#ifndef __NASAL_VM_H__ #define __NASAL_VM_H__ class nasal_vm { private: /* reference from nasal_gc */ nasal_ref*& top; // stack top /* values of nasal_vm */ uint32_t pc; // program counter uint32_t offset; // used to load default parameter to a new function std::stack ret; // ptr stack stores address for function to return std::stack func_stk; // stack to store function,this is used when getting upvalues std::stack counter; // iterator stack for forindex/foreach const double* num_table;// numbers used in process(const calculation) std::vector str_table;// symbols used in process std::vector imm; // immediate number nasal_ref* mem_addr; // used for mem_call nasal_gc gc; // garbage collector /* values used for debug */ std::vector bytecode; // bytecode std::vector files; // files void init( const std::vector&, const std::vector&, const std::vector&); void clear(); /* debug functions */ bool detail_info; void valinfo(nasal_ref&); void bytecodeinfo(const uint32_t); void traceback(); void stackinfo(const uint32_t); void detail(); void opcallsort(const uint64_t*); void die(std::string); /* vm calculation functions*/ bool condition(nasal_ref); void opr_nop(); void opr_intg(); void opr_intl(); void opr_loadg(); void opr_loadl(); void opr_loadu(); void opr_pnum(); void opr_pone(); void opr_pzero(); void opr_pnil(); void opr_pstr(); void opr_newv(); void opr_newh(); void opr_newf(); void opr_happ(); void opr_para(); void opr_defpara(); void opr_dynpara(); void opr_unot(); void opr_usub(); void opr_add(); void opr_sub(); void opr_mul(); void opr_div(); void opr_lnk(); void opr_addc(); void opr_subc(); void opr_mulc(); void opr_divc(); void opr_lnkc(); void opr_addeq(); void opr_subeq(); void opr_muleq(); void opr_diveq(); void opr_lnkeq(); void opr_addeqc(); void opr_subeqc(); void opr_muleqc(); void opr_diveqc(); void opr_lnkeqc(); void opr_meq(); void opr_eq(); void opr_neq(); void opr_less(); void opr_leq(); void opr_grt(); void opr_geq(); void opr_lessc(); void opr_leqc(); void opr_grtc(); void opr_geqc(); void opr_pop(); void opr_jmp(); void opr_jt(); void opr_jf(); void opr_counter(); void opr_cntpop(); void opr_findex(); void opr_feach(); void opr_callg(); void opr_calll(); void opr_upval(); void opr_callv(); void opr_callvi(); void opr_callh(); void opr_callfv(); void opr_callfh(); void opr_callb(); void opr_slcbegin(); void opr_slcend(); void opr_slc(); void opr_slc2(); void opr_mcallg(); void opr_mcalll(); void opr_mupval(); void opr_mcallv(); void opr_mcallh(); void opr_ret(); public: nasal_vm():top(gc.top){} ~nasal_vm(){clear();} void run( const nasal_codegen&, const nasal_import&, const bool, const bool); }; void nasal_vm::init( const std::vector& strs, const std::vector& nums, const std::vector& filenames) { gc.init(strs); num_table=nums.data(); // get constant numbers str_table=strs; // get constant strings & symbols files=filenames;// get filenames for debugger } void nasal_vm::clear() { gc.clear(); while(!ret.empty()) ret.pop(); while(!counter.empty()) counter.pop(); str_table.clear(); imm.clear(); } void nasal_vm::valinfo(nasal_ref& val) { const nasal_val* p=val.value.gcobj; switch(val.type) { case vm_none: printf("\tnull |\n");break; case vm_nil: printf("\tnil |\n");break; case vm_num: printf("\tnum | %lf\n",val.num());break; case vm_str: printf("\tstr | <%p> %s\n",p,raw_string(*val.str()).c_str());break; case vm_func: printf("\tfunc | <%p> func{entry=0x%x}\n",p,val.func()->entry);break; case vm_vec: printf("\tvec | <%p> [%lu val]\n",p,val.vec()->elems.size());break; case vm_hash: printf("\thash | <%p> {%lu member}\n",p,val.hash()->elems.size());break; case vm_obj: printf("\tobj | <%p>\n",p);break; } } void nasal_vm::bytecodeinfo(const uint32_t p) { const opcode& code=bytecode[p]; printf("\t0x%.8x: %s 0x%x",p,code_table[code.op].name,code.num); if(code.op==op_callb) printf(" <%s>",builtin[code.num].name); printf(" (<%s> line %d)\n",files[code.fidx].c_str(),code.line); } void nasal_vm::traceback() { // push pc to ret stack to store the position program crashed ret.push(pc); printf("trace back:\n"); uint32_t same=0,last=0xffffffff; for(uint32_t point=0;!ret.empty();last=point,ret.pop()) { point=ret.top(); if(point==last) { ++same; continue; } if(same) { printf("\t0x%.8x: %d same call(s) ...\n",last,same); same=0; } bytecodeinfo(point); } if(same) printf("\t0x%.8x: %d same call(s) ...\n",last,same); } void nasal_vm::stackinfo(const uint32_t limit=10) { printf("vm stack(limit %d):\n",limit); uint32_t same=0,global_size=bytecode[0].num; nasal_ref last={vm_none,0xffffffff}; for(uint32_t i=0;i=gc.stack+global_size;++i,--top) { if(top[0]==last) { ++same; continue; } if(same) { printf("\t... | %d same value(s)\n",same); same=0; } last=top[0]; valinfo(top[0]); } if(same) printf("\t... | %d same value(s)\n",same); } void nasal_vm::detail() { printf("mcall address: %p\n",mem_addr); if(bytecode[0].num)// bytecode[0] is op_intg { printf("global:\n"); for(uint32_t i=0;ielems; for(uint32_t i=0;iupvalue.empty()) { printf("upvalue:\n"); auto& upval=func_stk.top()->upvalue; for(uint32_t i=0;ielems; for(uint32_t j=0;j op; std::vector opcall; for(uint32_t i=0;i<=op_exit;++i) opcall.push_back({i,arr[i]}); std::sort( opcall.begin(), opcall.end(), [](op& a,op& b){return a.second>b.second;} ); std::cout<<'\n'; for(auto& i:opcall) { if(!i.second) break; std::cout<c_str()); if(std::isnan(num)) return val.str()->empty(); return num; } return false; } inline void nasal_vm::opr_nop(){} inline void nasal_vm::opr_intg() { // global values store on stack for(uint32_t i=0;ilocal.resize(imm[pc],gc.nil); } inline void nasal_vm::opr_loadg() { gc.stack[imm[pc]]=(top--)[0]; } inline void nasal_vm::opr_loadl() { gc.local.back().vec()->elems[imm[pc]]=(top--)[0]; } inline void nasal_vm::opr_loadu() { func_stk.top()->upvalue[(imm[pc]>>16)&0xffff].vec()->elems[imm[pc]&0xffff]=(top--)[0]; } inline void nasal_vm::opr_pnum() { (++top)[0]={vm_num,num_table[imm[pc]]}; } inline void nasal_vm::opr_pone() { (++top)[0]={vm_num,(double)1}; } inline void nasal_vm::opr_pzero() { (++top)[0]={vm_num,(double)0}; } inline void nasal_vm::opr_pnil() { (++top)[0].type=vm_nil; } inline void nasal_vm::opr_pstr() { (++top)[0]=gc.strs[imm[pc]]; } inline void nasal_vm::opr_newv() { nasal_ref newv=gc.alloc(vm_vec); auto& vec=newv.vec()->elems;// top-imm[pc] stores the vector vec.resize(imm[pc]); // use top-=imm[pc]-1 here will cause error if imm[pc] is 0 top=top-imm[pc]+1; for(uint32_t i=0;ientry=imm[pc]; if(!gc.local.empty()) { top[0].func()->upvalue=func_stk.top()->upvalue; top[0].func()->upvalue.push_back(gc.local.back()); } } inline void nasal_vm::opr_happ() { top[-1].hash()->elems[str_table[imm[pc]]]=top[0]; --top; } inline void nasal_vm::opr_para() { nasal_func* func=top[0].func(); size_t size=func->keys.size(); func->keys[str_table[imm[pc]]]=size; func->local[offset++]={vm_none}; } inline void nasal_vm::opr_defpara() { nasal_ref val=top[0]; nasal_func* func=(--top)[0].func(); size_t size=func->keys.size(); func->keys[str_table[imm[pc]]]=size; func->local[offset++]=val; } inline void nasal_vm::opr_dynpara() { top[0].func()->dynpara=imm[pc]; } inline void nasal_vm::opr_unot() { nasal_ref val=top[0]; switch(val.type) { case vm_nil:top[0]=gc.zero;break; case vm_num:top[0]=val.num()?gc.zero:gc.one;break; case vm_str: { double num=str2num(val.str()->c_str()); if(std::isnan(num)) top[0]=val.str()->empty()?gc.one:gc.zero; else top[0]=num?gc.zero:gc.one; } break; default:die("unot: incorrect value type");break; } } inline void nasal_vm::opr_usub() { top[0]={vm_num,-top[0].to_number()}; } #define op_calc(type)\ nasal_ref val(vm_num,top[-1].to_number() type top[0].to_number());\ (--top)[0]=val; inline void nasal_vm::opr_add(){op_calc(+);} inline void nasal_vm::opr_sub(){op_calc(-);} inline void nasal_vm::opr_mul(){op_calc(*);} inline void nasal_vm::opr_div(){op_calc(/);} inline void nasal_vm::opr_lnk() { nasal_ref val=gc.alloc(vm_str); *val.str()=top[-1].to_string()+top[0].to_string(); (--top)[0]=val; } #define op_calc_const(type)\ nasal_ref val(vm_num,top[0].to_number() type num_table[imm[pc]]);\ top[0]=val; inline void nasal_vm::opr_addc(){op_calc_const(+);} inline void nasal_vm::opr_subc(){op_calc_const(-);} inline void nasal_vm::opr_mulc(){op_calc_const(*);} inline void nasal_vm::opr_divc(){op_calc_const(/);} inline void nasal_vm::opr_lnkc() { nasal_ref val=gc.alloc(vm_str); *val.str()=top[0].to_string()+str_table[imm[pc]]; top[0]=val; } #define op_calc_eq(type)\ nasal_ref val(vm_num,mem_addr[0].to_number() type top[-1].to_number());\ (--top)[0]=mem_addr[0]=val; inline void nasal_vm::opr_addeq(){op_calc_eq(+);} inline void nasal_vm::opr_subeq(){op_calc_eq(-);} inline void nasal_vm::opr_muleq(){op_calc_eq(*);} inline void nasal_vm::opr_diveq(){op_calc_eq(/);} inline void nasal_vm::opr_lnkeq() { nasal_ref val=gc.alloc(vm_str); *val.str()=mem_addr[0].to_string()+top[-1].to_string(); (--top)[0]=mem_addr[0]=val; } #define op_calc_eq_const(type)\ nasal_ref val(vm_num,mem_addr[0].to_number() type num_table[imm[pc]]);\ top[0]=mem_addr[0]=val; inline void nasal_vm::opr_addeqc(){op_calc_eq_const(+);} inline void nasal_vm::opr_subeqc(){op_calc_eq_const(-);} inline void nasal_vm::opr_muleqc(){op_calc_eq_const(*);} inline void nasal_vm::opr_diveqc(){op_calc_eq_const(/);} inline void nasal_vm::opr_lnkeqc() { nasal_ref val=gc.alloc(vm_str); *val.str()=mem_addr[0].to_string()+str_table[imm[pc]]; top[0]=mem_addr[0]=val; } inline void nasal_vm::opr_meq() { mem_addr[0]=(--top)[0]; } inline void nasal_vm::opr_eq() { nasal_ref val2=top[0]; nasal_ref val1=(--top)[0]; uint8_t a_type=val1.type; uint8_t b_type=val2.type; if(a_type==vm_nil && b_type==vm_nil) top[0]=gc.one; else if(a_type==vm_str && b_type==vm_str) top[0]=(*val1.str()==*val2.str())?gc.one:gc.zero; else if(a_type==vm_num || b_type==vm_num) top[0]=(val1.to_number()==val2.to_number())?gc.one:gc.zero; else top[0]=(val1==val2)?gc.one:gc.zero; } inline void nasal_vm::opr_neq() { nasal_ref val2=top[0]; nasal_ref val1=(--top)[0]; uint8_t a_type=val1.type; uint8_t b_type=val2.type; if(a_type==vm_nil && b_type==vm_nil) top[0]=gc.zero; else if(a_type==vm_str && b_type==vm_str) top[0]=(*val1.str()!=*val2.str())?gc.one:gc.zero; else if(a_type==vm_num || b_type==vm_num) top[0]=(val1.to_number()!=val2.to_number())?gc.one:gc.zero; else top[0]=(val1!=val2)?gc.one:gc.zero; } #define op_cmp(type)\ --top;\ top[0]=(top[0].to_number() type top[1].to_number())?gc.one:gc.zero; inline void nasal_vm::opr_less(){op_cmp(<);} inline void nasal_vm::opr_leq(){op_cmp(<=);} inline void nasal_vm::opr_grt(){op_cmp(>);} inline void nasal_vm::opr_geq(){op_cmp(>=);} #define op_cmp_const(type)\ top[0]=(top[0].to_number() type num_table[imm[pc]])?gc.one:gc.zero; inline void nasal_vm::opr_lessc(){op_cmp_const(<);} inline void nasal_vm::opr_leqc(){op_cmp_const(<=);} inline void nasal_vm::opr_grtc(){op_cmp_const(>);} inline void nasal_vm::opr_geqc(){op_cmp_const(>=);} inline void nasal_vm::opr_pop() { --top; } inline void nasal_vm::opr_jmp() { pc=imm[pc]-1; } inline void nasal_vm::opr_jt() { if(condition(top[0])) pc=imm[pc]-1; } inline void nasal_vm::opr_jf() { if(!condition(top[0])) pc=imm[pc]-1; --top; } inline void nasal_vm::opr_counter() { counter.push(-1); if(top[0].type!=vm_vec) die("cnt: must use vector in forindex/foreach"); } inline void nasal_vm::opr_cntpop() { counter.pop(); } inline void nasal_vm::opr_findex() { if(++counter.top()>=top[0].vec()->elems.size()) { pc=imm[pc]-1; return; } (++top)[0]={vm_num,(double)counter.top()}; } inline void nasal_vm::opr_feach() { std::vector& ref=top[0].vec()->elems; if(++counter.top()>=ref.size()) { pc=imm[pc]-1; return; } (++top)[0]=ref[counter.top()]; } inline void nasal_vm::opr_callg() { (++top)[0]=gc.stack[imm[pc]]; } inline void nasal_vm::opr_calll() { (++top)[0]=gc.local.back().vec()->elems[imm[pc]]; } inline void nasal_vm::opr_upval() { (++top)[0]=func_stk.top()->upvalue[(imm[pc]>>16)&0xffff].vec()->elems[imm[pc]&0xffff]; } inline void nasal_vm::opr_callv() { nasal_ref val=top[0]; nasal_ref vec=(--top)[0]; if(vec.type==vm_vec) { top[0]=vec.vec()->get_val(val.to_number()); if(top[0].type==vm_none) die("callv: index out of range:"+std::to_string(val.to_number())); } else if(vec.type==vm_hash) { if(val.type!=vm_str) die("callv: must use string as the key"); top[0]=vec.hash()->get_val(*val.value.gcobj->ptr.str); if(top[0].type==vm_none) die("callv: cannot find member \""+*val.str()+"\" of this hash"); if(top[0].type==vm_func) top[0].func()->local[0]=val;// me } else if(vec.type==vm_str) { std::string& str=*vec.str(); int num=val.to_number(); int str_size=str.length(); if(num<-str_size || num>=str_size) die("callv: index out of range:"+std::to_string(val.to_number())); top[0]={vm_num,static_cast(str[num>=0? num:num+str_size])}; } else die("callv: must call a vector/hash/string"); } inline void nasal_vm::opr_callvi() { nasal_ref val=top[0]; if(val.type!=vm_vec) die("callvi: must use a vector"); // cannot use operator[],because this may cause overflow (++top)[0]=val.vec()->get_val(imm[pc]); if(top[0].type==vm_none) die("callvi: index out of range:"+std::to_string(imm[pc])); } inline void nasal_vm::opr_callh() { nasal_ref val=top[0]; if(val.type!=vm_hash) die("callh: must call a hash"); top[0]=val.hash()->get_val(str_table[imm[pc]]); if(top[0].type==vm_none) die("callh: member \""+str_table[imm[pc]]+"\" does not exist"); if(top[0].type==vm_func) top[0].func()->local[0]=val;// me } inline void nasal_vm::opr_callfv() { uint32_t args_size=imm[pc]; nasal_ref* args=top-args_size+1; if(args[-1].type!=vm_func) die("callfv: must call a function"); // push new local scope func_stk.push(args[-1].func()); auto& func=*args[-1].func(); gc.local.push_back(gc.alloc(vm_vec)); gc.local.back().vec()->elems=func.local; // load parameters auto& closure=gc.local.back().vec()->elems; uint32_t para_size=func.keys.size(); // load arguments // if the first default value is not vm_none,then values after it are not nullptr if(args_sizepara_size,for 0 to args_size will cause corruption uint32_t min_size=std::min(para_size,args_size); for(uint32_t i=0;i=para_size if(func.dynpara>=0) { nasal_ref vec=gc.alloc(vm_vec); for(uint32_t i=para_size;ielems.push_back(args[i]); closure.back()=vec; } top-=args_size;// pop arguments ret.push(pc); pc=func.entry-1; } inline void nasal_vm::opr_callfh() { // get parameter list and function value auto& hash=top[0].hash()->elems; if(top[-1].type!=vm_func) die("callfh: must call a function"); // push new local scope func_stk.push(top[-1].func()); auto& func=*top[-1].func(); gc.local.push_back(gc.alloc(vm_vec)); gc.local.back().vec()->elems=func.local; // load parameters auto& closure=gc.local.back().vec()->elems; if(func.dynpara>=0) die("callfh: special call cannot use dynamic argument"); for(auto& i:func.keys) { if(hash.count(i.first)) closure[i.second+1]=hash[i.first]; else if(func.local[i.second+1/*1 is reserved for 'me'*/].type==vm_none) die("callfh: lack argument(s): \""+i.first+"\""); } --top;// pop hash ret.push(pc); pc=func.entry-1; } inline void nasal_vm::opr_callb() { (++top)[0]=(*builtin[imm[pc]].func)(gc.local.back().vec()->elems,gc); if(top[0].type==vm_none) die("native function error."); } inline void nasal_vm::opr_slcbegin() { // | slice_vector | <-- top[0] // ---------------- // | resource_vec | <-- top[-1] // ---------------- (++top)[0]=gc.alloc(vm_vec); if(top[-1].type!=vm_vec) die("slcbegin: must slice a vector"); } inline void nasal_vm::opr_slcend() { top[-1]=top[0]; --top; } inline void nasal_vm::opr_slc() { nasal_ref val=(top--)[0]; nasal_ref res=top[-1].vec()->get_val(val.to_number()); if(res.type==vm_none) die("slc: index out of range:"+std::to_string(val.to_number())); top[0].vec()->elems.push_back(res); } inline void nasal_vm::opr_slc2() { nasal_ref val2=(top--)[0]; nasal_ref val1=(top--)[0]; std::vector& ref=top[-1].vec()->elems; std::vector& aim=top[0].vec()->elems; uint8_t type1=val1.type,type2=val2.type; int num1=val1.to_number(); int num2=val2.to_number(); int size=ref.size(); if(type1==vm_nil && type2==vm_nil) { num1=0; num2=size-1; } else if(type1==vm_nil && type2!=vm_nil) num1=num2<0? -size:0; else if(type1!=vm_nil && type2==vm_nil) num2=num1<0? -1:size-1; if(num1>=num2) die("slc2: begin index must be less than end index"); else if(num1<-size || num1>=size) die("slc2: begin index out of range: "+std::to_string(num1)); else if(num2<-size || num2>=size) die("slc2: end index out of range: "+std::to_string(num2)); else for(int i=num1;i<=num2;++i) aim.push_back(i>=0?ref[i]:ref[i+size]); } inline void nasal_vm::opr_mcallg() { mem_addr=gc.stack+imm[pc]; (++top)[0]=mem_addr[0]; } inline void nasal_vm::opr_mcalll() { mem_addr=&(gc.local.back().vec()->elems[imm[pc]]); (++top)[0]=mem_addr[0]; } inline void nasal_vm::opr_mupval() { mem_addr=&func_stk.top()->upvalue[(imm[pc]>>16)&0xffff].vec()->elems[imm[pc]&0xffff]; (++top)[0]=mem_addr[0]; } inline void nasal_vm::opr_mcallv() { nasal_ref val=top[0]; nasal_ref vec=(--top)[0]; if(vec.type==vm_vec) { mem_addr=vec.vec()->get_mem(val.to_number()); if(!mem_addr) die("mcallv: index out of range:"+std::to_string(val.to_number())); } else if(vec.type==vm_hash) { if(val.type!=vm_str) die("mcallv: must use string as the key"); nasal_hash& ref=*vec.hash(); std::string& str=*val.str(); mem_addr=ref.get_mem(str); if(!mem_addr) { ref.elems[str]={vm_nil}; mem_addr=ref.get_mem(str); } } else die("mcallv: cannot get memory space in other types"); } inline void nasal_vm::opr_mcallh() { nasal_ref hash=top[0]; if(hash.type!=vm_hash) die("mcallh: must call a hash"); nasal_hash& ref=*hash.hash(); std::string& str=str_table[imm[pc]]; mem_addr=ref.get_mem(str); if(!mem_addr) // create a new key { ref.elems[str]={vm_nil}; mem_addr=ref.get_mem(str); } } inline void nasal_vm::opr_ret() { // get nasal_func and set 'me' to nil // and rewrite nasal_func with returned value top[-1].func()->local[0]={vm_nil}; --top; top[0]=top[1]; func_stk.pop(); // pop function stack gc.local.pop_back(); // pop local scope pc=ret.top();ret.pop(); // fetch pc } void nasal_vm::run( const nasal_codegen& gen, const nasal_import& linker, const bool opcnt, const bool debug) { detail_info=debug; init(gen.get_strs(),gen.get_nums(),linker.get_file()); uint64_t count[op_exit+1]={0}; const void* opr_table[]= { &&nop, &&intg, &&intl, &&loadg, &&loadl, &&loadu, &&pnum, &&pone, &&pzero, &&pnil, &&pstr, &&newv, &&newh, &&newf, &&happ, &¶, &&defpara, &&dynpara, &&unot, &&usub, &&add, &&sub, &&mul, &&div, &&lnk, &&addc, &&subc, &&mulc, &&divc, &&lnkc, &&addeq, &&subeq, &&muleq, &&diveq, &&lnkeq, &&addeqc, &&subeqc, &&muleqc, &&diveqc, &&lnkeqc, &&meq, &&eq, &&neq, &&less, &&leq, &&grt, &&geq, &&lessc, &&leqc, &&grtc, &&geqc, &&pop, &&jmp, &&jt, &&jf, &&counter, &&cntpop, &&findex, &&feach, &&callg, &&calll, &&upval, &&callv, &&callvi, &&callh, &&callfv, &&callfh, &&callb, &&slcbegin,&&slcend, &&slc, &&slc2, &&mcallg, &&mcalll, &&mupval, &&mcallv, &&mcallh, &&ret, &&vmexit }; bytecode=gen.get_code(); std::vector code; for(auto& i:bytecode) { code.push_back(opr_table[i.op]); imm.push_back(i.num); } // set canary and program counter auto& canary=gc.stack[STACK_MAX_DEPTH-1]; canary.value.gcobj=nullptr; pc=0; // goto the first operand goto *code[pc]; vmexit: if(canary.value.gcobj) die("stack overflow"); if(opcnt) opcallsort(count); clear(); return; // may cause stackoverflow #define exec_operand(op,num) {op();++count[num];if(!canary.value.gcobj)goto *code[++pc];goto vmexit;} // do not cause stackoverflow #define exec_opnodie(op,num) {op();++count[num];goto *code[++pc];} nop: exec_opnodie(opr_nop ,op_nop ); // 0 intg: exec_opnodie(opr_intg ,op_intg ); // +imm[pc] (detected at codegen) intl: exec_opnodie(opr_intl ,op_intl ); // -0 loadg: exec_opnodie(opr_loadg ,op_loadg ); // -1 loadl: exec_opnodie(opr_loadl ,op_loadl ); // -1 loadu: exec_opnodie(opr_loadu ,op_loadu ); // -1 pnum: exec_operand(opr_pnum ,op_pnum ); // +1 pone: exec_operand(opr_pone ,op_pone ); // +1 pzero: exec_operand(opr_pzero ,op_pzero ); // +1 pnil: exec_operand(opr_pnil ,op_pnil ); // +1 pstr: exec_operand(opr_pstr ,op_pstr ); // +1 newv: exec_operand(opr_newv ,op_newv ); // +1-imm[pc] newh: exec_operand(opr_newh ,op_newh ); // +1 newf: exec_operand(opr_newf ,op_newf ); // +1 happ: exec_opnodie(opr_happ ,op_happ ); // -1 para: exec_opnodie(opr_para ,op_para ); // -0 defpara: exec_opnodie(opr_defpara ,op_defpara ); // -1 dynpara: exec_opnodie(opr_dynpara ,op_dynpara ); // -0 unot: exec_opnodie(opr_unot ,op_unot ); // -0 usub: exec_opnodie(opr_usub ,op_usub ); // -0 add: exec_opnodie(opr_add ,op_add ); // -1 sub: exec_opnodie(opr_sub ,op_sub ); // -1 mul: exec_opnodie(opr_mul ,op_mul ); // -1 div: exec_opnodie(opr_div ,op_div ); // -1 lnk: exec_opnodie(opr_lnk ,op_lnk ); // -1 addc: exec_opnodie(opr_addc ,op_addc ); // -0 subc: exec_opnodie(opr_subc ,op_subc ); // -0 mulc: exec_opnodie(opr_mulc ,op_mulc ); // -0 divc: exec_opnodie(opr_divc ,op_divc ); // -0 lnkc: exec_opnodie(opr_lnkc ,op_lnkc ); // -0 addeq: exec_opnodie(opr_addeq ,op_addeq ); // -1 subeq: exec_opnodie(opr_subeq ,op_subeq ); // -1 muleq: exec_opnodie(opr_muleq ,op_muleq ); // -1 diveq: exec_opnodie(opr_diveq ,op_diveq ); // -1 lnkeq: exec_opnodie(opr_lnkeq ,op_lnkeq ); // -1 addeqc: exec_opnodie(opr_addeqc ,op_addeqc ); // -0 subeqc: exec_opnodie(opr_subeqc ,op_subeqc ); // -0 muleqc: exec_opnodie(opr_muleqc ,op_muleqc ); // -0 diveqc: exec_opnodie(opr_diveqc ,op_diveqc ); // -0 lnkeqc: exec_opnodie(opr_lnkeqc ,op_lnkeqc ); // -0 meq: exec_opnodie(opr_meq ,op_meq ); // -1 eq: exec_opnodie(opr_eq ,op_eq ); // -1 neq: exec_opnodie(opr_neq ,op_neq ); // -1 less: exec_opnodie(opr_less ,op_less ); // -1 leq: exec_opnodie(opr_leq ,op_leq ); // -1 grt: exec_opnodie(opr_grt ,op_grt ); // -1 geq: exec_opnodie(opr_geq ,op_geq ); // -1 lessc: exec_opnodie(opr_lessc ,op_lessc ); // -0 leqc: exec_opnodie(opr_leqc ,op_leqc ); // -0 grtc: exec_opnodie(opr_grtc ,op_grtc ); // -0 geqc: exec_opnodie(opr_geqc ,op_geqc ); // -0 pop: exec_opnodie(opr_pop ,op_pop ); // -1 jmp: exec_opnodie(opr_jmp ,op_jmp ); // -0 jt: exec_opnodie(opr_jt ,op_jt ); // -0 jf: exec_opnodie(opr_jf ,op_jf ); // -1 counter: exec_opnodie(opr_counter ,op_cnt ); // -0 cntpop: exec_opnodie(opr_cntpop ,op_cntpop ); // -0 findex: exec_operand(opr_findex ,op_findex ); // +1 feach: exec_operand(opr_feach ,op_feach ); // +1 callg: exec_operand(opr_callg ,op_callg ); // +1 calll: exec_operand(opr_calll ,op_calll ); // +1 upval: exec_operand(opr_upval ,op_upval ); // +1 callv: exec_opnodie(opr_callv ,op_callv ); // -0 callvi: exec_opnodie(opr_callvi ,op_callvi ); // -0 callh: exec_opnodie(opr_callh ,op_callh ); // -0 callfv: exec_opnodie(opr_callfv ,op_callfv ); // -0 callfh: exec_opnodie(opr_callfh ,op_callfh ); // -0 callb: exec_opnodie(opr_callb ,op_callb ); // -0 slcbegin:exec_operand(opr_slcbegin,op_slcbegin); // +1 slcend: exec_opnodie(opr_slcend ,op_slcend ); // -1 slc: exec_opnodie(opr_slc ,op_slc ); // -1 slc2: exec_opnodie(opr_slc2 ,op_slc2 ); // -2 mcallg: exec_operand(opr_mcallg ,op_mcallg ); // +1 mcalll: exec_operand(opr_mcalll ,op_mcalll ); // +1 mupval: exec_operand(opr_mupval ,op_mupval ); // +1 mcallv: exec_opnodie(opr_mcallv ,op_mcallv ); // -0 mcallh: exec_opnodie(opr_mcallh ,op_mcallh ); // -0 ret: exec_opnodie(opr_ret ,op_ret ); // -1 } #endif