address AbstractInterpreterGenerator::generate_slow_signature_handler() {
address entry = __ pc();
Argument argv(0, true);
// We are in the jni transition frame. Save the last_java_frame corresponding to the
// outer interpreter frame
//
__ set_last_Java_frame(FP, noreg);
// make sure the interpreter frame we've pushed has a valid return pc
__ mov(O7, I7);
__ mov(Lmethod, G3_scratch);
__ mov(Llocals, G4_scratch);
__ save_frame(0);
__ mov(G2_thread, L7_thread_cache);
__ add(argv.address_in_frame(), O3);
__ mov(G2_thread, O0);
__ mov(G3_scratch, O1);
__ call(CAST_FROM_FN_PTR(address, InterpreterRuntime::slow_signature_handler), relocInfo::runtime_call_type);
__ delayed()->mov(G4_scratch, O2);
__ mov(L7_thread_cache, G2_thread);
__ reset_last_Java_frame();
// load the register arguments (the C code packed them as varargs)
for (Argument ldarg = argv.successor(); ldarg.is_register(); ldarg = ldarg.successor()) {
__ ld_ptr(ldarg.address_in_frame(), ldarg.as_register());
}
__ ret();
__ delayed()->
restore(O0, 0, Lscratch); // caller's Lscratch gets the result handler
return entry;
}
bool qav::qvideo::get_frame(std::vector<unsigned char>& out, int *_frnum, const bool skip) {
out.resize(avpicture_get_size(PIX_FMT_RGB24, out_width, out_height));
AVPacket packet;
bool is_read = false;
av_init_packet(&packet);
while (av_read_frame(pFormatCtx, &packet)>=0) {
if (packet.stream_index==videoStream) {
int frameFinished = 0;
// Decode video frame
if(0 > avcodec_decode_video2(pCodecCtx, pFrame, &frameFinished, &packet))
return false;
if(frameFinished) {
++frnum;
if (_frnum) *_frnum = frnum;
is_read=true;
if (!skip) {
AVPicture picRGB;
// Assign appropriate parts of buffer to image planes in pFrameRGB
avpicture_fill((AVPicture*)&picRGB, (unsigned char*)&out[0], PIX_FMT_RGB24, out_width, out_height);
// Convert the image from its native format to RGB
sws_scale(img_convert_ctx, pFrame->data, pFrame->linesize, 0, pCodecCtx->height, picRGB.data, picRGB.linesize);
if (settings::SAVE_IMAGES)
save_frame(&out[0]);
}
}
}
av_free_packet(&packet);
if (is_read) return true;
}
return false;
}
Errcode pic_save(Popot path, Popot screen)
/*****************************************************************************
* save a picture.
****************************************************************************/
{
Errcode err;
if (pdr == NULL) {
if (Success > (err = pdr_find_load(path)))
return err;
}
if (path.pt == NULL)
return builtin_err = Err_null_ref;
if (screen.pt == NULL)
screen.pt = GetPicScreen();
if (Success > (err = create_ifile(path.pt, screen.pt)))
return err;
err = save_frame(screen.pt);
close_ifile();
return err;
}
OopMapSet* Runtime1::generate_code_for(StubID id, StubAssembler* sasm) {
OopMapSet* oop_maps = NULL;
// for better readability
const bool must_gc_arguments = true;
const bool dont_gc_arguments = false;
// stub code & info for the different stubs
switch (id) {
case forward_exception_id:
{
oop_maps = generate_handle_exception(id, sasm);
}
break;
case new_instance_id:
case fast_new_instance_id:
case fast_new_instance_init_check_id:
{
Register G5_klass = G5; // Incoming
Register O0_obj = O0; // Outgoing
if (id == new_instance_id) {
__ set_info("new_instance", dont_gc_arguments);
} else if (id == fast_new_instance_id) {
__ set_info("fast new_instance", dont_gc_arguments);
} else {
assert(id == fast_new_instance_init_check_id, "bad StubID");
__ set_info("fast new_instance init check", dont_gc_arguments);
}
if ((id == fast_new_instance_id || id == fast_new_instance_init_check_id) &&
UseTLAB && FastTLABRefill) {
Label slow_path;
Register G1_obj_size = G1;
Register G3_t1 = G3;
Register G4_t2 = G4;
assert_different_registers(G5_klass, G1_obj_size, G3_t1, G4_t2);
// Push a frame since we may do dtrace notification for the
// allocation which requires calling out and we don't want
// to stomp the real return address.
__ save_frame(0);
if (id == fast_new_instance_init_check_id) {
// make sure the klass is initialized
__ ldub(G5_klass, in_bytes(InstanceKlass::init_state_offset()), G3_t1);
__ cmp_and_br_short(G3_t1, InstanceKlass::fully_initialized, Assembler::notEqual, Assembler::pn, slow_path);
}
#ifdef ASSERT
// assert object can be fast path allocated
{
Label ok, not_ok;
__ ld(G5_klass, in_bytes(Klass::layout_helper_offset()), G1_obj_size);
// make sure it's an instance (LH > 0)
__ cmp_and_br_short(G1_obj_size, 0, Assembler::lessEqual, Assembler::pn, not_ok);
__ btst(Klass::_lh_instance_slow_path_bit, G1_obj_size);
__ br(Assembler::zero, false, Assembler::pn, ok);
__ delayed()->nop();
__ bind(not_ok);
__ stop("assert(can be fast path allocated)");
__ should_not_reach_here();
__ bind(ok);
}
#endif // ASSERT
// if we got here then the TLAB allocation failed, so try
// refilling the TLAB or allocating directly from eden.
Label retry_tlab, try_eden;
__ tlab_refill(retry_tlab, try_eden, slow_path); // preserves G5_klass
__ bind(retry_tlab);
// get the instance size
__ ld(G5_klass, in_bytes(Klass::layout_helper_offset()), G1_obj_size);
__ tlab_allocate(O0_obj, G1_obj_size, 0, G3_t1, slow_path);
__ initialize_object(O0_obj, G5_klass, G1_obj_size, 0, G3_t1, G4_t2);
__ verify_oop(O0_obj);
__ mov(O0, I0);
__ ret();
__ delayed()->restore();
__ bind(try_eden);
// get the instance size
__ ld(G5_klass, in_bytes(Klass::layout_helper_offset()), G1_obj_size);
__ eden_allocate(O0_obj, G1_obj_size, 0, G3_t1, G4_t2, slow_path);
__ incr_allocated_bytes(G1_obj_size, G3_t1, G4_t2);
__ initialize_object(O0_obj, G5_klass, G1_obj_size, 0, G3_t1, G4_t2);
__ verify_oop(O0_obj);
__ mov(O0, I0);
__ ret();
__ delayed()->restore();
__ bind(slow_path);
// pop this frame so generate_stub_call can push it's own
__ restore();
}
oop_maps = generate_stub_call(sasm, I0, CAST_FROM_FN_PTR(address, new_instance), G5_klass);
// I0->O0: new instance
}
break;
case counter_overflow_id:
// G4 contains bci, G5 contains method
oop_maps = generate_stub_call(sasm, noreg, CAST_FROM_FN_PTR(address, counter_overflow), G4, G5);
break;
case new_type_array_id:
case new_object_array_id:
{
Register G5_klass = G5; // Incoming
Register G4_length = G4; // Incoming
Register O0_obj = O0; // Outgoing
Address klass_lh(G5_klass, Klass::layout_helper_offset());
assert(Klass::_lh_header_size_shift % BitsPerByte == 0, "bytewise");
assert(Klass::_lh_header_size_mask == 0xFF, "bytewise");
// Use this offset to pick out an individual byte of the layout_helper:
const int klass_lh_header_size_offset = ((BytesPerInt - 1) // 3 - 2 selects byte {0,1,0,0}
- Klass::_lh_header_size_shift / BitsPerByte);
if (id == new_type_array_id) {
__ set_info("new_type_array", dont_gc_arguments);
} else {
__ set_info("new_object_array", dont_gc_arguments);
}
#ifdef ASSERT
// assert object type is really an array of the proper kind
{
Label ok;
Register G3_t1 = G3;
__ ld(klass_lh, G3_t1);
__ sra(G3_t1, Klass::_lh_array_tag_shift, G3_t1);
int tag = ((id == new_type_array_id)
? Klass::_lh_array_tag_type_value
: Klass::_lh_array_tag_obj_value);
__ cmp_and_brx_short(G3_t1, tag, Assembler::equal, Assembler::pt, ok);
__ stop("assert(is an array klass)");
__ should_not_reach_here();
__ bind(ok);
}
#endif // ASSERT
if (UseTLAB && FastTLABRefill) {
Label slow_path;
Register G1_arr_size = G1;
Register G3_t1 = G3;
Register O1_t2 = O1;
assert_different_registers(G5_klass, G4_length, G1_arr_size, G3_t1, O1_t2);
// check that array length is small enough for fast path
__ set(C1_MacroAssembler::max_array_allocation_length, G3_t1);
__ cmp_and_br_short(G4_length, G3_t1, Assembler::greaterUnsigned, Assembler::pn, slow_path);
// if we got here then the TLAB allocation failed, so try
// refilling the TLAB or allocating directly from eden.
Label retry_tlab, try_eden;
__ tlab_refill(retry_tlab, try_eden, slow_path); // preserves G4_length and G5_klass
__ bind(retry_tlab);
// get the allocation size: (length << (layout_helper & 0x1F)) + header_size
__ ld(klass_lh, G3_t1);
__ sll(G4_length, G3_t1, G1_arr_size);
__ srl(G3_t1, Klass::_lh_header_size_shift, G3_t1);
__ and3(G3_t1, Klass::_lh_header_size_mask, G3_t1);
__ add(G1_arr_size, G3_t1, G1_arr_size);
__ add(G1_arr_size, MinObjAlignmentInBytesMask, G1_arr_size); // align up
__ and3(G1_arr_size, ~MinObjAlignmentInBytesMask, G1_arr_size);
__ tlab_allocate(O0_obj, G1_arr_size, 0, G3_t1, slow_path); // preserves G1_arr_size
__ initialize_header(O0_obj, G5_klass, G4_length, G3_t1, O1_t2);
__ ldub(klass_lh, G3_t1, klass_lh_header_size_offset);
__ sub(G1_arr_size, G3_t1, O1_t2); // body length
__ add(O0_obj, G3_t1, G3_t1); // body start
__ initialize_body(G3_t1, O1_t2);
__ verify_oop(O0_obj);
__ retl();
__ delayed()->nop();
__ bind(try_eden);
// get the allocation size: (length << (layout_helper & 0x1F)) + header_size
__ ld(klass_lh, G3_t1);
__ sll(G4_length, G3_t1, G1_arr_size);
__ srl(G3_t1, Klass::_lh_header_size_shift, G3_t1);
__ and3(G3_t1, Klass::_lh_header_size_mask, G3_t1);
__ add(G1_arr_size, G3_t1, G1_arr_size);
__ add(G1_arr_size, MinObjAlignmentInBytesMask, G1_arr_size);
__ and3(G1_arr_size, ~MinObjAlignmentInBytesMask, G1_arr_size);
__ eden_allocate(O0_obj, G1_arr_size, 0, G3_t1, O1_t2, slow_path); // preserves G1_arr_size
__ incr_allocated_bytes(G1_arr_size, G3_t1, O1_t2);
__ initialize_header(O0_obj, G5_klass, G4_length, G3_t1, O1_t2);
__ ldub(klass_lh, G3_t1, klass_lh_header_size_offset);
__ sub(G1_arr_size, G3_t1, O1_t2); // body length
__ add(O0_obj, G3_t1, G3_t1); // body start
__ initialize_body(G3_t1, O1_t2);
__ verify_oop(O0_obj);
__ retl();
__ delayed()->nop();
__ bind(slow_path);
}
if (id == new_type_array_id) {
oop_maps = generate_stub_call(sasm, I0, CAST_FROM_FN_PTR(address, new_type_array), G5_klass, G4_length);
} else {
oop_maps = generate_stub_call(sasm, I0, CAST_FROM_FN_PTR(address, new_object_array), G5_klass, G4_length);
}
// I0 -> O0: new array
}
break;
case new_multi_array_id:
{ // O0: klass
// O1: rank
// O2: address of 1st dimension
__ set_info("new_multi_array", dont_gc_arguments);
oop_maps = generate_stub_call(sasm, I0, CAST_FROM_FN_PTR(address, new_multi_array), I0, I1, I2);
// I0 -> O0: new multi array
}
break;
case register_finalizer_id:
{
__ set_info("register_finalizer", dont_gc_arguments);
// load the klass and check the has finalizer flag
Label register_finalizer;
Register t = O1;
__ load_klass(O0, t);
__ ld(t, in_bytes(Klass::access_flags_offset()), t);
__ set(JVM_ACC_HAS_FINALIZER, G3);
__ andcc(G3, t, G0);
__ br(Assembler::notZero, false, Assembler::pt, register_finalizer);
__ delayed()->nop();
// do a leaf return
__ retl();
__ delayed()->nop();
__ bind(register_finalizer);
OopMap* oop_map = save_live_registers(sasm);
int call_offset = __ call_RT(noreg, noreg,
CAST_FROM_FN_PTR(address, SharedRuntime::register_finalizer), I0);
oop_maps = new OopMapSet();
oop_maps->add_gc_map(call_offset, oop_map);
// Now restore all the live registers
restore_live_registers(sasm);
__ ret();
__ delayed()->restore();
}
break;
case throw_range_check_failed_id:
{ __ set_info("range_check_failed", dont_gc_arguments); // arguments will be discarded
// G4: index
oop_maps = generate_exception_throw(sasm, CAST_FROM_FN_PTR(address, throw_range_check_exception), true);
}
break;
case throw_index_exception_id:
{ __ set_info("index_range_check_failed", dont_gc_arguments); // arguments will be discarded
// G4: index
oop_maps = generate_exception_throw(sasm, CAST_FROM_FN_PTR(address, throw_index_exception), true);
}
break;
case throw_div0_exception_id:
{ __ set_info("throw_div0_exception", dont_gc_arguments);
oop_maps = generate_exception_throw(sasm, CAST_FROM_FN_PTR(address, throw_div0_exception), false);
}
break;
case throw_null_pointer_exception_id:
{ __ set_info("throw_null_pointer_exception", dont_gc_arguments);
oop_maps = generate_exception_throw(sasm, CAST_FROM_FN_PTR(address, throw_null_pointer_exception), false);
}
break;
case handle_exception_id:
{ __ set_info("handle_exception", dont_gc_arguments);
oop_maps = generate_handle_exception(id, sasm);
}
break;
case handle_exception_from_callee_id:
{ __ set_info("handle_exception_from_callee", dont_gc_arguments);
oop_maps = generate_handle_exception(id, sasm);
}
break;
case unwind_exception_id:
{
// O0: exception
// I7: address of call to this method
__ set_info("unwind_exception", dont_gc_arguments);
__ mov(Oexception, Oexception->after_save());
__ add(I7, frame::pc_return_offset, Oissuing_pc->after_save());
__ call_VM_leaf(L7_thread_cache, CAST_FROM_FN_PTR(address, SharedRuntime::exception_handler_for_return_address),
G2_thread, Oissuing_pc->after_save());
__ verify_not_null_oop(Oexception->after_save());
// Restore SP from L7 if the exception PC is a method handle call site.
__ mov(O0, G5); // Save the target address.
__ lduw(Address(G2_thread, JavaThread::is_method_handle_return_offset()), L0);
__ tst(L0); // Condition codes are preserved over the restore.
__ restore();
__ jmp(G5, 0);
__ delayed()->movcc(Assembler::notZero, false, Assembler::icc, L7_mh_SP_save, SP); // Restore SP if required.
}
break;
case throw_array_store_exception_id:
{
__ set_info("throw_array_store_exception", dont_gc_arguments);
oop_maps = generate_exception_throw(sasm, CAST_FROM_FN_PTR(address, throw_array_store_exception), true);
}
break;
case throw_class_cast_exception_id:
{
// G4: object
__ set_info("throw_class_cast_exception", dont_gc_arguments);
oop_maps = generate_exception_throw(sasm, CAST_FROM_FN_PTR(address, throw_class_cast_exception), true);
}
break;
case throw_incompatible_class_change_error_id:
{
__ set_info("throw_incompatible_class_cast_exception", dont_gc_arguments);
oop_maps = generate_exception_throw(sasm, CAST_FROM_FN_PTR(address, throw_incompatible_class_change_error), false);
}
break;
case slow_subtype_check_id:
{ // Support for uint StubRoutine::partial_subtype_check( Klass sub, Klass super );
// Arguments :
//
// ret : G3
// sub : G3, argument, destroyed
// super: G1, argument, not changed
// raddr: O7, blown by call
Label miss;
__ save_frame(0); // Blow no registers!
__ check_klass_subtype_slow_path(G3, G1, L0, L1, L2, L4, NULL, &miss);
__ mov(1, G3);
__ ret(); // Result in G5 is 'true'
__ delayed()->restore(); // free copy or add can go here
__ bind(miss);
__ mov(0, G3);
__ ret(); // Result in G5 is 'false'
__ delayed()->restore(); // free copy or add can go here
}
case monitorenter_nofpu_id:
case monitorenter_id:
{ // G4: object
// G5: lock address
__ set_info("monitorenter", dont_gc_arguments);
int save_fpu_registers = (id == monitorenter_id);
// make a frame and preserve the caller's caller-save registers
OopMap* oop_map = save_live_registers(sasm, save_fpu_registers);
int call_offset = __ call_RT(noreg, noreg, CAST_FROM_FN_PTR(address, monitorenter), G4, G5);
oop_maps = new OopMapSet();
oop_maps->add_gc_map(call_offset, oop_map);
restore_live_registers(sasm, save_fpu_registers);
__ ret();
__ delayed()->restore();
}
break;
case monitorexit_nofpu_id:
case monitorexit_id:
{ // G4: lock address
// note: really a leaf routine but must setup last java sp
// => use call_RT for now (speed can be improved by
// doing last java sp setup manually)
__ set_info("monitorexit", dont_gc_arguments);
int save_fpu_registers = (id == monitorexit_id);
// make a frame and preserve the caller's caller-save registers
OopMap* oop_map = save_live_registers(sasm, save_fpu_registers);
int call_offset = __ call_RT(noreg, noreg, CAST_FROM_FN_PTR(address, monitorexit), G4);
oop_maps = new OopMapSet();
oop_maps->add_gc_map(call_offset, oop_map);
restore_live_registers(sasm, save_fpu_registers);
__ ret();
__ delayed()->restore();
}
break;
case deoptimize_id:
{
__ set_info("deoptimize", dont_gc_arguments);
OopMap* oop_map = save_live_registers(sasm);
int call_offset = __ call_RT(noreg, noreg, CAST_FROM_FN_PTR(address, deoptimize));
oop_maps = new OopMapSet();
oop_maps->add_gc_map(call_offset, oop_map);
restore_live_registers(sasm);
DeoptimizationBlob* deopt_blob = SharedRuntime::deopt_blob();
assert(deopt_blob != NULL, "deoptimization blob must have been created");
AddressLiteral dest(deopt_blob->unpack_with_reexecution());
__ jump_to(dest, O0);
__ delayed()->restore();
}
break;
case access_field_patching_id:
{ __ set_info("access_field_patching", dont_gc_arguments);
oop_maps = generate_patching(sasm, CAST_FROM_FN_PTR(address, access_field_patching));
}
break;
case load_klass_patching_id:
{ __ set_info("load_klass_patching", dont_gc_arguments);
oop_maps = generate_patching(sasm, CAST_FROM_FN_PTR(address, move_klass_patching));
}
break;
case load_mirror_patching_id:
{ __ set_info("load_mirror_patching", dont_gc_arguments);
oop_maps = generate_patching(sasm, CAST_FROM_FN_PTR(address, move_mirror_patching));
}
break;
case dtrace_object_alloc_id:
{ // O0: object
__ set_info("dtrace_object_alloc", dont_gc_arguments);
// we can't gc here so skip the oopmap but make sure that all
// the live registers get saved.
save_live_registers(sasm);
__ save_thread(L7_thread_cache);
__ call(CAST_FROM_FN_PTR(address, SharedRuntime::dtrace_object_alloc),
relocInfo::runtime_call_type);
__ delayed()->mov(I0, O0);
__ restore_thread(L7_thread_cache);
restore_live_registers(sasm);
__ ret();
__ delayed()->restore();
}
break;
#if INCLUDE_ALL_GCS
case g1_pre_barrier_slow_id:
{ // G4: previous value of memory
BarrierSet* bs = Universe::heap()->barrier_set();
if (bs->kind() != BarrierSet::G1SATBCTLogging) {
__ save_frame(0);
__ set((int)id, O1);
__ call_RT(noreg, noreg, CAST_FROM_FN_PTR(address, unimplemented_entry), I0);
__ should_not_reach_here();
break;
}
__ set_info("g1_pre_barrier_slow_id", dont_gc_arguments);
Register pre_val = G4;
Register tmp = G1_scratch;
Register tmp2 = G3_scratch;
Label refill, restart;
bool with_frame = false; // I don't know if we can do with-frame.
int satb_q_index_byte_offset =
in_bytes(JavaThread::satb_mark_queue_offset() +
PtrQueue::byte_offset_of_index());
int satb_q_buf_byte_offset =
in_bytes(JavaThread::satb_mark_queue_offset() +
PtrQueue::byte_offset_of_buf());
__ bind(restart);
// Load the index into the SATB buffer. PtrQueue::_index is a
// size_t so ld_ptr is appropriate
__ ld_ptr(G2_thread, satb_q_index_byte_offset, tmp);
// index == 0?
__ cmp_and_brx_short(tmp, G0, Assembler::equal, Assembler::pn, refill);
__ ld_ptr(G2_thread, satb_q_buf_byte_offset, tmp2);
__ sub(tmp, oopSize, tmp);
__ st_ptr(pre_val, tmp2, tmp); // [_buf + index] := <address_of_card>
// Use return-from-leaf
__ retl();
__ delayed()->st_ptr(tmp, G2_thread, satb_q_index_byte_offset);
__ bind(refill);
__ save_frame(0);
__ mov(pre_val, L0);
__ mov(tmp, L1);
__ mov(tmp2, L2);
__ call_VM_leaf(L7_thread_cache,
CAST_FROM_FN_PTR(address,
SATBMarkQueueSet::handle_zero_index_for_thread),
G2_thread);
__ mov(L0, pre_val);
__ mov(L1, tmp);
__ mov(L2, tmp2);
__ br(Assembler::always, /*annul*/false, Assembler::pt, restart);
__ delayed()->restore();
}
break;
case g1_post_barrier_slow_id:
{
BarrierSet* bs = Universe::heap()->barrier_set();
if (bs->kind() != BarrierSet::G1SATBCTLogging) {
__ save_frame(0);
__ set((int)id, O1);
__ call_RT(noreg, noreg, CAST_FROM_FN_PTR(address, unimplemented_entry), I0);
__ should_not_reach_here();
break;
}
__ set_info("g1_post_barrier_slow_id", dont_gc_arguments);
Register addr = G4;
Register cardtable = G5;
Register tmp = G1_scratch;
Register tmp2 = G3_scratch;
jbyte* byte_map_base = ((CardTableModRefBS*)bs)->byte_map_base;
Label not_already_dirty, restart, refill;
#ifdef _LP64
__ srlx(addr, CardTableModRefBS::card_shift, addr);
#else
__ srl(addr, CardTableModRefBS::card_shift, addr);
#endif
AddressLiteral rs(byte_map_base);
__ set(rs, cardtable); // cardtable := <card table base>
__ ldub(addr, cardtable, tmp); // tmp := [addr + cardtable]
assert(CardTableModRefBS::dirty_card_val() == 0, "otherwise check this code");
__ cmp_and_br_short(tmp, G0, Assembler::notEqual, Assembler::pt, not_already_dirty);
// We didn't take the branch, so we're already dirty: return.
// Use return-from-leaf
__ retl();
__ delayed()->nop();
// Not dirty.
__ bind(not_already_dirty);
// Get cardtable + tmp into a reg by itself
__ add(addr, cardtable, tmp2);
// First, dirty it.
__ stb(G0, tmp2, 0); // [cardPtr] := 0 (i.e., dirty).
Register tmp3 = cardtable;
Register tmp4 = tmp;
// these registers are now dead
addr = cardtable = tmp = noreg;
int dirty_card_q_index_byte_offset =
in_bytes(JavaThread::dirty_card_queue_offset() +
PtrQueue::byte_offset_of_index());
int dirty_card_q_buf_byte_offset =
in_bytes(JavaThread::dirty_card_queue_offset() +
PtrQueue::byte_offset_of_buf());
__ bind(restart);
// Get the index into the update buffer. PtrQueue::_index is
// a size_t so ld_ptr is appropriate here.
__ ld_ptr(G2_thread, dirty_card_q_index_byte_offset, tmp3);
// index == 0?
__ cmp_and_brx_short(tmp3, G0, Assembler::equal, Assembler::pn, refill);
__ ld_ptr(G2_thread, dirty_card_q_buf_byte_offset, tmp4);
__ sub(tmp3, oopSize, tmp3);
__ st_ptr(tmp2, tmp4, tmp3); // [_buf + index] := <address_of_card>
// Use return-from-leaf
__ retl();
__ delayed()->st_ptr(tmp3, G2_thread, dirty_card_q_index_byte_offset);
__ bind(refill);
__ save_frame(0);
__ mov(tmp2, L0);
__ mov(tmp3, L1);
__ mov(tmp4, L2);
__ call_VM_leaf(L7_thread_cache,
CAST_FROM_FN_PTR(address,
DirtyCardQueueSet::handle_zero_index_for_thread),
G2_thread);
__ mov(L0, tmp2);
__ mov(L1, tmp3);
__ mov(L2, tmp4);
__ br(Assembler::always, /*annul*/false, Assembler::pt, restart);
__ delayed()->restore();
}
break;
#endif // INCLUDE_ALL_GCS
case predicate_failed_trap_id:
{
__ set_info("predicate_failed_trap", dont_gc_arguments);
OopMap* oop_map = save_live_registers(sasm);
int call_offset = __ call_RT(noreg, noreg, CAST_FROM_FN_PTR(address, predicate_failed_trap));
oop_maps = new OopMapSet();
oop_maps->add_gc_map(call_offset, oop_map);
DeoptimizationBlob* deopt_blob = SharedRuntime::deopt_blob();
assert(deopt_blob != NULL, "deoptimization blob must have been created");
restore_live_registers(sasm);
AddressLiteral dest(deopt_blob->unpack_with_reexecution());
__ jump_to(dest, O0);
__ delayed()->restore();
}
break;
default:
{ __ set_info("unimplemented entry", dont_gc_arguments);
__ save_frame(0);
__ set((int)id, O1);
__ call_RT(noreg, noreg, CAST_FROM_FN_PTR(address, unimplemented_entry), O1);
__ should_not_reach_here();
}
break;
}
return oop_maps;
}
static void
Display( void )
{
float ambient[] = {0.1, 0.1, 0.1, 1.0};
float diffuse[] = {1.0, 1.0, 1.0, 1.0};
float position[] = {0.0, 1.0, 0.0, 0.0};
float mat_shininess[] = {90.0};
float mat_specular[] = {0.8, 0.8, 0.8, 1.0};
float mat_diffuse[] = {0.46, 0.66, 0.795, 1.0};
float mat_ambient[] = {0.0, 0.1, 0.2, 1.0};
float lmodel_ambient[] = {0.4, 0.4, 0.4, 1.0};
float lmodel_localviewer[] = {0.0};
int i;
#if 0
/* stupid WireGL */
glViewport (0, 0, 450*3, 170*3);
#endif
glFrontFace(GL_CCW);
glDepthFunc(GL_LEQUAL);
glEnable(GL_DEPTH_TEST);
glLightfv(GL_LIGHT0, GL_AMBIENT, ambient);
glLightfv(GL_LIGHT0, GL_DIFFUSE, diffuse);
glLightfv(GL_LIGHT0, GL_POSITION, position);
glLightModelfv(GL_LIGHT_MODEL_AMBIENT, lmodel_ambient);
glLightModelfv(GL_LIGHT_MODEL_LOCAL_VIEWER, lmodel_localviewer);
glEnable(GL_LIGHTING);
glEnable(GL_LIGHT0);
glMaterialfv(GL_FRONT_AND_BACK, GL_SHININESS, mat_shininess);
glMaterialfv(GL_FRONT_AND_BACK, GL_SPECULAR, mat_specular);
glMaterialfv(GL_FRONT_AND_BACK, GL_DIFFUSE, mat_diffuse);
glMaterialfv(GL_FRONT_AND_BACK, GL_AMBIENT, mat_ambient);
glClearColor(0.0, 0.5, 0.9, 0.0);
glMatrixMode(GL_PROJECTION);
glLoadIdentity();
gluPerspective(40.0, 2.0, 10000.0, 400000.0);
glMatrixMode(GL_MODELVIEW);
glLoadIdentity();
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT);
for (i = 0; i < NumSharks; i++) {
glPushMatrix();
FishTransform(&sharks[i]);
DrawShark(&sharks[i]);
glPopMatrix();
}
glPushMatrix();
FishTransform(&dolph);
DrawDolphin(&dolph);
glPopMatrix();
glPushMatrix();
FishTransform(&momWhale);
DrawWhale(&momWhale);
glPopMatrix();
glPushMatrix();
FishTransform(&babyWhale);
glScalef(0.45, 0.45, 0.3);
DrawWhale(&babyWhale);
glPopMatrix();
if ( screenshot )
save_frame( );
screenshot = 0;
glutSwapBuffers( );
print_performance( );
}
//------------------------------ generate_exception_blob ---------------------------
// creates exception blob at the end
// Using exception blob, this code is jumped from a compiled method.
// (see emit_exception_handler in sparc.ad file)
//
// Given an exception pc at a call we call into the runtime for the
// handler in this method. This handler might merely restore state
// (i.e. callee save registers) unwind the frame and jump to the
// exception handler for the nmethod if there is no Java level handler
// for the nmethod.
//
// This code is entered with a jmp.
//
// Arguments:
// O0: exception oop
// O1: exception pc
//
// Results:
// O0: exception oop
// O1: exception pc in caller or ???
// destination: exception handler of caller
//
// Note: the exception pc MUST be at a call (precise debug information)
//
void OptoRuntime::generate_exception_blob() {
// allocate space for code
ResourceMark rm;
int pad = VerifyThread ? 256 : 0;// Extra slop space for more verify code
// setup code generation tools
// Measured 8/7/03 at 256 in 32bit debug build (no VerifyThread)
// Measured 8/7/03 at 528 in 32bit debug build (VerifyThread)
CodeBuffer buffer("exception_blob", 600+pad, 512);
MacroAssembler* masm = new MacroAssembler(&buffer);
int framesize_in_bytes = __ total_frame_size_in_bytes(0);
int framesize_in_words = framesize_in_bytes / wordSize;
int framesize_in_slots = framesize_in_bytes / sizeof(jint);
Label L;
int start = __ offset();
__ verify_thread();
__ st_ptr(Oexception, G2_thread, JavaThread::exception_oop_offset());
__ st_ptr(Oissuing_pc, G2_thread, JavaThread::exception_pc_offset());
// This call does all the hard work. It checks if an exception catch
// exists in the method.
// If so, it returns the handler address.
// If the nmethod has been deoptimized and it had a handler the handler
// address is the deopt blob unpack_with_exception entry.
//
// If no handler exists it prepares for stack-unwinding, restoring the callee-save
// registers of the frame being removed.
//
__ save_frame(0);
__ mov(G2_thread, O0);
__ set_last_Java_frame(SP, noreg);
__ save_thread(L7_thread_cache);
// This call can block at exit and nmethod can be deoptimized at that
// point. If the nmethod had a catch point we would jump to the
// now deoptimized catch point and fall thru the vanilla deopt
// path and lose the exception
// Sure would be simpler if this call didn't block!
__ call(CAST_FROM_FN_PTR(address, OptoRuntime::handle_exception_C), relocInfo::runtime_call_type);
__ delayed()->mov(L7_thread_cache, O0);
// Set an oopmap for the call site. This oopmap will only be used if we
// are unwinding the stack. Hence, all locations will be dead.
// Callee-saved registers will be the same as the frame above (i.e.,
// handle_exception_stub), since they were restored when we got the
// exception.
OopMapSet *oop_maps = new OopMapSet();
oop_maps->add_gc_map( __ offset()-start, new OopMap(framesize_in_slots, 0));
__ bind(L);
__ restore_thread(L7_thread_cache);
__ reset_last_Java_frame();
__ mov(O0, G3_scratch); // Move handler address to temp
__ restore();
// Restore SP from L7 if the exception PC is a MethodHandle call site.
__ lduw(Address(G2_thread, JavaThread::is_method_handle_return_offset()), O7);
__ tst(O7);
__ movcc(Assembler::notZero, false, Assembler::icc, L7_mh_SP_save, SP);
// G3_scratch contains handler address
// Since this may be the deopt blob we must set O7 to look like we returned
// from the original pc that threw the exception
__ ld_ptr(G2_thread, JavaThread::exception_pc_offset(), O7);
__ sub(O7, frame::pc_return_offset, O7);
assert(Assembler::is_simm13(in_bytes(JavaThread::exception_oop_offset())), "exception offset overflows simm13, following ld instruction cannot be in delay slot");
__ ld_ptr(G2_thread, JavaThread::exception_oop_offset(), Oexception); // O0
#ifdef ASSERT
__ st_ptr(G0, G2_thread, JavaThread::exception_handler_pc_offset());
__ st_ptr(G0, G2_thread, JavaThread::exception_pc_offset());
#endif
__ JMP(G3_scratch, 0);
// Clear the exception oop so GC no longer processes it as a root.
__ delayed()->st_ptr(G0, G2_thread, JavaThread::exception_oop_offset());
// -------------
// make sure all code is generated
masm->flush();
_exception_blob = ExceptionBlob::create(&buffer, oop_maps, framesize_in_words);
}
int ffmpeg_tutorial01(const char *file)
{
int ret;
int video_stream;
int width, height;
AVFormatContext* ic = NULL;
AVCodecContext* pCodeCtx = NULL;
AVCodec* pCodec = NULL;
AVFrame* pFrame = NULL;
AVFrame* pFrameRGB = NULL;
uint8_t* buffer = NULL;
struct SwsContext* pSwsCtx = NULL;
AVPacket packet;
if (!file) {
STAR_LOG("no input specified!");
return -1;
}
av_register_all();
// avformat_network_init();
// ic = avformat_alloc_context();
ret = avformat_open_input(&ic, file, NULL, NULL);
if (ret != 0) {
STAR_LOG("FFmpeg open input file failed!");
goto fail;
}
ret = avformat_find_stream_info(ic, NULL);
if (ret < 0) {
STAR_LOG("FFmpeg find stream info failed!");
goto fail;
}
av_dump_format(ic, 0, file, 0);
//find the video streaming
int i;
for (i = 0; i < ic->nb_streams; i++) {
if (ic->streams[i]->codec->codec_type == AVMEDIA_TYPE_VIDEO) {
STAR_LOG("video stream %d found, codec id:%#x",
i, ic->streams[i]->codec->codec_id);
video_stream = i;
break;
}
}
if (video_stream == ic->nb_streams) {
STAR_LOG("None of video stream, stop!");
goto fail;
}
// Find decoder
pCodeCtx = ic->streams[video_stream]->codec;
pCodec = avcodec_find_decoder(pCodeCtx->codec_id);
if (!pCodec) {
STAR_LOG("Find specified codec failed, id:%d", pCodeCtx->codec_id);
goto fail;
}
//Open codec
ret = avcodec_open2(pCodeCtx, pCodec, NULL);
if (ret < 0) {
STAR_LOG("Open codec failed");
goto fail;
}
//Alloc video frame
pFrame = avcodec_alloc_frame();
pFrameRGB = avcodec_alloc_frame();
if (!pFrame || !pFrameRGB) {
STAR_LOG("Allocate frame failed");
goto fail;
}
width = pCodeCtx->width;
height = pCodeCtx->height;
//Determine number of byte and allocate frame buffer
int32_t num_bytes = avpicture_get_size(PIX_FMT_RGB24,
width, height);
buffer = (uint8_t*)av_malloc(num_bytes * sizeof(uint8_t));
if (!buffer) {
STAR_LOG("FFmpeg allocate memory failed");
goto fail;
}
ret = avpicture_fill((AVPicture*)pFrameRGB, buffer, PIX_FMT_RGB24,
width, height);
if (ret < 0) {
STAR_LOG("fill picture failed");
goto fail;
}
pSwsCtx = sws_getCachedContext(pSwsCtx, pCodeCtx->width, pCodeCtx->height, pCodeCtx->pix_fmt,
width, height, PIX_FMT_RGB24,
SWS_BICUBIC, NULL, NULL, NULL);
if (!pSwsCtx) {
STAR_LOG("init swscale failed");
goto fail;
}
i = 0;
int frame_finished;
while (av_read_frame(ic, &packet) >= 0) {
if (packet.stream_index == video_stream) {
i++;
// STAR_LOG("read an video frame:%d", i);
ret = avcodec_decode_video2(pCodeCtx, pFrame,
&frame_finished, &packet);
if (ret < 0) {
STAR_LOG("Decode frame error");
av_free_packet(&packet);
break;
}
if (frame_finished) {
sws_scale(pSwsCtx, (const uint8_t* const*)pFrame->data,
pFrame->linesize, 0, height,
pFrameRGB->data, pFrameRGB->linesize);
if (i % 10 == 0) {
save_frame(pFrameRGB, width, height, i);
}
}
}
av_free_packet(&packet);
}
ret = 0;
if (ret) {
fail:
ret = -1;
}
if (ic)
avformat_close_input(&ic);
if (pFrame)
av_free(pFrame);
if (pFrameRGB)
av_free(pFrameRGB);
if (buffer)
av_free(buffer);
if (pSwsCtx)
sws_freeContext(pSwsCtx);
return ret;
}
// LP64 passes floating point arguments in F1, F3, F5, etc. instead of
// O0, O1, O2 etc..
// Doubles are passed in D0, D2, D4
// We store the signature of the first 16 arguments in the first argument
// slot because it will be overwritten prior to calling the native
// function, with the pointer to the JNIEnv.
// If LP64 there can be up to 16 floating point arguments in registers
// or 6 integer registers.
address AbstractInterpreterGenerator::generate_slow_signature_handler() {
enum {
non_float = 0,
float_sig = 1,
double_sig = 2,
sig_mask = 3
};
address entry = __ pc();
Argument argv(0, true);
// We are in the jni transition frame. Save the last_java_frame corresponding to the
// outer interpreter frame
//
__ set_last_Java_frame(FP, noreg);
// make sure the interpreter frame we've pushed has a valid return pc
__ mov(O7, I7);
__ mov(Lmethod, G3_scratch);
__ mov(Llocals, G4_scratch);
__ save_frame(0);
__ mov(G2_thread, L7_thread_cache);
__ add(argv.address_in_frame(), O3);
__ mov(G2_thread, O0);
__ mov(G3_scratch, O1);
__ call(CAST_FROM_FN_PTR(address, InterpreterRuntime::slow_signature_handler), relocInfo::runtime_call_type);
__ delayed()->mov(G4_scratch, O2);
__ mov(L7_thread_cache, G2_thread);
__ reset_last_Java_frame();
// load the register arguments (the C code packed them as varargs)
Address Sig = argv.address_in_frame(); // Argument 0 holds the signature
__ ld_ptr( Sig, G3_scratch ); // Get register argument signature word into G3_scratch
__ mov( G3_scratch, G4_scratch);
__ srl( G4_scratch, 2, G4_scratch); // Skip Arg 0
Label done;
for (Argument ldarg = argv.successor(); ldarg.is_float_register(); ldarg = ldarg.successor()) {
Label NonFloatArg;
Label LoadFloatArg;
Label LoadDoubleArg;
Label NextArg;
Address a = ldarg.address_in_frame();
__ andcc(G4_scratch, sig_mask, G3_scratch);
__ br(Assembler::zero, false, Assembler::pt, NonFloatArg);
__ delayed()->nop();
__ cmp(G3_scratch, float_sig );
__ br(Assembler::equal, false, Assembler::pt, LoadFloatArg);
__ delayed()->nop();
__ cmp(G3_scratch, double_sig );
__ br(Assembler::equal, false, Assembler::pt, LoadDoubleArg);
__ delayed()->nop();
__ bind(NonFloatArg);
// There are only 6 integer register arguments!
if ( ldarg.is_register() )
__ ld_ptr(ldarg.address_in_frame(), ldarg.as_register());
else {
// Optimization, see if there are any more args and get out prior to checking
// all 16 float registers. My guess is that this is rare.
// If is_register is false, then we are done the first six integer args.
__ br_null_short(G4_scratch, Assembler::pt, done);
}
__ ba(NextArg);
__ delayed()->srl( G4_scratch, 2, G4_scratch );
__ bind(LoadFloatArg);
__ ldf( FloatRegisterImpl::S, a, ldarg.as_float_register(), 4);
__ ba(NextArg);
__ delayed()->srl( G4_scratch, 2, G4_scratch );
__ bind(LoadDoubleArg);
__ ldf( FloatRegisterImpl::D, a, ldarg.as_double_register() );
__ ba(NextArg);
__ delayed()->srl( G4_scratch, 2, G4_scratch );
__ bind(NextArg);
}
__ bind(done);
__ ret();
__ delayed()->
restore(O0, 0, Lscratch); // caller's Lscratch gets the result handler
return entry;
}
void start_editor() {
int ret;
// Colors initialization
for (ret=1; edit_dialog[ret].proc; ret++) {
edit_dialog[ret].fg = colors[black];
edit_dialog[ret].bg = ((edit_dialog[ret].proc==d_edit_proc) ? colors[white] : colors[gray]);
}
edit_dialog[0].bg = colors[darkgray];
edit_dialog[5].dp = datafile[DATA_SCREEN].dat;
for (ret=1; mapedit_dialog[ret].proc; ret++) {
mapedit_dialog[ret].fg = colors[black];
mapedit_dialog[ret].bg = ((mapedit_dialog[ret].proc==d_list_proc) ? colors[white] : colors[gray]);
}
mapedit_dialog[0].bg = colors[darkgray];
// Default game values
game.row_x = game.row_y = 25;
game.tiles = game.row_x * game.row_y;
game.turns = 10;
game.points_tile = 1;
game.points_city = 10;
game.fog = game.hide = 0xff;
game.cross = 0;
game.turn = -1;
game.turns = 10;
game.player = 0;
game.pane_x = game.pane_y = 0;
game.powerup_i=(unsigned short)-1;
game.powerup_v=0;
game.random=0xffff;
strcpy(game.name, "Scenario");
strcpy(game.description, "Scenario description");
// Default players values
for (ret=0; ret<8; ret++) {
sprintf(players[ret].name, "Player %d", ret);
players[ret].reser_t = players[ret].resou_t = players[ret].reser_c = players[ret].resou_c = players[ret].resources = players[ret].reserves = players[ret].points = 0;
players[ret].reser_max = 50;
players[ret].effect = 100;
}
player=0;
for (ret=0; ret<2500; ret++) {
matrix[ret].info = 0x08;
matrix[ret].fog = 0xff;
}
while (1) {
sprintf(x_sectors, "%d", game.row_x);
sprintf(y_sectors, "%d", game.row_y);
sprintf(turns, "%d", game.turns);
sprintf(sector_points, "%d", game.points_tile);
sprintf(base_points, "%d", game.points_city);
sprintf(strbuf, "Name #%d", player+1);
strcpy(play.name, players[player].name);
sprintf(play.reser_t, "%d", players[player].reser_t);
sprintf(play.resou_t, "%d", players[player].resou_t);
sprintf(play.reser_c, "%d", players[player].reser_c);
sprintf(play.resou_c, "%d", players[player].resou_c);
sprintf(play.resources, "%d", players[player].resources);
sprintf(play.reserves, "%d", players[player].reserves);
sprintf(play.points, "%d", players[player].points);
sprintf(play.reser_max, "%d", players[player].reser_max);
sprintf(play.effect, "%d", players[player].effect);
edit_dialog[B_FOG].flags = (game.fog ? 0 : D_SELECTED);
edit_dialog[B_HIDE].flags = (game.hide ? 0 : D_SELECTED);
edit_dialog[B_CROSS].flags = (game.cross ? D_SELECTED : 0);
show_mouse(screen);
ret = do_dialog(edit_dialog, -1);
switch (ret) {
case B_SAVE:
save_frame();
save_scenario(SL_SCENARIO);
break;
case B_LOAD:
load_scenario(SL_SCENARIO);
break;
case B_EXIT:
if (alert("Save the current scenario?", NULL, NULL, "&Yes", "&No", 'y', 'n')==1) save_scenario(SL_SCENARIO);
return;
case B_MAP:
save_frame();
for(ret=0; ret<game.tiles; ret++) matrix[ret].fog = 0xFF;
start_mapedit();
for(ret=0; ret<game.tiles; ret++) matrix[ret].fog = 0;
break;
case B_2NEXT:
save_frame();
players[(player+1)&0x07] = players[player];
break;
case B_2REST:
save_frame();
for (ret=player+1; ret<8; ret++) players[ret]=players[player];
break;
case B_2ALL:
save_frame();
for (ret=0; ret<8; ret++) players[ret]=players[player];
break;
case B_NEXT:
save_frame();
player++;
if (player>7) player=0;
break;
case B_PREV:
save_frame();
player--;
if (player<0) player=7;
break;
}
}
}
void SaveOptimizerState::do_update(unsigned int k) {
save_frame(fh_, k);
}
int main(int argc, char* argv[]) {
printf("Read few frame and write to image\n");
if(argc < 2) {
printf("Missing input video file\n");
return -1;
}
int ret = -1, i = 0, v_stream_idx = -1;
char* vf_path = argv[1];
AVFormatContext* fmt_ctx = NULL;
AVCodecContext* codec_ctx = NULL;
AVCodec* codec = NULL;
AVPacket pkt;
AVFrame* frm = NULL;
av_register_all();
ret = avformat_open_input(&fmt_ctx, vf_path, NULL, NULL);
if(ret < 0){
printf("Open video file %s failed \n", vf_path);
goto end;
}
// i dont know but without this function, sws_getContext does not work
if(avformat_find_stream_info(fmt_ctx, NULL)<0)
return -1;
av_dump_format(fmt_ctx, 0, argv[1], 0);
for(i = 0; i < fmt_ctx->nb_streams; i++) {
if(fmt_ctx->streams[i]->codecpar->codec_type == AVMEDIA_TYPE_VIDEO) {
v_stream_idx = i;
break;
}
}
if(v_stream_idx == -1) {
printf("Cannot find video stream\n");
goto end;
}else{
printf("Video stream %d with resolution %dx%d\n", v_stream_idx,
fmt_ctx->streams[i]->codecpar->width,
fmt_ctx->streams[i]->codecpar->height);
}
codec_ctx = avcodec_alloc_context3(NULL);
avcodec_parameters_to_context(codec_ctx, fmt_ctx->streams[v_stream_idx]->codecpar);
codec = avcodec_find_decoder(codec_ctx->codec_id);
if(codec == NULL){
printf("Unsupported codec for video file\n");
goto end;
}
ret = avcodec_open2(codec_ctx, codec, NULL);
if(ret < 0){
printf("Can not open codec\n");
goto end;
}
frm = av_frame_alloc();
struct SwsContext *sws_ctx = NULL;
AVFrame *pFrameRGB = NULL;
int numBytes;
uint8_t *buffer = NULL;
// Allocate an AVFrame structure
pFrameRGB=av_frame_alloc();
if(pFrameRGB==NULL)
return -1;
// Determine required buffer size and allocate buffer
numBytes=avpicture_get_size(AV_PIX_FMT_RGB24, codec_ctx->width,
codec_ctx->height);
buffer=(uint8_t *)av_malloc(numBytes*sizeof(uint8_t));
sws_ctx =
sws_getContext
(
codec_ctx->width,
codec_ctx->height,
codec_ctx->pix_fmt,
codec_ctx->width,
codec_ctx->height,
AV_PIX_FMT_RGB24,
SWS_BILINEAR,
NULL,
NULL,
NULL
);
if(sws_ctx == NULL) {
printf("Can not use sws\n");
goto end;
}
avpicture_fill((AVPicture *)pFrameRGB, buffer, AV_PIX_FMT_RGB24,
codec_ctx->width, codec_ctx->height);
i=0;
int ret1 = -1, ret2 = -1, fi = -1;
while(av_read_frame(fmt_ctx, &pkt)>=0) {
if(pkt.stream_index == v_stream_idx) {
ret1 = avcodec_send_packet(codec_ctx, &pkt);
ret2 = avcodec_receive_frame(codec_ctx, frm);
printf("ret1 %d ret2 %d\n", ret1, ret2);
// avcodec_decode_video2(codec_ctx, frm, &fi, &pkt);
}
// if not check ret2, error occur [swscaler @ 0x1cb3c40] bad src image pointers
// ret2 same as fi
// if(fi && ++i <= 5) {
if(ret2>= 0 && ++i <= 5) {
sws_scale
(
sws_ctx,
(uint8_t const * const *)frm->data,
frm->linesize,
0,
codec_ctx->height,
pFrameRGB->data,
pFrameRGB->linesize
);
save_frame(pFrameRGB, codec_ctx->width, codec_ctx->height, i);
// save_frame(frm, codec_ctx->width, codec_ctx->height, i);
}
av_packet_unref(&pkt);
if(i>=5){
break;
}
}
av_frame_free(&frm);
avcodec_close(codec_ctx);
avcodec_free_context(&codec_ctx);
end:
avformat_close_input(&fmt_ctx);
printf("Shutdown\n");
return 0;
}
