Beispiel #1
0
SV *radio_get_status() {
 have_status = dp_conc_q_rstat_try_pop_all(&_dsp_chain_rstat_queue,&lrstat);

 float angle, angle_lpf;
 HV *hash;
 hash = newHV();
 hv_stores(hash,"have_status",newSViv(have_status));
 if (have_status) {
  ___PERL_INSERT_HASH_COPYING_lrstat
  angle     = 30.0 * lrstat.phase_diff;
  angle_lpf = 30.0 * lrstat.phase_diff_lpf;
  angle     *= 360.0;
  angle_lpf *= 360.0;
  angle     += _main_radial_calibrate;
  angle_lpf += _main_radial_calibrate;
  angle      = (angle     < 0)   ? angle     + 360.0 : 
	       (angle     > 360) ? angle     - 360.0 : angle;
  angle_lpf  = (angle_lpf < 0)   ? angle_lpf + 360.0 : 
	       (angle_lpf > 360) ? angle_lpf - 360.0 : angle_lpf;

  hv_stores(hash,"angle",    newSVnv(angle));
  hv_stores(hash,"angle_lpf",newSVnv(angle_lpf));
  char a_bit = 0;
  id_instr[0] = 0;
  while (dp_conc_q_char_try_pop(&_dsp_chain_id_text_queue, &a_bit)) {
   int l = strlen(id_instr);
   id_instr[l] = a_bit;
   id_instr[l+1] = 0;
  }
  hv_stores(hash,"id_instr",newSVpv(id_instr,strlen(id_instr)));
  id_instr[0] = 0;
 }

 return newRV_noinc((SV *)hash);
}
    /* Dump this index into Perl.
     * Used in testing only. */
    SV* dump() const
    {
        HV* idx = newHV();
        for (const auto& token2entries : index)
        {
            HV* entries = newHV();

            for (const auto& id2tf : token2entries.second)
            {
                std::string k = std::to_string(id2tf.first);
                hv_store(entries, k.c_str(), k.size(),
                         newSViv(id2tf.second), 0);
            }

            hv_store(idx, token2entries.first.c_str(), token2entries.first.size(),
                     newRV_noinc(reinterpret_cast<SV*>(entries)), 0);
        }

        HV* len = newHV();
        for (const auto& id2length : lengths)
        {
            std::string id = std::to_string(id2length.first);
            hv_store(len, id.c_str(), id.size(),
                     newSVpvf("%.2f", id2length.second), 0);
        }

        HV* dump = newHV();
        hv_stores(dump, "index",   newRV_noinc(reinterpret_cast<SV*>(idx)));
        hv_stores(dump, "lengths", newRV_noinc(reinterpret_cast<SV*>(len)));
        return newRV_noinc(reinterpret_cast<SV*>(dump));
    }
static SV*
make_views_row(PLCB_t *parent, const lcb_RESPVIEWQUERY *resp)
{
    HV *rowdata = newHV();
    SV *docid = sv_from_rowdata(resp->docid, resp->ndocid);

    /* Key, Value, Doc ID, Geo, Doc */
    hv_stores(rowdata, "key", sv_from_rowdata(resp->key, resp->nkey));
    hv_stores(rowdata, "value", sv_from_rowdata(resp->value, resp->nvalue));
    hv_stores(rowdata, "geometry", sv_from_rowdata(resp->geometry, resp->ngeometry));
    hv_stores(rowdata, "id", docid);

    if (resp->docresp) {
        const lcb_RESPGET *docresp = resp->docresp;
        AV *docav = newAV();

        hv_stores(rowdata, "__doc__", newRV_noinc((SV*)docav));
        av_store(docav, PLCB_RETIDX_KEY, SvREFCNT_inc(docid));
        plcb_doc_set_err(parent, docav, resp->rc);

        if (docresp->rc == LCB_SUCCESS) {
            SV *docval = plcb_convert_getresp(parent, docav, docresp);
            av_store(docav, PLCB_RETIDX_VALUE, docval);
            plcb_doc_set_cas(parent, docav, &docresp->cas);
        }
    }
    return newRV_noinc((SV *)rowdata);
}
Beispiel #4
0
SV*
polynode2perl(const ClipperLib::PolyNode& node)
{
    HV* hv = newHV();
    Slic3r::Polygon p;
    ClipperPath_to_Slic3rMultiPoint(node.Contour, p);
    if (node.IsHole()) {
        (void)hv_stores( hv, "hole", p.to_SV_clone_ref() );
    } else {
        (void)hv_stores( hv, "outer", p.to_SV_clone_ref() );
    }
    (void)hv_stores( hv, "children", polynode_children_2_perl(node) );
    return (SV*)newRV_noinc((SV*)hv);
}
void 
scan_search_entry_response(const char** src, const char* max, HV *out) {
    SV *dn, *key;
    STRLEN len;
    dn = newSV(0);
    hv_stores(out, "dn", dn);
    scan_string_utf8(src, max, dn);

    scan_sequence(src, max, &len);
    if (len != max - *src)
	croak("scan_search_entry_response: packet too short");
    
    key = sv_newmortal();
    while (*src < max) {
	const char *attribute_max;
	AV *values;
	scan_sequence(src, max, &len);
	attribute_max = *src + len;
	scan_string_utf8(src, max, key);
	values = newAV();
	hv_store_ent(out, key, newRV_noinc((SV*)values), 0);
	scan_set(src, max, &len);
	if (attribute_max != *src + len)
	    croak("bad packet");
	while (*src < attribute_max) {
	    SV *v = newSV(0);
	    av_push(values, v);
	    scan_string_utf8(src, attribute_max, v);
	}
    }
}
SV *ast_to_sv(pTHX_ AST *ast)
{
    SV *root = node_to_sv(aTHX_ ast->root);
    HV *hash = (HV*)new_Hash();
    hv_stores(hash, "root", set(root));
    SV *ret = set(bless(aTHX_ hash, "Compiler::Parser::AST"));
    return ret;
}
Beispiel #7
0
SV *radio_get_status() {
 have_status = _dsp_chain_rstat_queue.try_pop_all(lrstat);

 HV *hash;
 hash = newHV();
 hv_stores(hash,"have_status",newSViv(have_status));
 if (have_status) {
 ___PERL_INSERT_HASH_COPYING_lrstat
  std::string a_bit = "";
  while (_dsp_chain_id_text_queue.try_pop(a_bit)) {
   id_instr += a_bit;
  }
  hv_stores(hash,"id_instr",newSVpv(id_instr.c_str(),id_instr.size()));
  id_instr.clear();
 }

 return newRV_noinc((SV *)hash);
};
void
scan_extended_request(const char **src, const char *max, HV *out) {
    U8 type;
    U32 tag;
    SV *sv = newSV(0);
    hv_stores(out, "oid", sv);
    scan_raw(src, max, &type, &tag, sv);
    if (type != (ASN1_CONTEXT_SPECIFIC | ASN1_PRIMITIVE) || tag != 0)
	croak("scan_extended_request: bad value");
    if (!sv_utf8_decode(sv))
	croak("scan_string_utf8: invalid UTF8 data received");

    if (*src < max) {
	sv = newSV(0);
	hv_stores(out, "value", sv);
	scan_raw(src, max, &type, &tag, sv);
	if (type != (ASN1_CONTEXT_SPECIFIC | ASN1_PRIMITIVE) || tag != 1)
	    croak("scan_extended_request: bad value");
    }
}
Beispiel #9
0
SV *radio_get_fft() {
 have_fft = _dsp_chain_peaks_queue.try_pop_all(pts);
 HV *hash;
 hash = newHV();
 hv_stores(hash,"have_fft",newSViv(have_fft));
 if (have_fft) {
  ___PERL_INSERT_HASH_COPYING_pts 
  AV *av;
  av = newAV();
  for (uint32_t i=0;i<pts.points.size();i++) { 
   HV *h2;
   h2 = newHV();
   hv_stores(h2,"index",newSViv(pts.points[i].bin));
   hv_stores(h2,"dB",newSVnv(pts.points[i].db));
   av_push(av,newRV_noinc((SV *)h2));
  }
  hv_stores(hash,"points",newRV_noinc((SV *)av));
 }
 return newRV_noinc((SV *)hash);
};
Beispiel #10
0
SV *radio_get_fft() {
 HV *hash;
 uint32_t i;
 uint32_t sr, fr;
 have_fft = dp_conc_q_peaks_try_pop_all(&_dsp_chain_peaks_queue,&pts);
 hash = newHV();
 hv_stores(hash,"have_fft",newSViv(have_fft));
 if (have_fft) {
  ___PERL_INSERT_HASH_COPYING_pts 
  AV *av;
  av = newAV();
  sr = _main_sample_rate;
  fr = _main_freq;
  /*
  dp_radio2832_dev_cmd(radio,GT_SR,&sr);
  dp_radio2832_dev_cmd(radio,GT_FREQ,&fr);
  */
  for (i=0;i<pts.actpts;i++) { 
   HV *h2;
   float f;
   h2 = newHV();
   hv_stores(h2,"index",newSViv(pts.points[i]->bin));
   hv_stores(h2,"dB",newSVnv(pts.points[i]->db));
   hv_stores(h2,"abs",newSVnv(pts.points[i]->abs));
   f = (float)pts.points[i]->bin / (float)pts.length;
   f *= (float)sr;
   f -= 0.5 * (float)sr;
   f += (float)fr;
   hv_stores(h2,"f",newSVnv(f));
   av_push(av,newRV_noinc((SV *)h2));
  }
  hv_stores(hash,"points",newRV_noinc((SV *)av));
 }
 return newRV_noinc((SV *)hash);
}
void scan_result_response(const char** src, const char* max, HV *out) {
    I32 r;
    SV *sv;

    scan_enum(src, max, &r);
    hv_stores(out, "result", newSVsv(ldap_error2sv_noinc(r)));

    sv = newSV(0);
    hv_stores(out, "matched_dn", sv);
    scan_string_utf8(src, max, sv);

    sv = newSV(0);
    hv_stores(out, "message", sv);
    scan_string_utf8(src, max, sv);

    if (*src < max) {
	U8 type;
	U32 tag;
	STRLEN len;
	AV *referrals;
	scan_tag(src, max, &type, &tag);
	if (type != (ASN1_CONTEXT_SPECIFIC | ASN1_CONSTRUCTED) || tag != 3)
	    croak("bad packed data");
	scan_length(src, max, &len);
	if (len != max - *src)
	    croak("scan_result_response: packet too short");

	referrals = newAV();
	hv_stores(out, "referrals", newRV_noinc((SV*)referrals));

	while (*src < max) {
	    SV *v = newSV(0);
	    av_push(referrals, v);
	    scan_string_utf8(src, max, v);
	}
    }
}
Beispiel #12
0
static SV *new_Token(pTHX_ Token *token)
{
	HV *hash = (HV*)new_Hash();
	(void)hv_stores(hash, "stype", set(new_Int(token->stype)));
	(void)hv_stores(hash, "type", set(new_Int(token->info.type)));
	(void)hv_stores(hash, "kind", set(new_Int(token->info.kind)));
	(void)hv_stores(hash, "line", set(new_Int(token->finfo.start_line_num)));
	(void)hv_stores(hash, "has_warnings", set(new_Int(token->info.has_warnings)));
	(void)hv_stores(hash, "name", set(new_String(token->info.name, strlen(token->info.name))));
	(void)hv_stores(hash, "data", set(new_String(token->data.c_str(), strlen(token->data.c_str()))));
	HV *stash = (HV *)gv_stashpv("Compiler::Lexer::Token", sizeof("Compiler::Lexer::Token") + 1);
	return sv_bless(new_Ref(hash), stash);
}
Beispiel #13
0
void p5_init_callbacks(
    SV  *(*call_p6_method)(IV, char * , I32, SV *, SV **),
    SV  *(*call_p6_callable)(IV, SV *, SV **),
    void (*free_p6_object)(IV),
    SV  *(*hash_at_key)(IV, char *),
    SV  *(*hash_assign_key)(IV, char *, SV *)
) {
    perl6_callbacks *cbs = malloc(sizeof(perl6_callbacks));
    cbs->call_p6_method   = call_p6_method;
    cbs->call_p6_callable = call_p6_callable;
    cbs->free_p6_object   = free_p6_object;
    cbs->hash_at_key      = hash_at_key;
    cbs->hash_assign_key  = hash_assign_key;
    hv_stores(PL_modglobal, "Inline::Perl5 callbacks", newSViv((IV)cbs));
}
void
scan_search_reference_response(const char **src, const char *max, HV *hv) {
    AV *av = newAV();
    hv_stores(hv, "uris", newRV_noinc((SV*)av));
    scan_array_of_string_utf8(src, max, av);
}
Beispiel #15
0
static SV *node_to_sv(pTHX_ Node *node)
{
	SV *ret = NULL;
	if (!node) return ret;
	if (TYPE_match(node, BranchNode)) {
		BranchNode *branch = dynamic_cast<BranchNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, branch->tk);
		add_key(hash, "left", branch->left);
		add_key(hash, "right", branch->right);
		add_key(hash, "next", branch->next);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::Branch");
	} else if (TYPE_match(node, FunctionCallNode)) {
		FunctionCallNode *call = dynamic_cast<FunctionCallNode *>(node);
		Nodes *args = call->args;
		size_t argsize = args->size();
		AV *array = new_Array();
		for (size_t i = 0; i < argsize; i++) {
			SV *arg = node_to_sv(aTHX_ args->at(i));
			if (!arg) continue;
			av_push(array, set(arg));
		}
		HV *hash = (HV*)new_Hash();
		add_key(hash, "next", call->next);
		add_token(hash, call->tk);
		(void)hv_stores(hash, "args", set(new_Ref(array)));
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::FunctionCall");
	} else if (TYPE_match(node, ArrayNode)) {
		ArrayNode *array = dynamic_cast<ArrayNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, array->tk);
		add_key(hash, "next", array->next);
		add_key(hash, "idx", array->idx);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::Array");
	} else if (TYPE_match(node, HashNode)) {
		HashNode *h = dynamic_cast<HashNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, h->tk);
		add_key(hash, "next", h->next);
		add_key(hash, "key", h->key);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::Hash");
	} else if (TYPE_match(node, DereferenceNode)) {
		DereferenceNode *dref = dynamic_cast<DereferenceNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, dref->tk);
		add_key(hash, "next", dref->next);
		add_key(hash, "expr", dref->expr);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::Dereference");
	} else if (TYPE_match(node, FunctionNode)) {
		FunctionNode *f = dynamic_cast<FunctionNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, f->tk);
		add_key(hash, "next", f->next);
		add_key(hash, "body", f->body);
		add_key(hash, "prototype", f->prototype);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::Function");
	} else if (TYPE_match(node, BlockNode)) {
		BlockNode *b = dynamic_cast<BlockNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, b->tk);
		add_key(hash, "next", b->next);
		add_key(hash, "body", b->body);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::Block");
	} else if (TYPE_match(node, ReturnNode)) {
		ReturnNode *r = dynamic_cast<ReturnNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, r->tk);
		add_key(hash, "next", r->next);
		add_key(hash, "body", r->body);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::Return");
	} else if (TYPE_match(node, SingleTermOperatorNode)) {
		SingleTermOperatorNode *s = dynamic_cast<SingleTermOperatorNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, s->tk);
		add_key(hash, "next", s->next);
		add_key(hash, "expr", s->expr);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::SingleTermOperator");
	} else if (TYPE_match(node, DoubleTermOperatorNode)) {
	} else if (TYPE_match(node, LeafNode)) {
		LeafNode *leaf = dynamic_cast<LeafNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, leaf->tk);
		add_key(hash, "next", leaf->next);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::Leaf");
	} else if (TYPE_match(node, ListNode)) {
		ListNode *list = dynamic_cast<ListNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, list->tk);
		add_key(hash, "data", list->data);
		add_key(hash, "next", list->next);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::List");
	} else if (TYPE_match(node, ArrayRefNode)) {
		ArrayRefNode *ref = dynamic_cast<ArrayRefNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, ref->tk);
		add_key(hash, "data", ref->data);
		add_key(hash, "next", ref->next);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::ArrayRef");
	} else if (TYPE_match(node, HashRefNode)) {
		HashRefNode *ref = dynamic_cast<HashRefNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, ref->tk);
		add_key(hash, "data", ref->data);
		add_key(hash, "next", ref->next);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::HashRef");
	} else if (TYPE_match(node, IfStmtNode)) {
		IfStmtNode *stmt = dynamic_cast<IfStmtNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, stmt->tk);
		add_key(hash, "next", stmt->next);
		add_key(hash, "expr", stmt->expr);
		add_key(hash, "true_stmt", stmt->true_stmt);
		add_key(hash, "false_stmt", stmt->false_stmt);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::IfStmt");
	} else if (TYPE_match(node, ElseStmtNode)) {
		ElseStmtNode *stmt = dynamic_cast<ElseStmtNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, stmt->tk);
		add_key(hash, "next", stmt->next);
		add_key(hash, "stmt", stmt->stmt);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::ElseStmt");
	} else if (TYPE_match(node, DoStmtNode)) {
		DoStmtNode *stmt = dynamic_cast<DoStmtNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, stmt->tk);
		add_key(hash, "next", stmt->next);
		add_key(hash, "stmt", stmt->stmt);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::DoStmt");
	} else if (TYPE_match(node, ForStmtNode)) {
		ForStmtNode *stmt = dynamic_cast<ForStmtNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, stmt->tk);
		add_key(hash, "next", stmt->next);
		add_key(hash, "init", stmt->init);
		add_key(hash, "cond", stmt->cond);
		add_key(hash, "progress", stmt->progress);
		add_key(hash, "true_stmt", stmt->true_stmt);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::ForStmt");
	} else if (TYPE_match(node, ForeachStmtNode)) {
		ForeachStmtNode *stmt = dynamic_cast<ForeachStmtNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, stmt->tk);
		add_key(hash, "next", stmt->next);
		add_key(hash, "itr", stmt->itr);
		add_key(hash, "cond", stmt->cond);
		add_key(hash, "true_stmt", stmt->true_stmt);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::ForeachStmt");
	} else if (TYPE_match(node, WhileStmtNode)) {
		WhileStmtNode *stmt = dynamic_cast<WhileStmtNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, stmt->tk);
		add_key(hash, "next", stmt->next);
		add_key(hash, "true_stmt", stmt->true_stmt);
		add_key(hash, "expr", stmt->expr);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::WhileStmt");
	} else if (TYPE_match(node, ModuleNode)) {
		ModuleNode *mod = dynamic_cast<ModuleNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, mod->tk);
		add_key(hash, "next", mod->next);
		add_key(hash, "args", mod->args);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::Module");
	} else if (TYPE_match(node, PackageNode)) {
		PackageNode *pkg = dynamic_cast<PackageNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, pkg->tk);
		add_key(hash, "next", pkg->next);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::Package");
	} else if (TYPE_match(node, RegPrefixNode)) {
		RegPrefixNode *reg = dynamic_cast<RegPrefixNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, reg->tk);
		add_key(hash, "next", reg->next);
		add_key(hash, "option", reg->option);
		add_key(hash, "expr", reg->exp);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::RegPrefix");
	} else if (TYPE_match(node, RegReplaceNode)) {
		RegReplaceNode *reg = dynamic_cast<RegReplaceNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, reg->tk);
		add_key(hash, "next", reg->next);
		add_key(hash, "from", reg->from);
		add_key(hash, "to", reg->to);
		add_key(hash, "option", reg->option);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::RegReplace");
	} else if (TYPE_match(node, RegexpNode)) {
		RegexpNode *reg = dynamic_cast<RegexpNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, reg->tk);
		add_key(hash, "next", reg->next);
		add_key(hash, "option", reg->option);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::Regexp");
	} else if (TYPE_match(node, LabelNode)) {
		LabelNode *label = dynamic_cast<LabelNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, label->tk);
		add_key(hash, "next", label->next);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::Label");
	} else if (TYPE_match(node, HandleNode)) {
		HandleNode *fh = dynamic_cast<HandleNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, fh->tk);
		add_key(hash, "expr", fh->expr);
		add_key(hash, "next", fh->next);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::Handle");
	} else if (TYPE_match(node, HandleReadNode)) {
		HandleReadNode *fh = dynamic_cast<HandleReadNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, fh->tk);
		add_key(hash, "next", fh->next);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::HandleRead");
	} else if (TYPE_match(node, ThreeTermOperatorNode)) {
		ThreeTermOperatorNode *term = dynamic_cast<ThreeTermOperatorNode *>(node);
		HV *hash = (HV*)new_Hash();
		add_token(hash, term->tk);
		add_key(hash, "cond", term->cond);
		add_key(hash, "true_expr", term->true_expr);
		add_key(hash, "false_expr", term->false_expr);
		add_key(hash, "next", term->next);
		ret = bless(aTHX_ hash, "Compiler::Parser::Node::ThreeTermOperator");
	} else {
		assert(0 && "node type is not found");
	}
	return ret;
}
Beispiel #16
0
static void append_common_pointer(pTHX_ HV *hash, Node *node) {
    (void)hv_stores(hash, "indent", set(new_Int(node->tk->finfo.indent)));
    add_key(hash, "next",   node->next);
    add_token(hash, node->tk);
}
Beispiel #17
0
static void xs_getaddrinfo(pTHX_ CV *cv)
{
	dVAR;
	dXSARGS;

	SV   *host;
	SV   *service;
	SV   *hints;

	char *hostname = NULL;
	char *servicename = NULL;
	STRLEN len;
	struct addrinfo hints_s;
	struct addrinfo *res;
	struct addrinfo *res_iter;
	int err;
	int n_res;

	if(items > 3)
		croak_xs_usage(cv, "host, service, hints");

	SP -= items;

	if(items < 1)
		host = &PL_sv_undef;
	else
		host = ST(0);

	if(items < 2)
		service = &PL_sv_undef;
	else
		service = ST(1);

	if(items < 3)
		hints = NULL;
	else
		hints = ST(2);

	SvGETMAGIC(host);
	if(SvOK(host)) {
		hostname = SvPV_nomg(host, len);
		if (!len)
			hostname = NULL;
	}

	SvGETMAGIC(service);
	if(SvOK(service)) {
		servicename = SvPV_nomg(service, len);
		if (!len)
			servicename = NULL;
	}

	Zero(&hints_s, sizeof hints_s, char);
	hints_s.ai_family = PF_UNSPEC;

	if(hints && SvOK(hints)) {
		HV *hintshash;
		SV **valp;

		if(!SvROK(hints) || SvTYPE(SvRV(hints)) != SVt_PVHV)
			croak("hints is not a HASH reference");

		hintshash = (HV*)SvRV(hints);

		if((valp = hv_fetch(hintshash, "flags", 5, 0)) != NULL)
			hints_s.ai_flags = SvIV(*valp);
		if((valp = hv_fetch(hintshash, "family", 6, 0)) != NULL)
			hints_s.ai_family = SvIV(*valp);
		if((valp = hv_fetch(hintshash, "socktype", 8, 0)) != NULL)
			hints_s.ai_socktype = SvIV(*valp);
		if((valp = hv_fetch(hintshash, "protocol", 8, 0)) != NULL)
			hints_s.ai_protocol = SvIV(*valp);
	}

	err = getaddrinfo(hostname, servicename, &hints_s, &res);

	XPUSHs(err_to_SV(aTHX_ err));

	if(err)
		XSRETURN(1);

	n_res = 0;
	for(res_iter = res; res_iter; res_iter = res_iter->ai_next) {
		HV *res_hv = newHV();

		(void)hv_stores(res_hv, "family",   newSViv(res_iter->ai_family));
		(void)hv_stores(res_hv, "socktype", newSViv(res_iter->ai_socktype));
		(void)hv_stores(res_hv, "protocol", newSViv(res_iter->ai_protocol));

		(void)hv_stores(res_hv, "addr",     newSVpvn((char*)res_iter->ai_addr, res_iter->ai_addrlen));

		if(res_iter->ai_canonname)
			(void)hv_stores(res_hv, "canonname", newSVpv(res_iter->ai_canonname, 0));
		else
			(void)hv_stores(res_hv, "canonname", newSV(0));

		XPUSHs(sv_2mortal(newRV_noinc((SV*)res_hv)));
		n_res++;
	}

	freeaddrinfo(res);

	XSRETURN(1 + n_res);
}