, LPCTSTR pszCookies, LPCTSTR pszPostData)
{
IIE2EMUrlTaker * taker;
HRESULT hr;
if (FAILED(hr = CoCreateInstance (CLSID_IE2EMUrlTaker, NULL, CLSCTX_ALL, IID_IIE2EMUrlTaker, (void**) &taker)))
{
TCHAR szMsg[1000];
_tcscpy(szMsg, _T("easyMule might have not been installed!\nPlease confirm you easyMule installation.\n\nError code: 0x"));
TCHAR sz[100];
_itot((UINT)hr, sz, 16);
_tcscat(szMsg, sz);
MessageBox(NULL, szMsg, _T("Error"), MB_ICONERROR);
return FALSE;
}
USES_CONVERSION;
CComBSTR url(pszUrl);
CComBSTR refer(pszReferer);
BOOL res;
if(taker->SendUrl(url.Copy(), _T("\1"), refer.Copy(), &res) != S_OK)
return FALSE;
return res;
}
uptr_t loop(uptr_t *env, uptr_t form) {
uptr_t *bindings_p = refer(CAR(form)),
*body_p = refer(CDR(form)),
*form_p = refer(form),
*local_env = refer(*env);
while (*bindings_p) {
assoc(local_env, CAR(*bindings_p), eval(local_env, CADR(*bindings_p)));
*bindings_p = CDDR(*bindings_p);
}
// print_env(local_env);
uptr_t rval = NIL,
*new_env = refer(NIL),
*new_vals = refer(NIL);
while (*body_p) {
rval = eval(local_env, CAR(*body_p));
*body_p = CDR(*body_p);
if (IS_CONS(rval) && IS_SYM(CAR(rval)) && SVAL(CAR(rval)) == S_RECUR) {
*new_env = *env;
*new_vals = CDR(rval);
*bindings_p = CAR(*form_p);
while (*new_vals && *bindings_p) {
assoc(new_env, CAR(*bindings_p), eval(local_env, CAR(*new_vals)));
*bindings_p = CDDR(*bindings_p);
*new_vals = CDR(*new_vals);
}
*body_p = CDR(*form_p);
*local_env = *new_env;
}
}
release(6); // bindings_p, body_p, form_p, local_env, new_env, new_vals
return rval;
}
void eval(BOOLEAN do_gc)
{
static unsigned int count = 0;
OBJECT_PTR exp = car(reg_next_expression);
OBJECT_PTR opcode = car(exp);
pin_globals();
if(do_gc)
{
count++;
if(count == GC_FREQUENCY)
{
gc(false, true);
count = 0;
}
}
if(opcode == APPLY && profiling_in_progress)
{
last_operator = reg_accumulator;
if(prev_operator != NIL)
{
OBJECT_PTR operator_to_be_used;
hashtable_entry_t *e;
unsigned int count;
unsigned int mem_alloc;
double elapsed_wall_time;
double elapsed_cpu_time;
double temp1 = get_wall_time();
clock_t temp2 = clock();
unsigned int temp3 = memory_allocated();
profiling_datum_t *pd = (profiling_datum_t *)malloc(sizeof(profiling_datum_t));
if(IS_SYMBOL_OBJECT(prev_operator))
operator_to_be_used = prev_operator;
else
{
OBJECT_PTR res = get_symbol_from_value(prev_operator, reg_current_env);
if(car(res) != NIL)
operator_to_be_used = cdr(res);
else
operator_to_be_used = cons(LAMBDA,
cons(get_params_object(prev_operator),
cons(car(get_source_object(prev_operator)), NIL)));
}
e = hashtable_get(profiling_tab, (void *)operator_to_be_used);
if(e)
{
profiling_datum_t *pd = (profiling_datum_t *)e->value;
count = pd->count + 1;
elapsed_wall_time = pd->elapsed_wall_time + temp1 - wall_time_var;
elapsed_cpu_time = pd->elapsed_cpu_time + (temp2 - cpu_time_var) * 1.0 / CLOCKS_PER_SEC;
mem_alloc = pd->mem_allocated + temp3 - mem_alloc_var;
hashtable_remove(profiling_tab, (void *)operator_to_be_used);
free(pd);
}
else
{
count = 1;
elapsed_wall_time = temp1 - wall_time_var;
elapsed_cpu_time = (temp2 - cpu_time_var) * 1.0 / CLOCKS_PER_SEC;
mem_alloc = temp3 - mem_alloc_var;
}
pd->count = count;
pd->elapsed_wall_time = elapsed_wall_time;
pd->elapsed_cpu_time = elapsed_cpu_time;
pd->mem_allocated = mem_alloc;
hashtable_put(profiling_tab, (void *)operator_to_be_used, (void *)pd);
}
wall_time_var = get_wall_time();
cpu_time_var = clock();
mem_alloc_var = memory_allocated();
prev_operator = reg_accumulator;
}
if(opcode == HALT)
{
halt_op();
}
else if(opcode == REFER)
{
if(refer(CADR(exp)))
return;
reg_next_expression = CADDR(exp);
}
else if(opcode == CONSTANT)
{
if(constant(CADR(exp)))
return;
reg_next_expression = CADDR(exp);
}
else if(opcode == CLOSE)
{
if(closure(exp))
return;
reg_next_expression = fifth(exp);
}
else if(opcode == MACRO)
{
if(macro(exp))
return;
reg_next_expression = CADDDDR(exp);
}
else if(opcode == TEST)
{
if(reg_accumulator != NIL)
reg_next_expression = CADR(exp);
else
reg_next_expression = CADDR(exp);
}
//Not using this WHILE; reverting
//to macro definition, as this
//version doesn't handle (BREAK)
else if(opcode == WHILE)
{
OBJECT_PTR cond = CADR(exp);
OBJECT_PTR body = CADDR(exp);
OBJECT_PTR ret = NIL;
while(1)
{
OBJECT_PTR temp = reg_current_stack;
reg_next_expression = cond;
while(car(reg_next_expression) != NIL)
{
eval(false);
if(in_error)
return;
}
if(reg_accumulator == NIL)
break;
reg_next_expression = body;
while(car(reg_next_expression) != NIL)
{
eval(false);
if(in_error)
return;
}
//to handle premature exits
//via RETURN-FROM
if(reg_current_stack != temp)
return;
ret = reg_accumulator;
}
reg_accumulator = ret;
reg_next_expression = CADDDR(exp);
}
else if(opcode == ASSIGN)
{
if(assign(CADR(exp)))
return;
reg_next_expression = CADDR(exp);
}
else if(opcode == DEFINE)
{
if(define(CADR(exp)))
return;
reg_next_expression = CADDR(exp);
}
else if(opcode == CONTI)
{
if(conti())
return;
reg_next_expression = CADR(exp);
}
else if(opcode == NUATE) //this never gets called
{
reg_current_stack = CADR(exp);
reg_accumulator = CADDR(exp);
reg_current_value_rib = NIL;
reg_next_expression = cons(CONS_RETURN_NIL, cdr(reg_next_expression));
}
else if(opcode == FRAME)
{
if(frame(exp))
return;
reg_next_expression = CADDR(exp);
}
else if(opcode == ARGUMENT)
{
if(argument())
return;
reg_next_expression = CADR(exp);
}
else if(opcode == APPLY)
{
apply_compiled();
}
else if(opcode == RETURN)
{
return_op();
}
}
void
comline(void)
{
long c1, c2;
while(C==' ' || c=='\t')
;
comx:
if((c1=c) == '\n')
return;
c2 = C;
if(c1=='.' && c2!='.')
inmacro = NO;
if(msflag && c1 == '['){
refer(c2);
return;
}
if(c2 == '\n')
return;
if(c1 == '\\' && c2 == '\"')
SKIP;
else
if (filesp==files && c1=='E' && c2=='Q')
eqn();
else
if(filesp==files && c1=='T' && (c2=='S' || c2=='C' || c2=='&')) {
if(msflag)
stbl();
else
tbl();
}
else
if(c1=='T' && c2=='E')
intable = NO;
else if (!inmacro &&
((c1 == 'd' && c2 == 'e') ||
(c1 == 'i' && c2 == 'g') ||
(c1 == 'a' && c2 == 'm')))
macro();
else
if(c1=='s' && c2=='o') {
if(iflag)
SKIP;
else {
getfname();
if(fname[0]) {
if(infile = opn(fname))
*++filesp = infile;
else infile = *filesp;
}
}
}
else
if(c1=='n' && c2=='x')
if(iflag)
SKIP;
else {
getfname();
if(fname[0] == '\0')
exits(0);
if(Bfildes(&(infile->Biobufhdr)) != 0)
Bterm(&(infile->Biobufhdr));
infile = *filesp = opn(fname);
}
else
if(c1 == 't' && c2 == 'm')
SKIP;
else
if(c1=='h' && c2=='w')
SKIP;
else
if(msflag && c1 == 'T' && c2 == 'L') {
SKIP_TO_COM;
goto comx;
}
else
if(msflag && c1=='N' && c2 == 'R')
SKIP;
else
if(msflag && c1 == 'A' && (c2 == 'U' || c2 == 'I')){
if(mac==MM)SKIP;
else {
SKIP_TO_COM;
goto comx;
}
} else
if(msflag && c1=='F' && c2=='S') {
SKIP_TO_COM;
goto comx;
}
else
if(msflag && (c1=='S' || c1=='N') && c2=='H') {
SKIP_TO_COM;
goto comx;
} else
if(c1 == 'U' && c2 == 'X') {
if(wordflag)
Bprint(&(bout.Biobufhdr), "UNIX\n");
else
Bprint(&(bout.Biobufhdr), "UNIX ");
} else
if(msflag && c1=='O' && c2=='K') {
SKIP_TO_COM;
goto comx;
} else
if(msflag && c1=='N' && c2=='D')
SKIP;
else
if(msflag && mac==MM && c1=='H' && (c2==' '||c2=='U'))
SKIP;
else
if(msflag && mac==MM && c2=='L') {
if(disp || c1=='R')
sdis('L', 'E');
else {
SKIP;
Bprint(&(bout.Biobufhdr), " .");
}
} else
if(!msflag && c1=='P' && c2=='S') {
inpic();
} else
if(msflag && (c1=='D' || c1=='N' || c1=='K'|| c1=='P') && c2=='S') {
sdis(c1, 'E');
} else
if(msflag && (c1 == 'K' && c2 == 'F')) {
sdis(c1,'E');
} else
if(msflag && c1=='n' && c2=='f')
sdis('f','i');
else
if(msflag && c1=='c' && c2=='e')
sce();
else {
if(c1=='.' && c2=='.') {
if(msflag) {
SKIP;
return;
}
while(C == '.')
;
}
inmacro++;
if(c1 <= 'Z' && msflag)
regline(YES,ONE);
else {
if(wordflag)
C;
regline(YES,TWO);
}
inmacro--;
}
}
void UmlFragment::write_ref(FileOut & out, UmlItem * diagram, Q3PtrList< UmlSequenceMessage > & msgs)
{
static int rank = 0;
out.indent();
out << "<fragment xmi:type=\"uml:InteractionUse\"";
out.id_prefix(diagram, "INTERACTIONUSE", ++rank);
const Q3PtrVector<UmlClassInstanceReference> & v = UmlBaseFragment::covered();
unsigned n;
unsigned index;
n = v.count();
if (n != 0) {
out << " covered=\"";
index = 0;
for (;;) {
out.ref_only(diagram, v.at(index)->lifeline());
if (++index == n)
break;
out << " ";
}
out << '"';
}
UmlDiagram * d = refer();
if (d != 0) {
switch (d->kind()) {
case aSequenceDiagram:
case aCollaborationDiagram:
out.ref(d, "refersTo", "INTERACTION_");
if (arguments().isEmpty())
out << "/>\n";
else {
static int rank = 0;
out << ">\n";
out.indent();
out << "\t<argument xmi:type=\"uml:OpaqueExpression\"";
out.id_prefix(d, "INTER_ARG_EXPR_", ++rank);
out << ">\n";
out.indent();
out << "\t\t<body>";
out.quote(arguments());
out << "</body>\n";
out.indent();
out << "\t</argument>\n";
out.indent();
out << "</fragment>\n";
}
break;
default:
out << "/>\n";
break;
}
}
else
out << "/>\n";
// remove internal messages and compartment
const Q3PtrVector<UmlFragmentCompartment> & subs = compartments();
n = subs.size();
for (index = 0; index != n; index += 1)
subs.at(index)->bypass(msgs);
}
uptr_t exec_special(uptr_t *env, uptr_t form) {
uptr_t fn = CAR(form);
uptr_t args = CDR(form);
switch(SVAL(fn)) {
case S_LET:
return let(env, args);
case S_FN:
return form;
case S_LOOP:
return loop(env, args);
case S_DO: {
uptr_t *body_p = refer(args), rval = NIL;
while (*body_p) {
rval = eval(env, CAR(*body_p));
*body_p = CDR(*body_p);
}
release(1); // body_p
return rval;
}
case S_RECUR: {
uptr_t rval, *fn_p = refer(fn);
rval = build_cons(*fn_p, eval_list(env, args));
release(1); // fn_p
return rval;
}
case S_QUOTE:
return CAR(args);
case S_CAR:
return CAR(eval(env, CAR(args)));
case S_CDR:
return CDR(eval(env, CAR(args)));
case S_AND: {
if (IS_NIL(args)) return PS_TRUE;
uptr_t *rem_args = refer(args),
rval = NIL;
while ((rval = eval(env, CAR(*rem_args))) && (*rem_args = CDR(*rem_args)));
release(1);
return rval;
}
case S_OR: {
if (IS_NIL(args)) return NIL;
uptr_t *rem_args = refer(args),
rval = NIL;
while (!(rval = eval(env, CAR(*rem_args))) && (*rem_args = CDR(*rem_args)));
release(1);
return rval;
}
case S_NOT: {
if (IS_NIL(args)) return NIL;
uptr_t rval = eval(env, CAR(args));
return rval ? NIL : PS_TRUE;
}
case S_IF: {
uptr_t rval = NIL, *clauses = refer(args);
if (eval(env, CAR(*clauses)) && CDR(*clauses))
rval = eval(env, CADR(*clauses));
else if (CDDR(*clauses))
rval = eval(env, CADDR(*clauses));
release(1); // clauses
return rval;
}
case S_WHEN: {
uptr_t rval = NIL, *cond_p = refer(CAR(args)), *body_p = refer(CDR(args));
if (eval(env, *cond_p))
while(*body_p) {
rval = eval(env, CAR(*body_p));
*body_p = CDR(*body_p);
}
release(2); // cond_p, body_p
return rval;
}
case S_CONS: {
uptr_t rval = NIL, *args_p = refer(args);
rval = build_cons(eval(env, CAR(*args_p)), eval(env, CADR(*args_p)));
release(1); // args_p
return rval;
}
case S_PRINT:
print_form(eval(env, CAR(args)));
printf_P(PSTR("\n"));
return NIL;
case S_DEF: {
uptr_t *args_p = refer(args),
*binding = refer(eval(env, CADR(args)));
assoc(env, CAR(*args_p), *binding);
release(2); // args_p, binding
return *binding; // Yeah, it's been "released", but the pointer is still valid.
}
case S_EVAL:
return eval(env, eval(env, CAR(args)));
#define _COMPR(rval) { \
if (IS_NIL(args)) return NIL; \
\
uptr_t *args_p = refer(args); \
while(CDR(*args_p) && (eval(env, CAR(*args_p)) _COMP_OPR eval(env, CADR(*args_p)))) \
*args_p = CDR(*args_p); \
\
if (IS_NIL(CDR(*args_p))) \
rval = eval(env, CAR(*args_p)); \
release(1); \
}
#define _COMP_OPR ==
case S_EQL: {
uptr_t rval = NIL;
_COMPR(rval);
return rval;
}
case S_NEQL: {
uptr_t rval = NIL;
_COMPR(rval);
return rval ? NIL : PS_TRUE;
}
#undef _COMP_OPR
#define _COMP_OPR <
case S_LT: {
uptr_t rval = NIL;
_COMPR(rval);
return rval;
}
#undef _COMP_OPR
#define _COMP_OPR <=
case S_LTE: {
uptr_t rval = NIL;
_COMPR(rval);
return rval;
}
#undef _COMP_OPR
#define _COMP_OPR >
case S_GT: {
uptr_t rval = NIL;
_COMPR(rval);
return rval;
}
#undef _COMP_OPR
#define _COMP_OPR >=
case S_GTE: {
uptr_t rval = NIL;
_COMPR(rval);
return rval;
}
#undef _COMP_OPR
#define _ARITH(coll) { \
uptr_t *rem_args = refer(args); \
coll = TO_INT(eval(env, CAR(*rem_args))); \
*rem_args = CDR(*rem_args); \
while (*rem_args) { \
coll _ARITH_OPR TO_INT(eval(env, CAR(*rem_args))); \
*rem_args = CDR(*rem_args); \
} \
release(1); \
}
#define _ARITH_OPR +=
case S_PLUS: {
if (! args) return INTERN_INT(0);
if (! CDR(args)) return eval(env, CAR(args));
int rval;
_ARITH(rval);
return INTERN_INT(rval);
}
#undef _ARITH_OPR
#define _ARITH_OPR -=
case S_MINUS: {
if (! args) return NIL;
if (! CDR(args)) return INTERN_INT(0 - TO_INT(eval(env, CAR(args))));
int rval;
_ARITH(rval);
return INTERN_INT(rval);
}
#undef _ARITH_OPR
#define _ARITH_OPR *=
case S_MULT: {
if (! args) return INTERN_INT(1);
if (! CDR(args)) return eval(env, CAR(args));
int rval;
_ARITH(rval);
return INTERN_INT(rval);
}
#undef _ARITH_OPR
#define _ARITH_OPR /=
case S_DIV: {
if (! args) return NIL;
if (! CDR(args)) return INTERN_INT(eval(env, CAR(args)) == INTERN_INT(1) ? 1 : 0);
int rval;
_ARITH(rval);
return INTERN_INT(rval);
}
#undef _ARITH_OPR
#define _ARITH_OPR &=
case S_BAND: {
if (! args) return NIL;
if (! CDR(args)) return eval(env, CAR(args));
uint8_t rval;
_ARITH(rval);
return INTERN_INT((int)rval);
}
#undef _ARITH_OPR
#define _ARITH_OPR |=
case S_BOR: {
if (! args) return NIL;
if (! CDR(args)) return eval(env, CAR(args));
uint8_t rval;
_ARITH(rval);
return INTERN_INT((int)rval);
}
#undef _ARITH_OPR
#define _ARITH_OPR ^=
case S_BXOR: {
if (! args) return NIL;
if (! CDR(args)) return eval(env, CAR(args));
uint8_t rval;
_ARITH(rval);
return INTERN_INT((int)rval);
}
#undef _ARITH_OPR
#define _ARITH_OPR <<=
case S_BSL: {
if (! args) return NIL;
if (! CDR(args)) return eval(env, CAR(args));
uint8_t rval;
_ARITH(rval);
return INTERN_INT((int)rval);
}
#undef _ARITH_OPR
#define _ARITH_OPR >>=
case S_BSR: {
if (! args) return NIL;
if (! CDR(args)) return eval(env, CAR(args));
uint8_t rval;
_ARITH(rval);
return INTERN_INT((int)rval);
}
#undef _ARITH_OPR
case S_SREG: {
uptr_t *args_p = refer(args),
reg = eval(env, CAR(*args_p));
if (IS_REG(reg))
*BYTE_PTR(reg) = eval(env, CADR(*args_p));
else {
printf_P(PSTR("Invalid register: "));
print_form(reg);
printf_P(PSTR("\n"));
}
release(1); // args_p
return NIL;
}
case S_SLP:
_delay_ms(TO_INT(eval(env, CAR(args))));
return NIL;
default:
printf_P(PSTR("ERROR: "));
print_form(fn);
printf_P(PSTR(" is not a function.\n"));
return NIL;
}
}