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authorDan Albert <danalbert@google.com>2015-06-17 11:09:54 -0700
committerDan Albert <danalbert@google.com>2015-06-17 14:15:22 -0700
commitf378ebf14df0952eae870c9865bab8326aa8f137 (patch)
tree31794503eb2a8c64ea5f313b93100f1163afcffb /gcc-4.2.1/libjava/interpret.cc
parent2c58169824949d3a597d9fa81931e001ef9b1bd0 (diff)
downloadtoolchain_gcc-f378ebf14df0952eae870c9865bab8326aa8f137.tar.gz
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Delete old versions of GCC.
Change-Id: I710f125d905290e1024cbd67f48299861790c66c
Diffstat (limited to 'gcc-4.2.1/libjava/interpret.cc')
-rw-r--r--gcc-4.2.1/libjava/interpret.cc1676
1 files changed, 0 insertions, 1676 deletions
diff --git a/gcc-4.2.1/libjava/interpret.cc b/gcc-4.2.1/libjava/interpret.cc
deleted file mode 100644
index 4b3725855..000000000
--- a/gcc-4.2.1/libjava/interpret.cc
+++ /dev/null
@@ -1,1676 +0,0 @@
-// interpret.cc - Code for the interpreter
-
-/* Copyright (C) 1999, 2000, 2001, 2002, 2003, 2004, 2005, 2006 Free Software Foundation
-
- This file is part of libgcj.
-
-This software is copyrighted work licensed under the terms of the
-Libgcj License. Please consult the file "LIBGCJ_LICENSE" for
-details. */
-
-/* Author: Kresten Krab Thorup <krab@gnu.org> */
-
-#include <config.h>
-#include <platform.h>
-
-#pragma implementation "java-interp.h"
-
-#include <jvm.h>
-#include <java-cpool.h>
-#include <java-interp.h>
-#include <java/lang/System.h>
-#include <java/lang/String.h>
-#include <java/lang/Integer.h>
-#include <java/lang/Long.h>
-#include <java/lang/StringBuffer.h>
-#include <java/lang/Class.h>
-#include <java/lang/reflect/Modifier.h>
-#include <java/lang/InternalError.h>
-#include <java/lang/NullPointerException.h>
-#include <java/lang/ArithmeticException.h>
-#include <java/lang/IncompatibleClassChangeError.h>
-#include <java/lang/InstantiationException.h>
-#include <java/lang/Thread.h>
-#include <java-insns.h>
-#include <java-signal.h>
-#include <java/lang/ClassFormatError.h>
-#include <execution.h>
-#include <java/lang/reflect/Modifier.h>
-
-#include <gnu/classpath/jdwp/Jdwp.h>
-
-#ifdef INTERPRETER
-
-// Execution engine for interpreted code.
-_Jv_InterpreterEngine _Jv_soleInterpreterEngine;
-
-#include <stdlib.h>
-
-using namespace gcj;
-
-static void throw_internal_error (const char *msg)
- __attribute__ ((__noreturn__));
-static void throw_incompatible_class_change_error (jstring msg)
- __attribute__ ((__noreturn__));
-static void throw_null_pointer_exception ()
- __attribute__ ((__noreturn__));
-
-static void throw_class_format_error (jstring msg)
- __attribute__ ((__noreturn__));
-static void throw_class_format_error (const char *msg)
- __attribute__ ((__noreturn__));
-
-#ifdef DIRECT_THREADED
-// Lock to ensure that methods are not compiled concurrently.
-// We could use a finer-grained lock here, however it is not safe to use
-// the Class monitor as user code in another thread could hold it.
-static _Jv_Mutex_t compile_mutex;
-
-void
-_Jv_InitInterpreter()
-{
- _Jv_MutexInit (&compile_mutex);
-}
-#else
-void _Jv_InitInterpreter() {}
-#endif
-
-// The breakpoint instruction. For the direct threaded case,
-// _Jv_InterpMethod::compile will initialize breakpoint_insn
-// the first time it is called.
-#ifdef DIRECT_THREADED
-insn_slot _Jv_InterpMethod::bp_insn_slot;
-pc_t _Jv_InterpMethod::breakpoint_insn = NULL;
-#else
-unsigned char _Jv_InterpMethod::bp_insn_opcode
- = static_cast<unsigned char> (op_breakpoint);
-pc_t _Jv_InterpMethod::breakpoint_insn = &_Jv_InterpMethod::bp_insn_opcode;
-#endif
-
-extern "C" double __ieee754_fmod (double,double);
-
-static inline void dupx (_Jv_word *sp, int n, int x)
-{
- // first "slide" n+x elements n to the right
- int top = n-1;
- for (int i = 0; i < n+x; i++)
- {
- sp[(top-i)] = sp[(top-i)-n];
- }
-
- // next, copy the n top elements, n+x down
- for (int i = 0; i < n; i++)
- {
- sp[top-(n+x)-i] = sp[top-i];
- }
-}
-
-// Used to convert from floating types to integral types.
-template<typename TO, typename FROM>
-static inline TO
-convert (FROM val, TO min, TO max)
-{
- TO ret;
- if (val >= (FROM) max)
- ret = max;
- else if (val <= (FROM) min)
- ret = min;
- else if (val != val)
- ret = 0;
- else
- ret = (TO) val;
- return ret;
-}
-
-#define PUSHA(V) (sp++)->o = (V)
-#define PUSHI(V) (sp++)->i = (V)
-#define PUSHF(V) (sp++)->f = (V)
-#if SIZEOF_VOID_P == 8
-# define PUSHL(V) (sp->l = (V), sp += 2)
-# define PUSHD(V) (sp->d = (V), sp += 2)
-#else
-# define PUSHL(V) do { _Jv_word2 w2; w2.l=(V); \
- (sp++)->ia[0] = w2.ia[0]; \
- (sp++)->ia[0] = w2.ia[1]; } while (0)
-# define PUSHD(V) do { _Jv_word2 w2; w2.d=(V); \
- (sp++)->ia[0] = w2.ia[0]; \
- (sp++)->ia[0] = w2.ia[1]; } while (0)
-#endif
-
-#define POPA() ((--sp)->o)
-#define POPI() ((jint) (--sp)->i) // cast since it may be promoted
-#define POPF() ((jfloat) (--sp)->f)
-#if SIZEOF_VOID_P == 8
-# define POPL() (sp -= 2, (jlong) sp->l)
-# define POPD() (sp -= 2, (jdouble) sp->d)
-#else
-# define POPL() ({ _Jv_word2 w2; \
- w2.ia[1] = (--sp)->ia[0]; \
- w2.ia[0] = (--sp)->ia[0]; w2.l; })
-# define POPD() ({ _Jv_word2 w2; \
- w2.ia[1] = (--sp)->ia[0]; \
- w2.ia[0] = (--sp)->ia[0]; w2.d; })
-#endif
-
-#define LOADA(I) (sp++)->o = locals[I].o
-#define LOADI(I) (sp++)->i = locals[I].i
-#define LOADF(I) (sp++)->f = locals[I].f
-#if SIZEOF_VOID_P == 8
-# define LOADL(I) (sp->l = locals[I].l, sp += 2)
-# define LOADD(I) (sp->d = locals[I].d, sp += 2)
-#else
-# define LOADL(I) do { jint __idx = (I); \
- (sp++)->ia[0] = locals[__idx].ia[0]; \
- (sp++)->ia[0] = locals[__idx+1].ia[0]; \
- } while (0)
-# define LOADD(I) LOADL(I)
-#endif
-
-#define STOREA(I) \
-do { \
-DEBUG_LOCALS_INSN(I, 'o'); \
-locals[I].o = (--sp)->o; \
-} while(0)
-#define STOREI(I) \
-do { \
-DEBUG_LOCALS_INSN (I, 'i'); \
-locals[I].i = (--sp)->i; \
-} while(0)
-#define STOREF(I) \
-do { \
-DEBUG_LOCALS_INSN (I, 'f'); \
-locals[I].f = (--sp)->f; \
-} while(0)
-#if SIZEOF_VOID_P == 8
-# define STOREL(I) \
-do { \
-DEBUG_LOCALS_INSN (I, 'l'); \
-(sp -= 2, locals[I].l = sp->l); \
-} while(0)
-# define STORED(I) \
-do { \
-DEBUG_LOCALS_INSN (I, 'd'); \
-(sp -= 2, locals[I].d = sp->d); \
-} while(0)
-
-#else
-# define STOREL(I) \
-do { DEBUG_LOCALS_INSN(I, 'l'); \
- jint __idx = (I); \
- locals[__idx+1].ia[0] = (--sp)->ia[0]; \
- locals[__idx].ia[0] = (--sp)->ia[0]; \
- } while (0)
-# define STORED(I) \
-do { DEBUG_LOCALS_INSN(I, 'd'); \
- jint __idx = (I); \
- locals[__idx+1].ia[0] = (--sp)->ia[0]; \
- locals[__idx].ia[0] = (--sp)->ia[0]; \
- } while (0)
-#endif
-
-#define PEEKI(I) (locals+(I))->i
-#define PEEKA(I) (locals+(I))->o
-
-#define POKEI(I,V) \
-DEBUG_LOCALS_INSN(I,'i'); \
-((locals+(I))->i = (V))
-
-
-#define BINOPI(OP) { \
- jint value2 = POPI(); \
- jint value1 = POPI(); \
- PUSHI(value1 OP value2); \
-}
-
-#define BINOPF(OP) { \
- jfloat value2 = POPF(); \
- jfloat value1 = POPF(); \
- PUSHF(value1 OP value2); \
-}
-
-#define BINOPL(OP) { \
- jlong value2 = POPL(); \
- jlong value1 = POPL(); \
- PUSHL(value1 OP value2); \
-}
-
-#define BINOPD(OP) { \
- jdouble value2 = POPD(); \
- jdouble value1 = POPD(); \
- PUSHD(value1 OP value2); \
-}
-
-static inline jint get1s(unsigned char* loc) {
- return *(signed char*)loc;
-}
-
-static inline jint get1u(unsigned char* loc) {
- return *loc;
-}
-
-static inline jint get2s(unsigned char* loc) {
- return (((jint)*(signed char*)loc) << 8) | ((jint)*(loc+1));
-}
-
-static inline jint get2u(unsigned char* loc) {
- return (((jint)(*loc)) << 8) | ((jint)*(loc+1));
-}
-
-static jint get4(unsigned char* loc) {
- return (((jint)(loc[0])) << 24)
- | (((jint)(loc[1])) << 16)
- | (((jint)(loc[2])) << 8)
- | (((jint)(loc[3])) << 0);
-}
-
-#define SAVE_PC() frame_desc.pc = pc
-
-// We used to define this conditionally, depending on HANDLE_SEGV.
-// However, that runs into a problem if a chunk in low memory is
-// mapped and we try to look at a field near the end of a large
-// object. See PR 26858 for details. It is, most likely, relatively
-// inexpensive to simply do this check always.
-#define NULLCHECK(X) \
- do { SAVE_PC(); if ((X)==NULL) throw_null_pointer_exception (); } while (0)
-
-// Note that we can still conditionally define NULLARRAYCHECK, since
-// we know that all uses of an array will first reference the length
-// field, which is first -- and thus will trigger a SEGV.
-#ifdef HANDLE_SEGV
-#define NULLARRAYCHECK(X) SAVE_PC()
-#else
-#define NULLARRAYCHECK(X) \
- do { SAVE_PC(); if ((X)==NULL) { throw_null_pointer_exception (); } } while (0)
-#endif
-
-#define ARRAYBOUNDSCHECK(array, index) \
- do \
- { \
- if (((unsigned) index) >= (unsigned) (array->length)) \
- _Jv_ThrowBadArrayIndex (index); \
- } \
- while (0)
-
-void
-_Jv_InterpMethod::run_normal (ffi_cif *,
- void* ret,
- ffi_raw * args,
- void* __this)
-{
- _Jv_InterpMethod *_this = (_Jv_InterpMethod *) __this;
- run (ret, args, _this);
-}
-
-void
-_Jv_InterpMethod::run_normal_debug (ffi_cif *,
- void* ret,
- ffi_raw * args,
- void* __this)
-{
- _Jv_InterpMethod *_this = (_Jv_InterpMethod *) __this;
- run_debug (ret, args, _this);
-}
-
-void
-_Jv_InterpMethod::run_synch_object (ffi_cif *,
- void* ret,
- ffi_raw * args,
- void* __this)
-{
- _Jv_InterpMethod *_this = (_Jv_InterpMethod *) __this;
-
- jobject rcv = (jobject) args[0].ptr;
- JvSynchronize mutex (rcv);
-
- run (ret, args, _this);
-}
-
-void
-_Jv_InterpMethod::run_synch_object_debug (ffi_cif *,
- void* ret,
- ffi_raw * args,
- void* __this)
-{
- _Jv_InterpMethod *_this = (_Jv_InterpMethod *) __this;
-
- jobject rcv = (jobject) args[0].ptr;
- JvSynchronize mutex (rcv);
-
- run_debug (ret, args, _this);
-}
-
-void
-_Jv_InterpMethod::run_class (ffi_cif *,
- void* ret,
- ffi_raw * args,
- void* __this)
-{
- _Jv_InterpMethod *_this = (_Jv_InterpMethod *) __this;
- _Jv_InitClass (_this->defining_class);
- run (ret, args, _this);
-}
-
-void
-_Jv_InterpMethod::run_class_debug (ffi_cif *,
- void* ret,
- ffi_raw * args,
- void* __this)
-{
- _Jv_InterpMethod *_this = (_Jv_InterpMethod *) __this;
- _Jv_InitClass (_this->defining_class);
- run_debug (ret, args, _this);
-}
-
-void
-_Jv_InterpMethod::run_synch_class (ffi_cif *,
- void* ret,
- ffi_raw * args,
- void* __this)
-{
- _Jv_InterpMethod *_this = (_Jv_InterpMethod *) __this;
-
- jclass sync = _this->defining_class;
- _Jv_InitClass (sync);
- JvSynchronize mutex (sync);
-
- run (ret, args, _this);
-}
-
-void
-_Jv_InterpMethod::run_synch_class_debug (ffi_cif *,
- void* ret,
- ffi_raw * args,
- void* __this)
-{
- _Jv_InterpMethod *_this = (_Jv_InterpMethod *) __this;
-
- jclass sync = _this->defining_class;
- _Jv_InitClass (sync);
- JvSynchronize mutex (sync);
-
- run_debug (ret, args, _this);
-}
-
-#ifdef DIRECT_THREADED
-// "Compile" a method by turning it from bytecode to direct-threaded
-// code.
-void
-_Jv_InterpMethod::compile (const void * const *insn_targets)
-{
- insn_slot *insns = NULL;
- int next = 0;
- unsigned char *codestart = bytecode ();
- unsigned char *end = codestart + code_length;
- _Jv_word *pool_data = defining_class->constants.data;
-
-#define SET_ONE(Field, Value) \
- do \
- { \
- if (first_pass) \
- ++next; \
- else \
- insns[next++].Field = Value; \
- } \
- while (0)
-
-#define SET_INSN(Value) SET_ONE (insn, (void *) Value)
-#define SET_INT(Value) SET_ONE (int_val, Value)
-#define SET_DATUM(Value) SET_ONE (datum, Value)
-
- // Map from bytecode PC to slot in INSNS.
- int *pc_mapping = (int *) __builtin_alloca (sizeof (int) * code_length);
- for (int i = 0; i < code_length; ++i)
- pc_mapping[i] = -1;
-
- for (int i = 0; i < 2; ++i)
- {
- jboolean first_pass = i == 0;
-
- if (! first_pass)
- {
- insns = (insn_slot *) _Jv_AllocBytes (sizeof (insn_slot) * next);
- number_insn_slots = next;
- next = 0;
- }
-
- unsigned char *pc = codestart;
- while (pc < end)
- {
- int base_pc_val = pc - codestart;
- if (first_pass)
- pc_mapping[base_pc_val] = next;
-
- java_opcode opcode = (java_opcode) *pc++;
- // Just elide NOPs.
- if (opcode == op_nop)
- continue;
- SET_INSN (insn_targets[opcode]);
-
- switch (opcode)
- {
- case op_nop:
- case op_aconst_null:
- case op_iconst_m1:
- case op_iconst_0:
- case op_iconst_1:
- case op_iconst_2:
- case op_iconst_3:
- case op_iconst_4:
- case op_iconst_5:
- case op_lconst_0:
- case op_lconst_1:
- case op_fconst_0:
- case op_fconst_1:
- case op_fconst_2:
- case op_dconst_0:
- case op_dconst_1:
- case op_iload_0:
- case op_iload_1:
- case op_iload_2:
- case op_iload_3:
- case op_lload_0:
- case op_lload_1:
- case op_lload_2:
- case op_lload_3:
- case op_fload_0:
- case op_fload_1:
- case op_fload_2:
- case op_fload_3:
- case op_dload_0:
- case op_dload_1:
- case op_dload_2:
- case op_dload_3:
- case op_aload_0:
- case op_aload_1:
- case op_aload_2:
- case op_aload_3:
- case op_iaload:
- case op_laload:
- case op_faload:
- case op_daload:
- case op_aaload:
- case op_baload:
- case op_caload:
- case op_saload:
- case op_istore_0:
- case op_istore_1:
- case op_istore_2:
- case op_istore_3:
- case op_lstore_0:
- case op_lstore_1:
- case op_lstore_2:
- case op_lstore_3:
- case op_fstore_0:
- case op_fstore_1:
- case op_fstore_2:
- case op_fstore_3:
- case op_dstore_0:
- case op_dstore_1:
- case op_dstore_2:
- case op_dstore_3:
- case op_astore_0:
- case op_astore_1:
- case op_astore_2:
- case op_astore_3:
- case op_iastore:
- case op_lastore:
- case op_fastore:
- case op_dastore:
- case op_aastore:
- case op_bastore:
- case op_castore:
- case op_sastore:
- case op_pop:
- case op_pop2:
- case op_dup:
- case op_dup_x1:
- case op_dup_x2:
- case op_dup2:
- case op_dup2_x1:
- case op_dup2_x2:
- case op_swap:
- case op_iadd:
- case op_isub:
- case op_imul:
- case op_idiv:
- case op_irem:
- case op_ishl:
- case op_ishr:
- case op_iushr:
- case op_iand:
- case op_ior:
- case op_ixor:
- case op_ladd:
- case op_lsub:
- case op_lmul:
- case op_ldiv:
- case op_lrem:
- case op_lshl:
- case op_lshr:
- case op_lushr:
- case op_land:
- case op_lor:
- case op_lxor:
- case op_fadd:
- case op_fsub:
- case op_fmul:
- case op_fdiv:
- case op_frem:
- case op_dadd:
- case op_dsub:
- case op_dmul:
- case op_ddiv:
- case op_drem:
- case op_ineg:
- case op_i2b:
- case op_i2c:
- case op_i2s:
- case op_lneg:
- case op_fneg:
- case op_dneg:
- case op_i2l:
- case op_i2f:
- case op_i2d:
- case op_l2i:
- case op_l2f:
- case op_l2d:
- case op_f2i:
- case op_f2l:
- case op_f2d:
- case op_d2i:
- case op_d2l:
- case op_d2f:
- case op_lcmp:
- case op_fcmpl:
- case op_fcmpg:
- case op_dcmpl:
- case op_dcmpg:
- case op_monitorenter:
- case op_monitorexit:
- case op_ireturn:
- case op_lreturn:
- case op_freturn:
- case op_dreturn:
- case op_areturn:
- case op_return:
- case op_athrow:
- case op_arraylength:
- // No argument, nothing else to do.
- break;
-
- case op_bipush:
- SET_INT (get1s (pc));
- ++pc;
- break;
-
- case op_ldc:
- {
- int index = get1u (pc);
- ++pc;
- // For an unresolved class we want to delay resolution
- // until execution.
- if (defining_class->constants.tags[index] == JV_CONSTANT_Class)
- {
- --next;
- SET_INSN (insn_targets[int (op_jsr_w) + 1]);
- SET_INT (index);
- }
- else
- SET_DATUM (pool_data[index].o);
- }
- break;
-
- case op_ret:
- case op_iload:
- case op_lload:
- case op_fload:
- case op_dload:
- case op_aload:
- case op_istore:
- case op_lstore:
- case op_fstore:
- case op_dstore:
- case op_astore:
- case op_newarray:
- SET_INT (get1u (pc));
- ++pc;
- break;
-
- case op_iinc:
- SET_INT (get1u (pc));
- SET_INT (get1s (pc + 1));
- pc += 2;
- break;
-
- case op_ldc_w:
- {
- int index = get2u (pc);
- pc += 2;
- // For an unresolved class we want to delay resolution
- // until execution.
- if (defining_class->constants.tags[index] == JV_CONSTANT_Class)
- {
- --next;
- SET_INSN (insn_targets[int (op_jsr_w) + 1]);
- SET_INT (index);
- }
- else
- SET_DATUM (pool_data[index].o);
- }
- break;
-
- case op_ldc2_w:
- {
- int index = get2u (pc);
- pc += 2;
- SET_DATUM (&pool_data[index]);
- }
- break;
-
- case op_sipush:
- SET_INT (get2s (pc));
- pc += 2;
- break;
-
- case op_new:
- case op_getstatic:
- case op_getfield:
- case op_putfield:
- case op_putstatic:
- case op_anewarray:
- case op_instanceof:
- case op_checkcast:
- case op_invokespecial:
- case op_invokestatic:
- case op_invokevirtual:
- SET_INT (get2u (pc));
- pc += 2;
- break;
-
- case op_multianewarray:
- SET_INT (get2u (pc));
- SET_INT (get1u (pc + 2));
- pc += 3;
- break;
-
- case op_jsr:
- case op_ifeq:
- case op_ifne:
- case op_iflt:
- case op_ifge:
- case op_ifgt:
- case op_ifle:
- case op_if_icmpeq:
- case op_if_icmpne:
- case op_if_icmplt:
- case op_if_icmpge:
- case op_if_icmpgt:
- case op_if_icmple:
- case op_if_acmpeq:
- case op_if_acmpne:
- case op_ifnull:
- case op_ifnonnull:
- case op_goto:
- {
- int offset = get2s (pc);
- pc += 2;
-
- int new_pc = base_pc_val + offset;
-
- bool orig_was_goto = opcode == op_goto;
-
- // Thread jumps. We limit the loop count; this lets
- // us avoid infinite loops if the bytecode contains
- // such. `10' is arbitrary.
- int count = 10;
- while (codestart[new_pc] == op_goto && count-- > 0)
- new_pc += get2s (&codestart[new_pc + 1]);
-
- // If the jump takes us to a `return' instruction and
- // the original branch was an unconditional goto, then
- // we hoist the return.
- opcode = (java_opcode) codestart[new_pc];
- if (orig_was_goto
- && (opcode == op_ireturn || opcode == op_lreturn
- || opcode == op_freturn || opcode == op_dreturn
- || opcode == op_areturn || opcode == op_return))
- {
- --next;
- SET_INSN (insn_targets[opcode]);
- }
- else
- SET_DATUM (&insns[pc_mapping[new_pc]]);
- }
- break;
-
- case op_tableswitch:
- {
- while ((pc - codestart) % 4 != 0)
- ++pc;
-
- jint def = get4 (pc);
- SET_DATUM (&insns[pc_mapping[base_pc_val + def]]);
- pc += 4;
-
- int low = get4 (pc);
- SET_INT (low);
- pc += 4;
- int high = get4 (pc);
- SET_INT (high);
- pc += 4;
-
- for (int i = low; i <= high; ++i)
- {
- SET_DATUM (&insns[pc_mapping[base_pc_val + get4 (pc)]]);
- pc += 4;
- }
- }
- break;
-
- case op_lookupswitch:
- {
- while ((pc - codestart) % 4 != 0)
- ++pc;
-
- jint def = get4 (pc);
- SET_DATUM (&insns[pc_mapping[base_pc_val + def]]);
- pc += 4;
-
- jint npairs = get4 (pc);
- pc += 4;
- SET_INT (npairs);
-
- while (npairs-- > 0)
- {
- jint match = get4 (pc);
- jint offset = get4 (pc + 4);
- SET_INT (match);
- SET_DATUM (&insns[pc_mapping[base_pc_val + offset]]);
- pc += 8;
- }
- }
- break;
-
- case op_invokeinterface:
- {
- jint index = get2u (pc);
- pc += 2;
- // We ignore the next two bytes.
- pc += 2;
- SET_INT (index);
- }
- break;
-
- case op_wide:
- {
- opcode = (java_opcode) get1u (pc);
- pc += 1;
- jint val = get2u (pc);
- pc += 2;
-
- // We implement narrow and wide instructions using the
- // same code in the interpreter. So we rewrite the
- // instruction slot here.
- if (! first_pass)
- insns[next - 1].insn = (void *) insn_targets[opcode];
- SET_INT (val);
-
- if (opcode == op_iinc)
- {
- SET_INT (get2s (pc));
- pc += 2;
- }
- }
- break;
-
- case op_jsr_w:
- case op_goto_w:
- {
- jint offset = get4 (pc);
- pc += 4;
- SET_DATUM (&insns[pc_mapping[base_pc_val + offset]]);
- }
- break;
-
- // Some "can't happen" cases that we include for
- // error-checking purposes.
- case op_putfield_1:
- case op_putfield_2:
- case op_putfield_4:
- case op_putfield_8:
- case op_putfield_a:
- case op_putstatic_1:
- case op_putstatic_2:
- case op_putstatic_4:
- case op_putstatic_8:
- case op_putstatic_a:
- case op_getfield_1:
- case op_getfield_2s:
- case op_getfield_2u:
- case op_getfield_4:
- case op_getfield_8:
- case op_getfield_a:
- case op_getstatic_1:
- case op_getstatic_2s:
- case op_getstatic_2u:
- case op_getstatic_4:
- case op_getstatic_8:
- case op_getstatic_a:
- case op_breakpoint:
- default:
- // Fail somehow.
- break;
- }
- }
- }
-
- // Now update exceptions.
- _Jv_InterpException *exc = exceptions ();
- for (int i = 0; i < exc_count; ++i)
- {
- exc[i].start_pc.p = &insns[pc_mapping[exc[i].start_pc.i]];
- exc[i].end_pc.p = &insns[pc_mapping[exc[i].end_pc.i]];
- exc[i].handler_pc.p = &insns[pc_mapping[exc[i].handler_pc.i]];
- // FIXME: resolve_pool_entry can throw - we shouldn't be doing this
- // during compilation.
- jclass handler
- = (_Jv_Linker::resolve_pool_entry (defining_class,
- exc[i].handler_type.i)).clazz;
- exc[i].handler_type.p = handler;
- }
-
- // Translate entries in the LineNumberTable from bytecode PC's to direct
- // threaded interpreter instruction values.
- for (int i = 0; i < line_table_len; i++)
- {
- int byte_pc = line_table[i].bytecode_pc;
- // It isn't worth throwing an exception if this table is
- // corrupted, but at the same time we don't want a crash.
- if (byte_pc < 0 || byte_pc >= code_length)
- byte_pc = 0;
- line_table[i].pc = &insns[pc_mapping[byte_pc]];
- }
-
- prepared = insns;
-
- if (breakpoint_insn == NULL)
- {
- bp_insn_slot.insn = const_cast<void *> (insn_targets[op_breakpoint]);
- breakpoint_insn = &bp_insn_slot;
- }
-}
-#endif /* DIRECT_THREADED */
-
-/* Run the given method.
- When args is NULL, don't run anything -- just compile it. */
-void
-_Jv_InterpMethod::run (void *retp, ffi_raw *args, _Jv_InterpMethod *meth)
-{
-#undef DEBUG
-#undef DEBUG_LOCALS_INSN
-#define DEBUG_LOCALS_INSN(s, t) do {} while(0)
-
-#include "interpret-run.cc"
-}
-
-void
-_Jv_InterpMethod::run_debug (void *retp, ffi_raw *args, _Jv_InterpMethod *meth)
-{
-/* Used to keep track of local variable type
- *
- * Possible Types:
- * o object
- * i integer
- * f float
- * l long
- * d double
- */
-#define DEBUG
-#undef DEBUG_LOCALS_INSN
-#define DEBUG_LOCALS_INSN(s, t) do {} while(0)
-
-#include "interpret-run.cc"
-}
-
-static void
-throw_internal_error (const char *msg)
-{
- throw new java::lang::InternalError (JvNewStringLatin1 (msg));
-}
-
-static void
-throw_incompatible_class_change_error (jstring msg)
-{
- throw new java::lang::IncompatibleClassChangeError (msg);
-}
-
-static void
-throw_null_pointer_exception ()
-{
- throw new java::lang::NullPointerException;
-}
-
-/* Look up source code line number for given bytecode (or direct threaded
- interpreter) PC. */
-int
-_Jv_InterpMethod::get_source_line(pc_t mpc)
-{
- int line = line_table_len > 0 ? line_table[0].line : -1;
- for (int i = 1; i < line_table_len; i++)
- if (line_table[i].pc > mpc)
- break;
- else
- line = line_table[i].line;
-
- return line;
-}
-
-/** Do static initialization for fields with a constant initializer */
-void
-_Jv_InitField (jobject obj, jclass klass, int index)
-{
- using namespace java::lang::reflect;
-
- if (obj != 0 && klass == 0)
- klass = obj->getClass ();
-
- if (!_Jv_IsInterpretedClass (klass))
- return;
-
- _Jv_InterpClass *iclass = (_Jv_InterpClass*)klass->aux_info;
-
- _Jv_Field * field = (&klass->fields[0]) + index;
-
- if (index > klass->field_count)
- throw_internal_error ("field out of range");
-
- int init = iclass->field_initializers[index];
- if (init == 0)
- return;
-
- _Jv_Constants *pool = &klass->constants;
- int tag = pool->tags[init];
-
- if (! field->isResolved ())
- throw_internal_error ("initializing unresolved field");
-
- if (obj==0 && ((field->flags & Modifier::STATIC) == 0))
- throw_internal_error ("initializing non-static field with no object");
-
- void *addr = 0;
-
- if ((field->flags & Modifier::STATIC) != 0)
- addr = (void*) field->u.addr;
- else
- addr = (void*) (((char*)obj) + field->u.boffset);
-
- switch (tag)
- {
- case JV_CONSTANT_String:
- {
- jstring str;
- str = _Jv_NewStringUtf8Const (pool->data[init].utf8);
- pool->data[init].string = str;
- pool->tags[init] = JV_CONSTANT_ResolvedString;
- }
- /* fall through */
-
- case JV_CONSTANT_ResolvedString:
- if (! (field->type == &java::lang::String::class$
- || field->type == &java::lang::Class::class$))
- throw_class_format_error ("string initialiser to non-string field");
-
- *(jstring*)addr = pool->data[init].string;
- break;
-
- case JV_CONSTANT_Integer:
- {
- int value = pool->data[init].i;
-
- if (field->type == JvPrimClass (boolean))
- *(jboolean*)addr = (jboolean)value;
-
- else if (field->type == JvPrimClass (byte))
- *(jbyte*)addr = (jbyte)value;
-
- else if (field->type == JvPrimClass (char))
- *(jchar*)addr = (jchar)value;
-
- else if (field->type == JvPrimClass (short))
- *(jshort*)addr = (jshort)value;
-
- else if (field->type == JvPrimClass (int))
- *(jint*)addr = (jint)value;
-
- else
- throw_class_format_error ("erroneous field initializer");
- }
- break;
-
- case JV_CONSTANT_Long:
- if (field->type != JvPrimClass (long))
- throw_class_format_error ("erroneous field initializer");
-
- *(jlong*)addr = _Jv_loadLong (&pool->data[init]);
- break;
-
- case JV_CONSTANT_Float:
- if (field->type != JvPrimClass (float))
- throw_class_format_error ("erroneous field initializer");
-
- *(jfloat*)addr = pool->data[init].f;
- break;
-
- case JV_CONSTANT_Double:
- if (field->type != JvPrimClass (double))
- throw_class_format_error ("erroneous field initializer");
-
- *(jdouble*)addr = _Jv_loadDouble (&pool->data[init]);
- break;
-
- default:
- throw_class_format_error ("erroneous field initializer");
- }
-}
-
-inline static unsigned char*
-skip_one_type (unsigned char* ptr)
-{
- int ch = *ptr++;
-
- while (ch == '[')
- {
- ch = *ptr++;
- }
-
- if (ch == 'L')
- {
- do { ch = *ptr++; } while (ch != ';');
- }
-
- return ptr;
-}
-
-static ffi_type*
-get_ffi_type_from_signature (unsigned char* ptr)
-{
- switch (*ptr)
- {
- case 'L':
- case '[':
- return &ffi_type_pointer;
- break;
-
- case 'Z':
- // On some platforms a bool is a byte, on others an int.
- if (sizeof (jboolean) == sizeof (jbyte))
- return &ffi_type_sint8;
- else
- {
- JvAssert (sizeof (jbyte) == sizeof (jint));
- return &ffi_type_sint32;
- }
- break;
-
- case 'B':
- return &ffi_type_sint8;
- break;
-
- case 'C':
- return &ffi_type_uint16;
- break;
-
- case 'S':
- return &ffi_type_sint16;
- break;
-
- case 'I':
- return &ffi_type_sint32;
- break;
-
- case 'J':
- return &ffi_type_sint64;
- break;
-
- case 'F':
- return &ffi_type_float;
- break;
-
- case 'D':
- return &ffi_type_double;
- break;
-
- case 'V':
- return &ffi_type_void;
- break;
- }
-
- throw_internal_error ("unknown type in signature");
-}
-
-/* this function yields the number of actual arguments, that is, if the
- * function is non-static, then one is added to the number of elements
- * found in the signature */
-
-int
-_Jv_count_arguments (_Jv_Utf8Const *signature,
- jboolean staticp)
-{
- unsigned char *ptr = (unsigned char*) signature->chars();
- int arg_count = staticp ? 0 : 1;
-
- /* first, count number of arguments */
-
- // skip '('
- ptr++;
-
- // count args
- while (*ptr != ')')
- {
- ptr = skip_one_type (ptr);
- arg_count += 1;
- }
-
- return arg_count;
-}
-
-/* This beast will build a cif, given the signature. Memory for
- * the cif itself and for the argument types must be allocated by the
- * caller.
- */
-
-static int
-init_cif (_Jv_Utf8Const* signature,
- int arg_count,
- jboolean staticp,
- ffi_cif *cif,
- ffi_type **arg_types,
- ffi_type **rtype_p)
-{
- unsigned char *ptr = (unsigned char*) signature->chars();
-
- int arg_index = 0; // arg number
- int item_count = 0; // stack-item count
-
- // setup receiver
- if (!staticp)
- {
- arg_types[arg_index++] = &ffi_type_pointer;
- item_count += 1;
- }
-
- // skip '('
- ptr++;
-
- // assign arg types
- while (*ptr != ')')
- {
- arg_types[arg_index++] = get_ffi_type_from_signature (ptr);
-
- if (*ptr == 'J' || *ptr == 'D')
- item_count += 2;
- else
- item_count += 1;
-
- ptr = skip_one_type (ptr);
- }
-
- // skip ')'
- ptr++;
- ffi_type *rtype = get_ffi_type_from_signature (ptr);
-
- ptr = skip_one_type (ptr);
- if (ptr != (unsigned char*)signature->chars() + signature->len())
- throw_internal_error ("did not find end of signature");
-
- if (ffi_prep_cif (cif, FFI_DEFAULT_ABI,
- arg_count, rtype, arg_types) != FFI_OK)
- throw_internal_error ("ffi_prep_cif failed");
-
- if (rtype_p != NULL)
- *rtype_p = rtype;
-
- return item_count;
-}
-
-#if FFI_NATIVE_RAW_API
-# define FFI_PREP_RAW_CLOSURE ffi_prep_raw_closure
-# define FFI_RAW_SIZE ffi_raw_size
-#else
-# define FFI_PREP_RAW_CLOSURE ffi_prep_java_raw_closure
-# define FFI_RAW_SIZE ffi_java_raw_size
-#endif
-
-/* we put this one here, and not in interpret.cc because it
- * calls the utility routines _Jv_count_arguments
- * which are static to this module. The following struct defines the
- * layout we use for the stubs, it's only used in the ncode method. */
-
-typedef struct {
- ffi_raw_closure closure;
- ffi_cif cif;
- ffi_type *arg_types[0];
-} ncode_closure;
-
-typedef void (*ffi_closure_fun) (ffi_cif*,void*,ffi_raw*,void*);
-
-void *
-_Jv_InterpMethod::ncode ()
-{
- using namespace java::lang::reflect;
-
- if (self->ncode != 0)
- return self->ncode;
-
- jboolean staticp = (self->accflags & Modifier::STATIC) != 0;
- int arg_count = _Jv_count_arguments (self->signature, staticp);
-
- ncode_closure *closure =
- (ncode_closure*)_Jv_AllocBytes (sizeof (ncode_closure)
- + arg_count * sizeof (ffi_type*));
-
- init_cif (self->signature,
- arg_count,
- staticp,
- &closure->cif,
- &closure->arg_types[0],
- NULL);
-
- ffi_closure_fun fun;
-
- args_raw_size = FFI_RAW_SIZE (&closure->cif);
-
- JvAssert ((self->accflags & Modifier::NATIVE) == 0);
-
- if ((self->accflags & Modifier::SYNCHRONIZED) != 0)
- {
- if (staticp)
- {
- if (::gnu::classpath::jdwp::Jdwp::isDebugging)
- fun = (ffi_closure_fun)&_Jv_InterpMethod::run_synch_class_debug;
- else
- fun = (ffi_closure_fun)&_Jv_InterpMethod::run_synch_class;
- }
- else
- {
- if (::gnu::classpath::jdwp::Jdwp::isDebugging)
- fun = (ffi_closure_fun)&_Jv_InterpMethod::run_synch_object_debug;
- else
- fun = (ffi_closure_fun)&_Jv_InterpMethod::run_synch_object;
- }
- }
- else
- {
- if (staticp)
- {
- if (::gnu::classpath::jdwp::Jdwp::isDebugging)
- fun = (ffi_closure_fun)&_Jv_InterpMethod::run_class_debug;
- else
- fun = (ffi_closure_fun)&_Jv_InterpMethod::run_class;
- }
- else
- {
- if (::gnu::classpath::jdwp::Jdwp::isDebugging)
- fun = (ffi_closure_fun)&_Jv_InterpMethod::run_normal_debug;
- else
- fun = (ffi_closure_fun)&_Jv_InterpMethod::run_normal;
- }
- }
-
- FFI_PREP_RAW_CLOSURE (&closure->closure,
- &closure->cif,
- fun,
- (void*)this);
-
- self->ncode = (void*)closure;
- return self->ncode;
-}
-
-/* Find the index of the given insn in the array of insn slots
- for this method. Returns -1 if not found. */
-jlong
-_Jv_InterpMethod::insn_index (pc_t pc)
-{
- jlong left = 0;
-#ifdef DIRECT_THREADED
- jlong right = number_insn_slots;
- pc_t insns = prepared;
-#else
- jlong right = code_length;
- pc_t insns = bytecode ();
-#endif
-
- while (right >= 0)
- {
- jlong mid = (left + right) / 2;
- if (&insns[mid] == pc)
- return mid;
-
- if (pc < &insns[mid])
- right = mid - 1;
- else
- left = mid + 1;
- }
-
- return -1;
-}
-
-void
-_Jv_InterpMethod::get_line_table (jlong& start, jlong& end,
- jintArray& line_numbers,
- jlongArray& code_indices)
-{
-#ifdef DIRECT_THREADED
- /* For the DIRECT_THREADED case, if the method has not yet been
- * compiled, the linetable will change to insn slots instead of
- * bytecode PCs. It is probably easiest, in this case, to simply
- * compile the method and guarantee that we are using insn
- * slots.
- */
- _Jv_CompileMethod (this);
-
- if (line_table_len > 0)
- {
- start = 0;
- end = number_insn_slots;
- line_numbers = JvNewIntArray (line_table_len);
- code_indices = JvNewLongArray (line_table_len);
-
- jint* lines = elements (line_numbers);
- jlong* indices = elements (code_indices);
- for (int i = 0; i < line_table_len; ++i)
- {
- lines[i] = line_table[i].line;
- indices[i] = insn_index (line_table[i].pc);
- }
- }
-#else // !DIRECT_THREADED
- if (line_table_len > 0)
- {
- start = 0;
- end = code_length;
- line_numbers = JvNewIntArray (line_table_len);
- code_indices = JvNewLongArray (line_table_len);
-
- jint* lines = elements (line_numbers);
- jlong* indices = elements (code_indices);
- for (int i = 0; i < line_table_len; ++i)
- {
- lines[i] = line_table[i].line;
- indices[i] = (jlong) line_table[i].bytecode_pc;
- }
- }
-#endif // !DIRECT_THREADED
-}
-
-pc_t
-_Jv_InterpMethod::install_break (jlong index)
-{
- return set_insn (index, breakpoint_insn);
-}
-
-pc_t
-_Jv_InterpMethod::get_insn (jlong index)
-{
- pc_t code;
-
-#ifdef DIRECT_THREADED
- if (index >= number_insn_slots || index < 0)
- return NULL;
-
- code = prepared;
-#else // !DIRECT_THREADED
- if (index >= code_length || index < 0)
- return NULL;
-
- code = reinterpret_cast<pc_t> (bytecode ());
-#endif // !DIRECT_THREADED
-
- return &code[index];
-}
-
-pc_t
-_Jv_InterpMethod::set_insn (jlong index, pc_t insn)
-{
-#ifdef DIRECT_THREADED
- if (index >= number_insn_slots || index < 0)
- return NULL;
-
- pc_t code = prepared;
- code[index].insn = insn->insn;
-#else // !DIRECT_THREADED
- if (index >= code_length || index < 0)
- return NULL;
-
- pc_t code = reinterpret_cast<pc_t> (bytecode ());
- code[index] = *insn;
-#endif // !DIRECT_THREADED
-
- return &code[index];
-}
-
-void *
-_Jv_JNIMethod::ncode ()
-{
- using namespace java::lang::reflect;
-
- if (self->ncode != 0)
- return self->ncode;
-
- jboolean staticp = (self->accflags & Modifier::STATIC) != 0;
- int arg_count = _Jv_count_arguments (self->signature, staticp);
-
- ncode_closure *closure =
- (ncode_closure*)_Jv_AllocBytes (sizeof (ncode_closure)
- + arg_count * sizeof (ffi_type*));
-
- ffi_type *rtype;
- init_cif (self->signature,
- arg_count,
- staticp,
- &closure->cif,
- &closure->arg_types[0],
- &rtype);
-
- ffi_closure_fun fun;
-
- args_raw_size = FFI_RAW_SIZE (&closure->cif);
-
- // Initialize the argument types and CIF that represent the actual
- // underlying JNI function.
- int extra_args = 1;
- if ((self->accflags & Modifier::STATIC))
- ++extra_args;
- jni_arg_types = (ffi_type **) _Jv_AllocBytes ((extra_args + arg_count)
- * sizeof (ffi_type *));
- int offset = 0;
- jni_arg_types[offset++] = &ffi_type_pointer;
- if ((self->accflags & Modifier::STATIC))
- jni_arg_types[offset++] = &ffi_type_pointer;
- memcpy (&jni_arg_types[offset], &closure->arg_types[0],
- arg_count * sizeof (ffi_type *));
-
- if (ffi_prep_cif (&jni_cif, _Jv_platform_ffi_abi,
- extra_args + arg_count, rtype,
- jni_arg_types) != FFI_OK)
- throw_internal_error ("ffi_prep_cif failed for JNI function");
-
- JvAssert ((self->accflags & Modifier::NATIVE) != 0);
-
- // FIXME: for now we assume that all native methods for
- // interpreted code use JNI.
- fun = (ffi_closure_fun) &_Jv_JNIMethod::call;
-
- FFI_PREP_RAW_CLOSURE (&closure->closure,
- &closure->cif,
- fun,
- (void*) this);
-
- self->ncode = (void *) closure;
- return self->ncode;
-}
-
-static void
-throw_class_format_error (jstring msg)
-{
- throw (msg
- ? new java::lang::ClassFormatError (msg)
- : new java::lang::ClassFormatError);
-}
-
-static void
-throw_class_format_error (const char *msg)
-{
- throw_class_format_error (JvNewStringLatin1 (msg));
-}
-
-
-
-void
-_Jv_InterpreterEngine::do_verify (jclass klass)
-{
- _Jv_InterpClass *iclass = (_Jv_InterpClass *) klass->aux_info;
- for (int i = 0; i < klass->method_count; i++)
- {
- using namespace java::lang::reflect;
- _Jv_MethodBase *imeth = iclass->interpreted_methods[i];
- _Jv_ushort accflags = klass->methods[i].accflags;
- if ((accflags & (Modifier::NATIVE | Modifier::ABSTRACT)) == 0)
- {
- _Jv_InterpMethod *im = reinterpret_cast<_Jv_InterpMethod *> (imeth);
- _Jv_VerifyMethod (im);
- }
- }
-}
-
-void
-_Jv_InterpreterEngine::do_create_ncode (jclass klass)
-{
- _Jv_InterpClass *iclass = (_Jv_InterpClass *) klass->aux_info;
- for (int i = 0; i < klass->method_count; i++)
- {
- // Just skip abstract methods. This is particularly important
- // because we don't resize the interpreted_methods array when
- // miranda methods are added to it.
- if ((klass->methods[i].accflags
- & java::lang::reflect::Modifier::ABSTRACT)
- != 0)
- continue;
-
- _Jv_MethodBase *imeth = iclass->interpreted_methods[i];
-
- if ((klass->methods[i].accflags & java::lang::reflect::Modifier::NATIVE)
- != 0)
- {
- // You might think we could use a virtual `ncode' method in
- // the _Jv_MethodBase and unify the native and non-native
- // cases. Well, we can't, because we don't allocate these
- // objects using `new', and thus they don't get a vtable.
- _Jv_JNIMethod *jnim = reinterpret_cast<_Jv_JNIMethod *> (imeth);
- klass->methods[i].ncode = jnim->ncode ();
- }
- else if (imeth != 0) // it could be abstract
- {
- _Jv_InterpMethod *im = reinterpret_cast<_Jv_InterpMethod *> (imeth);
- klass->methods[i].ncode = im->ncode ();
- }
- }
-}
-
-void
-_Jv_InterpreterEngine::do_allocate_static_fields (jclass klass,
- int pointer_size,
- int other_size)
-{
- _Jv_InterpClass *iclass = (_Jv_InterpClass *) klass->aux_info;
-
- // Splitting the allocations here lets us scan reference fields and
- // avoid scanning non-reference fields. How reference fields are
- // scanned is a bit tricky: we allocate using _Jv_AllocRawObj, which
- // means that this memory will be scanned conservatively (same
- // difference, since we know all the contents here are pointers).
- // Then we put pointers into this memory into the 'fields'
- // structure. Most of these are interior pointers, which is ok (but
- // even so the pointer to the first reference field will be used and
- // that is not an interior pointer). The 'fields' array is also
- // allocated with _Jv_AllocRawObj (see defineclass.cc), so it will
- // be scanned. A pointer to this array is held by Class and thus
- // seen by the collector.
- char *reference_fields = (char *) _Jv_AllocRawObj (pointer_size);
- char *non_reference_fields = (char *) _Jv_AllocBytes (other_size);
-
- for (int i = 0; i < klass->field_count; i++)
- {
- _Jv_Field *field = &klass->fields[i];
-
- if ((field->flags & java::lang::reflect::Modifier::STATIC) == 0)
- continue;
-
- char *base = field->isRef() ? reference_fields : non_reference_fields;
- field->u.addr = base + field->u.boffset;
-
- if (iclass->field_initializers[i] != 0)
- {
- _Jv_Linker::resolve_field (field, klass->loader);
- _Jv_InitField (0, klass, i);
- }
- }
-
- // Now we don't need the field_initializers anymore, so let the
- // collector get rid of it.
- iclass->field_initializers = 0;
-}
-
-_Jv_ResolvedMethod *
-_Jv_InterpreterEngine::do_resolve_method (_Jv_Method *method, jclass klass,
- jboolean staticp)
-{
- int arg_count = _Jv_count_arguments (method->signature, staticp);
-
- _Jv_ResolvedMethod* result = (_Jv_ResolvedMethod*)
- _Jv_AllocBytes (sizeof (_Jv_ResolvedMethod)
- + arg_count*sizeof (ffi_type*));
-
- result->stack_item_count
- = init_cif (method->signature,
- arg_count,
- staticp,
- &result->cif,
- &result->arg_types[0],
- NULL);
-
- result->method = method;
- result->klass = klass;
-
- return result;
-}
-
-void
-_Jv_InterpreterEngine::do_post_miranda_hook (jclass klass)
-{
- _Jv_InterpClass *iclass = (_Jv_InterpClass *) klass->aux_info;
- for (int i = 0; i < klass->method_count; i++)
- {
- // Just skip abstract methods. This is particularly important
- // because we don't resize the interpreted_methods array when
- // miranda methods are added to it.
- if ((klass->methods[i].accflags
- & java::lang::reflect::Modifier::ABSTRACT)
- != 0)
- continue;
- // Miranda method additions mean that the `methods' array moves.
- // We cache a pointer into this array, so we have to update.
- iclass->interpreted_methods[i]->self = &klass->methods[i];
- }
-}
-
-#ifdef DIRECT_THREADED
-void
-_Jv_CompileMethod (_Jv_InterpMethod* method)
-{
- if (method->prepared == NULL)
- _Jv_InterpMethod::run (NULL, NULL, method);
-}
-#endif // DIRECT_THREADED
-
-#endif // INTERPRETER