struct var *add(struct array *args) {
struct var *v, *ret;
unsigned i;
ret = calloc(1, sizeof(struct var));
ret->name = "__add__";
ret->type = ((struct var *)arrobj(args, 0))->type;
if (ret->type == V_INT || ret->type == V_DOUB)
return arith(args, ADD);
else if (ret->type == V_STR) {
for (i = 0; i < arrcnt(args); i++) {
v = arrobj(args, i);
if (!ret->val.sval)
ret->val.sval = calloc(1, 1);
ret->val.sval = realloc(ret->val.sval, strlen(ret->val.sval) + strlen(v->val.sval) + 1);
strcat(ret->val.sval, v->val.sval);
}
}
else if (ret->type == V_ARR) {
ret->val.aval = ((struct var *)arrobj(args, 0))->val.aval;
for (i = 1; i < arrcnt(args); i++) {
v = arrobj(args, i);
arradd(ret->val.aval, v);
}
}
return ret;
}
/*
* Expand arithmetic expression.
*/
static char *
expari(char *p, int flag, struct worddest *dst)
{
char *q, *start;
arith_t result;
int begoff;
int quoted;
int adj;
quoted = *p++ == '"';
begoff = expdest - stackblock();
p = argstr(p, 0, NULL);
STPUTC('\0', expdest);
start = stackblock() + begoff;
q = grabstackstr(expdest);
result = arith(start);
ungrabstackstr(q, expdest);
start = stackblock() + begoff;
adj = start - expdest;
STADJUST(adj, expdest);
CHECKSTRSPACE((int)(DIGITS(result) + 1), expdest);
fmtstr(expdest, DIGITS(result), ARITH_FORMAT_STR, result);
adj = strlen(expdest);
STADJUST(adj, expdest);
if (!quoted)
reprocess(expdest - adj - stackblock(), flag, VSNORMAL, 0, dst);
return p;
}
/*
* The exp(1) builtin.
*/
int
letcmd(int argc, char **argv)
{
const char *p;
char *concat;
char **ap;
arith_t i;
if (argc > 1) {
p = argv[1];
if (argc > 2) {
/*
* Concatenate arguments.
*/
STARTSTACKSTR(concat);
ap = argv + 2;
for (;;) {
while (*p)
STPUTC(*p++, concat);
if ((p = *ap++) == NULL)
break;
STPUTC(' ', concat);
}
STPUTC('\0', concat);
p = grabstackstr(concat);
}
} else
p = "";
i = arith(p);
out1fmt(ARITH_FORMAT_STR "\n", i);
return !i;
}
bool
check(misc::runner const & i_runner, host::generic_program i_program)
{
chrono::steady_clock::time_point tp = chrono::steady_clock::now();
host::buffer<pfm::int_> bufWrite(i_runner.m_context, item_count);
typedef host::buffer<pfm::int_>::const_iterator iterator;
i_runner.m_queue(
run_kernel(i_program,
fill_index(bufWrite),
item_count));
i_runner.m_queue(
run_kernel(i_program,
twice(bufWrite),
item_count));
auto future =
i_runner.m_queue(
bufWrite.with_range(
[](iterator i_begin, iterator i_end) {
return std::accumulate(i_begin, i_end, 0);
}));
std::future_status result = future.wait_until(tp + chrono::seconds(5));
assert(result == std::future_status::ready);
assert(future.get() == arith(2, item_count));
return true;
}
/*
* Expand arithmetic expression.
* Note that flag is not required as digits never require CTLESC characters.
*/
static char *
expari(char *p)
{
char *q, *start;
arith_t result;
int begoff;
int quoted;
int adj;
quoted = *p++ == '"';
begoff = expdest - stackblock();
p = argstr(p, 0);
removerecordregions(begoff);
STPUTC('\0', expdest);
start = stackblock() + begoff;
q = grabstackstr(expdest);
result = arith(start);
ungrabstackstr(q, expdest);
start = stackblock() + begoff;
adj = start - expdest;
STADJUST(adj, expdest);
CHECKSTRSPACE((int)(DIGITS(result) + 1), expdest);
fmtstr(expdest, DIGITS(result), ARITH_FORMAT_STR, result);
adj = strlen(expdest);
STADJUST(adj, expdest);
if (!quoted)
recordregion(begoff, expdest - stackblock(), 0);
return p;
}
void bv2int_rewriter_ctx::collect_power2(goal const& s) {
ast_manager& m = m_trail.get_manager();
arith_util arith(m);
bv_util bv(m);
for (unsigned j = 0; j < s.size(); ++j) {
expr* f = s.form(j);
if (!m.is_or(f)) continue;
unsigned sz = to_app(f)->get_num_args();
expr* x, *y, *v = 0;
rational n;
vector<rational> bounds;
bool is_int, ok = true;
for (unsigned i = 0; ok && i < sz; ++i) {
expr* e = to_app(f)->get_arg(i);
if (!m.is_eq(e, x, y)) {
ok = false;
break;
}
if (arith.is_numeral(y, n, is_int) && is_int &&
(x == v || v == 0)) {
v = x;
bounds.push_back(n);
}
else if (arith.is_numeral(x, n, is_int) && is_int &&
(y == v || v == 0)) {
v = y;
bounds.push_back(n);
}
else {
ok = false;
break;
}
}
if (!ok || !v) continue;
SASSERT(!bounds.empty());
lt_rational lt;
// lt is a total order on rationals.
std::sort(bounds.begin(), bounds.end(), lt);
rational p(1);
unsigned num_bits = 0;
for (unsigned i = 0; ok && i < bounds.size(); ++i) {
ok = (p == bounds[i]);
p *= rational(2);
++num_bits;
}
if (!ok) continue;
unsigned log2 = 0;
for (unsigned i = 1; i <= num_bits; i *= 2) ++log2;
if(log2 == 0) continue;
expr* logx = m.mk_fresh_const("log2_v", bv.mk_sort(log2));
logx = bv.mk_zero_extend(num_bits - log2, logx);
m_trail.push_back(logx);
TRACE("bv2int_rewriter", tout << mk_pp(v, m) << " |-> " << mk_pp(logx, m) << "\n";);
m_power2.insert(v, logx);
}
/*
* Expand arithmetic expression. Backup to start of expression,
* evaluate, place result in (backed up) result, adjust string position.
*/
void
expari(shinstance *psh, int flag)
{
char *p, *start;
int result;
int begoff;
int quotes = flag & (EXP_FULL | EXP_CASE);
int quoted;
/* ifsfree(); */
/*
* This routine is slightly over-complicated for
* efficiency. First we make sure there is
* enough space for the result, which may be bigger
* than the expression if we add exponentation. Next we
* scan backwards looking for the start of arithmetic. If the
* next previous character is a CTLESC character, then we
* have to rescan starting from the beginning since CTLESC
* characters have to be processed left to right.
*/
#if INT_MAX / 1000000000 >= 10 || INT_MIN / 1000000000 <= -10
#error "integers with more than 10 digits are not supported"
#endif
CHECKSTRSPACE(psh, 12 - 2, psh->expdest);
USTPUTC(psh, '\0', psh->expdest);
start = stackblock(psh);
p = psh->expdest - 1;
while (*p != CTLARI && p >= start)
--p;
if (*p != CTLARI)
error(psh, "missing CTLARI (shouldn't happen)");
if (p > start && *(p-1) == CTLESC)
for (p = start; *p != CTLARI; p++)
if (*p == CTLESC)
p++;
if (p[1] == '"')
quoted=1;
else
quoted=0;
begoff = (int)(p - start);
removerecordregions(psh, begoff);
if (quotes)
rmescapes(psh, p+2);
result = arith(psh, p+2);
fmtstr(p, 12, "%d", result);
while (*p++)
;
if (quoted == 0)
recordregion(psh, begoff, (int)(p - 1 - start), 0);
result = (int)(psh->expdest - p + 1);
STADJUST(psh, -result, psh->expdest);
}
/*
* Expand arithmetic expression. Backup to start of expression,
* evaluate, place result in (backed up) result, adjust string position.
*/
void
expari(int flag)
{
char *p, *start;
intmax_t result;
int adjustment;
int begoff;
int quotes = flag & (EXP_FULL | EXP_CASE);
int quoted;
/* ifsfree(); */
/*
* This routine is slightly over-complicated for
* efficiency. First we make sure there is
* enough space for the result, which may be bigger
* than the expression if we add exponentation. Next we
* scan backwards looking for the start of arithmetic. If the
* next previous character is a CTLESC character, then we
* have to rescan starting from the beginning since CTLESC
* characters have to be processed left to right.
*/
/* SPACE_NEEDED is enough for all digits, plus possible "-", plus 2 (why?) */
#define SPACE_NEEDED ((sizeof(intmax_t) * CHAR_BIT + 2) / 3 + 1 + 2)
CHECKSTRSPACE((int)(SPACE_NEEDED - 2), expdest);
USTPUTC('\0', expdest);
start = stackblock();
p = expdest - 1;
while (*p != CTLARI && p >= start)
--p;
if (*p != CTLARI)
error("missing CTLARI (shouldn't happen)");
if (p > start && *(p-1) == CTLESC)
for (p = start; *p != CTLARI; p++)
if (*p == CTLESC)
p++;
if (p[1] == '"')
quoted=1;
else
quoted=0;
begoff = p - start;
removerecordregions(begoff);
if (quotes)
rmescapes(p+2);
result = arith(p+2);
fmtstr(p, SPACE_NEEDED, "%"PRIdMAX, result);
while (*p++)
;
if (quoted == 0)
recordregion(begoff, p - 1 - start, 0);
adjustment = expdest - p + 1;
STADJUST(-adjustment, expdest);
}
int main(int argc, char *argv[])
{
int x = atoi(argv[1]);
int y = atoi(argv[2]);
int a = arith(x,y);
int b = optarith(x,y);
if (a != b)
printf("Whoops! ");
printf("x = %d, y = %d, normal --> %d, opt --> %d\n", x, y, a, b);
}
/* Process integer exponent. */
void level4(double* result){
double hold;
level5(result);
if(*bas_token== '^') {
get_token();
level4(&hold);
arith('^', result, &hold);
}
}
/* Multiply or divide two factors. */
void level3(double* result){
char op;
double hold;
level4(result);
while((op = *bas_token) == '*' || op == '/' || op == '%' || op == '@' || op == '$' || op == '|' || op == '&') {
get_token();
level4(&hold);
arith(op, result, &hold);
}
}
void CMPolynomial::level5(double& result) // powers
{
double hold;
level6(result);
if (token == Power) {
get_token();
level6(hold);
arith(Power,result,hold);
}
}
void level4(double *hold)
{
double h;
level5( hold);
if (*(token) == '^')
{
get_token();
level5( &h);
arith( '^', hold, &h);
}
}
static cfloat *CSSum( cfloat *op1, cfloat *op2, int (*arith)( int, int ) )
/****************************************************************************/
{
int carry;
int pos;
int length;
int op1left;
int op2left;
int farleft;
int op1right;
int op2right;
int farright;
cfloat *result;
op1left = op1->exp;
op2left = op2->exp;
op1right = op1left - op1->len;
op2right = op2left - op2->len;
farleft = Max( op1left, op2left );
farright = Min( op1right, op2right );
length = farleft - farright + 1; /* result length + extra digit*/
pos = farright + 1;
result = CFAlloc( length );
result->exp = farleft + 1;
result->len = length;
carry = 0;
length--;
while( pos <= farleft ) {
if( pos > op1right && pos <= op1left ) {
carry += CFAccess( op1, op1left - pos );
}
if( pos > op2right && pos <= op2left ) {
carry = arith( carry, CFAccess( op2, op2left - pos ) );
}
if( carry < 0 ) {
CFDeposit( result, length, carry + 10 );
carry = -1;
} else if( carry > 9 ) {
CFDeposit( result, length, carry - 10 );
carry = 1;
} else {
CFDeposit( result, length, carry );
carry = 0;
}
pos++;
length--;
}
CFDeposit( result, length, carry );
result->sign = op1->sign;
CFClean( result );
return( result );
}
void CMPolynomial::level4(double& result) // multiplication, division, assign
{
register int op;
double hold;
level5(result);
while (token==Assign || token == Mul || token == Div || token == Mod) {
op = token;
get_token();
level5(hold);
arith(op,result,hold);
}
}
void level3(double *hold)
{
char op;
double h;
level4( hold);
while ((op=*(token)) == '*' || op == '/' || op == '%')
{
get_token();
level4( &h);
arith( op, hold, &h);
}
}
struct var *minus(struct array *args) {
struct var *v, *ret;
ret = arrobj(args, 0);
if (ret->type == V_INT || ret->type == V_DOUB)
return arith(args, SUB);
else if (ret->type == V_ARR) {
v = arrobj(args, 1);
arrrm(ret->val.aval, (v->type == V_INT) ? v->val.ival : v->val.fval);
}
return ret;
}
void expand_literals(expr_ref_vector& conjs) {
arith_util arith(m);
datatype_util dt(m);
bv_util bv(m);
expr* e1, *e2, *c, *val;
rational r;
unsigned bv_size;
TRACE("pdr",
tout << "begin expand\n";
for (unsigned i = 0; i < conjs.size(); ++i) {
tout << mk_pp(conjs[i].get(), m) << "\n";
});
void level2(double *hold)
{
char op;
double h;
level3( hold);
while ((op=*(token)) == '+' || op == '-')
{
get_token();
level3( &h);
arith(op, hold, &h);
}
}
void compileBinExp(Expression &exp1, Expression &exp2, Token binOp)
{
Expression exp;
if (exp1.kindOf == Expression::NUM)
if (exp2.kindOf == Expression::NUM)
{
exp1.kindOf = Expression::NUM;
exp1.value = arith(exp1.value, exp2.value, binOp);
}
//print(binOp.kindOf);
// if (exp1.kindOf == )
}
void CMPolynomial::level3(double& result) //plus or minus
{
register int op;
double hold;
level4(result);
while (token == Plus || token == Minus) {
op = token;
get_token();
level4(hold);
arith(op,result,hold);
}
}
/*
* Expand arithmetic expression. Backup to start of expression,
* evaluate, place result in (backed up) result, adjust string position.
*/
void
expari(int flag)
{
char *p, *q, *start;
arith_t result;
int begoff;
int quotes = flag & (EXP_FULL | EXP_CASE | EXP_REDIR);
int quoted;
/*
* This routine is slightly over-complicated for
* efficiency. First we make sure there is
* enough space for the result, which may be bigger
* than the expression. Next we
* scan backwards looking for the start of arithmetic. If the
* next previous character is a CTLESC character, then we
* have to rescan starting from the beginning since CTLESC
* characters have to be processed left to right.
*/
CHECKSTRSPACE(DIGITS(result) - 2, expdest);
USTPUTC('\0', expdest);
start = stackblock();
p = expdest - 2;
while (p >= start && *p != CTLARI)
--p;
if (p < start || *p != CTLARI)
error("missing CTLARI (shouldn't happen)");
if (p > start && *(p - 1) == CTLESC)
for (p = start; *p != CTLARI; p++)
if (*p == CTLESC)
p++;
if (p[1] == '"')
quoted=1;
else
quoted=0;
begoff = p - start;
removerecordregions(begoff);
if (quotes)
rmescapes(p+2);
q = grabstackstr(expdest);
result = arith(p+2);
ungrabstackstr(q, expdest);
fmtstr(p, DIGITS(result), ARITH_FORMAT_STR, result);
while (*p++)
;
if (quoted == 0)
recordregion(begoff, p - 1 - start, 0);
result = expdest - p + 1;
STADJUST(-result, expdest);
}
static arith_t run_arith(const char *s)
{
arith_state_t math_state;
arith_t result;
math_state.lookupvar = getenv;
math_state.setvar = setvar;
math_state.endofname = arith_endofname;
result = arith(&math_state, s);
if (math_state.errmsg)
printf("let: %s\n", math_state.errmsg);
return result;
}
/*
* Expand arithmetic expression.
* Note that flag is not required as digits never require CTLESC characters.
*/
static char *
expari(char *p)
{
char *q, *start;
arith_t result;
int begoff;
int quoted;
int c;
int nesting;
int adj;
quoted = *p++ == '"';
begoff = expdest - stackblock();
argstr(p, 0);
removerecordregions(begoff);
STPUTC('\0', expdest);
start = stackblock() + begoff;
q = grabstackstr(expdest);
result = arith(start);
ungrabstackstr(q, expdest);
start = stackblock() + begoff;
adj = start - expdest;
STADJUST(adj, expdest);
CHECKSTRSPACE((int)(DIGITS(result) + 1), expdest);
fmtstr(expdest, DIGITS(result), ARITH_FORMAT_STR, result);
adj = strlen(expdest);
STADJUST(adj, expdest);
if (!quoted)
recordregion(begoff, expdest - stackblock(), 0);
nesting = 1;
while (nesting > 0) {
c = *p++;
if (c == CTLESC)
p++;
else if (c == CTLARI)
nesting++;
else if (c == CTLENDARI)
nesting--;
else if (c == CTLVAR)
p++; /* ignore variable substitution byte */
else if (c == '\0')
return p - 1;
}
return p;
}
int main(int argc, char**argv)
{
itv_t a,b,c;
bound_t bound;
itv_internal_t* intern;
ap_fpu_init();
mpfr_set_default_prec(4046);
intern = itv_internal_alloc();
itv_init(a); itv_init(b); itv_init(c); bound_init(bound);
/* Positive or negative intervals */
bound_set_int(b->inf,-3); bound_set_int(b->sup,5);
bound_set_int(c->inf,-1); bound_set_int(c->sup,5);
bound_set_int(bound,4);
arith(intern,a,b,c,bound);
itv_neg(c,c);
arith(intern,a,b,c,bound);
itv_neg(b,b);
arith(intern,a,b,c,bound);
itv_neg(c,c);
arith(intern,a,b,c,bound);
/* general intervals */
bound_set_int(b->inf,3); bound_set_int(b->sup,5);
bound_set_int(c->inf,7); bound_set_int(c->sup,11);
bound_set_int(bound,3);
arith(intern,a,b,c,bound);
bound_set_int(bound,-3);
arith(intern,a,b,c,bound);
/* aliases */
bound_set_int(b->inf,3); bound_set_int(b->sup,5);
bound_set_int(c->inf,7); bound_set_int(c->sup,11);
bound_set_int(bound,3);
arith(intern,b,b,b,bound);
bound_set_int(bound,-3);
arith(intern,b,b,b,bound);
itv_clear(a);
itv_clear(b);
itv_clear(c);
bound_clear(bound);
itv_internal_free(intern);
}
bool
check(misc::runner const & i_runner, host::generic_program i_program)
{
chrono::steady_clock::time_point tp = chrono::steady_clock::now();
host::buffer<pfm::int_> bufWrite(i_runner.m_context, item_count);
typedef host::buffer<pfm::int_>::const_iterator iterator;
// kernel内で使用できる事の確認
i_runner.m_queue(
run_kernel(
i_program,
fill_index(bufWrite),
item_count));
auto future =
i_runner.m_queue(
bufWrite.with_range(
[](iterator i_begin, iterator i_end){
return std::accumulate(i_begin, i_end, 0);
}));
std::future_status result =
future.wait_until(tp + chrono::seconds(5));
assert(result == std::future_status::ready);
assert(future.get() == arith(2, item_count));
// ホストから呼べない事の確認
try {
int const a = 1; //gcc-4.7.2 twice(1)と書くと内部エラー
i_runner.m_queue(
host::run_kernel(
i_program,
twice(a),
1)
);
assert(false);
}
catch (cl::Error err) {
assert(err.err() == CL_INVALID_KERNEL_NAME);
}
return true;
}
/* Add or subtract two terms. */
void level2(double* result){
char op;
double hold;
// printf("level2: came with bas_token %s\n", bas_token );
level3(result);
//printf("level2: ret lev3 bas_token %s, result=%lf\n", *result);
// == >= <= !=
// ~ : _ !
while((op = *bas_token) == '+' || op == '-' || op == '<' || op == '>' || op == '~' || op == ':' || op == '_' || op == '!' ) {
//printf("arith: op=%s \n", bas_token );
get_token();
//printf("arith: op=%s, \n", bas_token );
level3(&hold);
arith(op, result, &hold);
}
}
void mean::entry()
{
sc_signed i(24); // Will hold input a
sc_signed j(24); // Will hold input b
sc_signed k(24); // Will hold input c
sc_signed l(24); // Will hold input d
sc_signed arith(24); // Arithmetic mean
sc_signed geom(24); // Geometric mean
sc_signed harmonic(24); // Harmonic mean
while (true) {
// read all inputs
send_input.write(true);
do { wait(); } while (data_available != true);
i = in.read().to_int();
wait();
j = in.read().to_int();
wait();
k = in.read().to_int();
wait();
l = in.read().to_int();
send_input.write(false);
// Calculate arithmetic mean
arith = (i + j + k + l) / 4;
// Calculate geometric mean
calculate_geometric_mean(i, j, k, l, geom);
// Calculate harmonic mean
calculate_harmonic_mean(i, j, k, l, harmonic);
// write all outputs
do { wait(); } while (receiver_ready != true);
data_ready.write(true);
wait();
out.write(arith);
wait();
out.write(geom);
wait();
out.write(harmonic);
wait();
data_ready.write(false);
}
} // end of entry function
/** issue a query filling the model storage
* this will change when I will learn how to call SWI-Prolog completion interface
*/
void Completion::initialize(QStringList &strings) {
SwiPrologEngine::in_thread _int;
try {
PlTerm p,m,a,l,v;
PlQuery q("setof",
PlTermv(p,
quv(m,
quv(a,
join(PlCompound("current_predicate", mod(m, arith(p, a))),
neg(C("sub_atom", PlTermv(p, zero, one, _V, A("$"))))
))),
l));
if (q.next_solution())
for (PlTail x(l); x.next(v); )
strings.append(CCP(v));
}
catch(PlException e) {
qDebug() << CCP(e);
}
}
bool is_value_sort(ast_manager& m, sort* s) {
arith_util arith(m);
datatype_util data(m);
bv_util bv(m);
ptr_vector<sort> sorts;
ast_mark mark;
sorts.push_back(s);
while (!sorts.empty()) {
s = sorts.back();
sorts.pop_back();
if (mark.is_marked(s)) {
continue;
}
mark.mark(s, true);
if (arith.is_int_real(s)) {
// simple
}
else if (m.is_bool(s)) {
// simple
}
else if (bv.is_bv_sort(s)) {
// simple
}
else if (data.is_datatype(s)) {
ptr_vector<func_decl> const& cs = *data.get_datatype_constructors(s);
for (unsigned i = 0; i < cs.size(); ++i) {
func_decl* f = cs[i];
for (unsigned j = 0; j < f->get_arity(); ++j) {
sorts.push_back(f->get_domain(j));
}
}
}
else {
return false;
}
}
return true;
}