自学教程：C++ COMMENT函数代码示例

/*------------------------------------------------------------------------------  H264FillerSei()  Filler payload SEI message. Requested filler payload size  could be huge. Use of temporary stream buffer is not needed, because size is  know.------------------------------------------------------------------------------*/void H264FillerSei(stream_s * sp, sei_s * sei, i32 cnt){    i32 i = cnt;    ASSERT(sp != NULL && sei != NULL);    H264NalUnitHdr(sp, 0, SEI, sei->byteStream);    H264NalBits(sp, SEI_FILLER_PAYLOAD, 8);    COMMENT("last_payload_type_byte");    while(cnt >= 255)    {        H264NalBits(sp, 0xFF, 0x8);        COMMENT("ff_byte");        cnt -= 255;    }    H264NalBits(sp, cnt, 8);    COMMENT("last_payload_size_byte");    for(; i > 0; i--)    {        H264NalBits(sp, 0xFF, 8);        COMMENT("filler ff_byte");    }    H264RbspTrailingBits(sp);}

void output_mm_defines(void){	COMMENT("Size of struct page");	DEFINE(STRUCT_PAGE_SIZE, sizeof(struct page));	BLANK();	COMMENT("Linux mm_struct offsets.");	OFFSET(MM_USERS, mm_struct, mm_users);	OFFSET(MM_PGD, mm_struct, pgd);	OFFSET(MM_CONTEXT, mm_struct, context);	BLANK();	DEFINE(_PAGE_SIZE, PAGE_SIZE);	DEFINE(_PAGE_SHIFT, PAGE_SHIFT);	BLANK();	DEFINE(_PGD_T_SIZE, sizeof(pgd_t));	DEFINE(_PTE_T_SIZE, sizeof(pte_t));	BLANK();	DEFINE(_PGD_ORDER, PGD_ORDER);	DEFINE(_PTE_ORDER, PTE_ORDER);	BLANK();	DEFINE(_PGDIR_SHIFT, PGDIR_SHIFT);	BLANK();	DEFINE(_PTRS_PER_PGD, PTRS_PER_PGD);	DEFINE(_PTRS_PER_PTE, PTRS_PER_PTE);	BLANK();}

/*------------------------------------------------------------------------------	VideoSignalType------------------------------------------------------------------------------*/void VideoSignalType(stream_s * stream, videoSignalType_s * vst){    if(vst->videoSignalType == ENCHW_YES)    {        EncPutBits(stream, 1, 1);        COMMENT("Video Signal Type");        EncPutBits(stream, vst->videoFormat, 3);        COMMENT("Video Format");        EncPutBits(stream, vst->videoRange, 1);        COMMENT("Video Range");        if(vst->colourDescription == ENCHW_YES)        {            EncPutBits(stream, 1, 1);            COMMENT("Colour Description");            EncPutBits(stream, vst->colourPrimaries, 8);            COMMENT("Colour Primaries");            EncPutBits(stream, vst->transferCharacteristics, 8);            COMMENT("Transfer Characteristics");            EncPutBits(stream, vst->matrixCoefficients, 8);            COMMENT("Matrix Coefficients");        }        else        {            EncPutBits(stream, 0, 1);            COMMENT("Colour Description");        }    }    else    {        EncPutBits(stream, 0, 1);        COMMENT("Video Signal Type");    }    return;}

/* This function is not intended to be executed. It is needed to provide * the numeric values of the needed offsets. */void kedr_offsets_holder(void){	/* kedr_local_storage */	COMMENT("Offsets of the fields in struct kedr_local_storage");		/* Register spill slots */	DEFINE(KEDR_LSTORAGE_ax, KEDR_OFFSET_LS_REG(INAT_REG_CODE_AX));	DEFINE(KEDR_LSTORAGE_cx, KEDR_OFFSET_LS_REG(INAT_REG_CODE_CX));	DEFINE(KEDR_LSTORAGE_dx, KEDR_OFFSET_LS_REG(INAT_REG_CODE_DX));	DEFINE(KEDR_LSTORAGE_bx, KEDR_OFFSET_LS_REG(INAT_REG_CODE_BX));	DEFINE(KEDR_LSTORAGE_sp, KEDR_OFFSET_LS_REG(INAT_REG_CODE_SP));	DEFINE(KEDR_LSTORAGE_bp, KEDR_OFFSET_LS_REG(INAT_REG_CODE_BP));	DEFINE(KEDR_LSTORAGE_si, KEDR_OFFSET_LS_REG(INAT_REG_CODE_SI));	DEFINE(KEDR_LSTORAGE_di, KEDR_OFFSET_LS_REG(INAT_REG_CODE_DI));#ifdef CONFIG_X86_64	DEFINE(KEDR_LSTORAGE_r8, KEDR_OFFSET_LS_REG(INAT_REG_CODE_8));	DEFINE(KEDR_LSTORAGE_r9, KEDR_OFFSET_LS_REG(INAT_REG_CODE_9));	DEFINE(KEDR_LSTORAGE_r10, KEDR_OFFSET_LS_REG(INAT_REG_CODE_10));	DEFINE(KEDR_LSTORAGE_r11, KEDR_OFFSET_LS_REG(INAT_REG_CODE_11));	DEFINE(KEDR_LSTORAGE_r12, KEDR_OFFSET_LS_REG(INAT_REG_CODE_12));	DEFINE(KEDR_LSTORAGE_r13, KEDR_OFFSET_LS_REG(INAT_REG_CODE_13));	DEFINE(KEDR_LSTORAGE_r14, KEDR_OFFSET_LS_REG(INAT_REG_CODE_14));	DEFINE(KEDR_LSTORAGE_r15, KEDR_OFFSET_LS_REG(INAT_REG_CODE_15));#endif	/* The array of local values */	OFFSET(KEDR_LSTORAGE_values, kedr_local_storage, values);		/* Other fields */	OFFSET(KEDR_LSTORAGE_tid, kedr_local_storage, tid);	OFFSET(KEDR_LSTORAGE_fi, kedr_local_storage, fi);	OFFSET(KEDR_LSTORAGE_write_mask, kedr_local_storage, write_mask);	OFFSET(KEDR_LSTORAGE_info, kedr_local_storage, info);	OFFSET(KEDR_LSTORAGE_dest_addr, kedr_local_storage, dest_addr);	OFFSET(KEDR_LSTORAGE_temp, kedr_local_storage, temp);	OFFSET(KEDR_LSTORAGE_temp1, kedr_local_storage, temp1);	OFFSET(KEDR_LSTORAGE_temp_bx, kedr_local_storage, temp_bx);	OFFSET(KEDR_LSTORAGE_temp_bp, kedr_local_storage, temp_bp);	OFFSET(KEDR_LSTORAGE_ret_val, kedr_local_storage, ret_val);	OFFSET(KEDR_LSTORAGE_ret_val_high, kedr_local_storage, ret_val_high);	OFFSET(KEDR_LSTORAGE_ret_addr, kedr_local_storage, ret_addr);	OFFSET(KEDR_LSTORAGE_temp_aux, kedr_local_storage, temp_aux);	BLANK();		/* kedr_call_info */	COMMENT("Offsets of the fields in struct kedr_call_info");	OFFSET(KEDR_CALL_INFO_pc, kedr_call_info, pc);	OFFSET(KEDR_CALL_INFO_target, kedr_call_info, target);	OFFSET(KEDR_CALL_INFO_repl, kedr_call_info, repl);	OFFSET(KEDR_CALL_INFO_pre_handler, kedr_call_info, pre_handler);	OFFSET(KEDR_CALL_INFO_post_handler, kedr_call_info, post_handler);}

/*------------------------------------------------------------------------------    Function name: EncJpegRestartInterval    Functional description: Sets DRI header data    Inputs:    Outputs:------------------------------------------------------------------------------*/void EncJpegRestartInterval(stream_s * stream, jpegData_s * data){    if(data->restart.Ri != 0)    {        EncJpegHeaderPutBits(stream, DRI, 16);        COMMENT("DRI");        data->restart.Lr = 4;        EncJpegHeaderPutBits(stream, data->restart.Lr, 16);        COMMENT("Lr");        EncJpegHeaderPutBits(stream, data->restart.Ri, 16);        COMMENT("Rq");    }}

void output_thread_defines(void){	COMMENT("MIPS specific thread_struct offsets.");	OFFSET(THREAD_REG16, task_struct, thread.reg16);	OFFSET(THREAD_REG17, task_struct, thread.reg17);	OFFSET(THREAD_REG18, task_struct, thread.reg18);	OFFSET(THREAD_REG19, task_struct, thread.reg19);	OFFSET(THREAD_REG20, task_struct, thread.reg20);	OFFSET(THREAD_REG21, task_struct, thread.reg21);	OFFSET(THREAD_REG22, task_struct, thread.reg22);	OFFSET(THREAD_REG23, task_struct, thread.reg23);	OFFSET(THREAD_REG29, task_struct, thread.reg29);	OFFSET(THREAD_REG30, task_struct, thread.reg30);	OFFSET(THREAD_REG31, task_struct, thread.reg31);	OFFSET(THREAD_STATUS, task_struct,	       thread.cp0_status);#ifdef CONFIG_CPU_SUPPORTS_VECTOR_COPROCESSOR	OFFSET(THREAD_VPU, task_struct, thread.vpu);#endif	OFFSET(THREAD_FPU, task_struct, thread.fpu);	OFFSET(THREAD_BVADDR, task_struct, /	       thread.cp0_badvaddr);	OFFSET(THREAD_BUADDR, task_struct, /	       thread.cp0_baduaddr);	OFFSET(THREAD_ECODE, task_struct, /	       thread.error_code);	OFFSET(THREAD_TRAMP, task_struct, /	       thread.irix_trampoline);	OFFSET(THREAD_OLDCTX, task_struct, /	       thread.irix_oldctx);	BLANK();}

intskipWhiteSpace(    UCHAR stream    ){    int c;    do {        c = GET(stream);        if (WHITESPACE(c) || c == ESCH) {            if (c == ESCH) {                c = GET(stream);                if (!WHITESPACE(c)) {   // push char back out, return esch                    UngetTxtChr(c, file);                    c = ESCH;                    break;                }            }            colZero = FALSE;            // we've moved past col 0        }        if (c == '//')            c = skipBackSlash(c, stream);    } while(WHITESPACE(c));    if (COMMENT(c,colZero,init)) {        skipComments(stream);           // current char is always        c = '/n';                       // /n after comments        colZero = TRUE;                 // always in col 0 after a comment    }    return(c);                          // true if we're in col 0}

void output_thread_defines(void){	COMMENT("SCORE specific thread_struct offsets.");	OFFSET(THREAD_REG0, task_struct, thread.reg0);	OFFSET(THREAD_REG2, task_struct, thread.reg2);	OFFSET(THREAD_REG3, task_struct, thread.reg3);	OFFSET(THREAD_REG12, task_struct, thread.reg12);	OFFSET(THREAD_REG13, task_struct, thread.reg13);	OFFSET(THREAD_REG14, task_struct, thread.reg14);	OFFSET(THREAD_REG15, task_struct, thread.reg15);	OFFSET(THREAD_REG16, task_struct, thread.reg16);	OFFSET(THREAD_REG17, task_struct, thread.reg17);	OFFSET(THREAD_REG18, task_struct, thread.reg18);	OFFSET(THREAD_REG19, task_struct, thread.reg19);	OFFSET(THREAD_REG20, task_struct, thread.reg20);	OFFSET(THREAD_REG21, task_struct, thread.reg21);	OFFSET(THREAD_REG29, task_struct, thread.reg29);	OFFSET(THREAD_PSR, task_struct, thread.cp0_psr);	OFFSET(THREAD_EMA, task_struct, thread.cp0_ema);	OFFSET(THREAD_BADUADDR, task_struct, thread.cp0_baduaddr);	OFFSET(THREAD_ECODE, task_struct, thread.error_code);	OFFSET(THREAD_TRAPNO, task_struct, thread.trap_no);	BLANK();}

std::stringGCodeWriter::_retract(double length, double restart_extra, const std::string &comment){    std::ostringstream gcode;        /*  If firmware retraction is enabled, we use a fake value of 1        since we ignore the actual configured retract_length which         might be 0, in which case the retraction logic gets skipped. */    if (this->config.use_firmware_retraction) length = 1;        // If we use volumetric E values we turn lengths into volumes */    if (this->config.use_volumetric_e) {        double d = this->_extruder->filament_diameter();        double area = d * d * PI/4;        length = length * area;        restart_extra = restart_extra * area;    }        double dE = this->_extruder->retract(length, restart_extra);    if (dE != 0) {        if (this->config.use_firmware_retraction) {            gcode << "G10 ; retract/n";        } else {            gcode << "G1 " << this->_extrusion_axis << E_NUM(this->_extruder->E)                           << " F" << this->_extruder->retract_speed_mm_min;            COMMENT(comment);            gcode << "/n";        }    }        if (FLAVOR_IS(gcfMakerWare))        gcode << "M103 ; extruder off/n";        return gcode.str();}

int main (){    INIT_INFO ("SolveSquareEquation");    COMMENT ("Enter a, b, c for ax^2 + bx + c = 0:");    double a = 0, b = 0, c = 0;    if (!INPUT (a) || !INPUT (b) || !INPUT(c))        return 1;    double x1 = 0, x2 = 0;    int nRoots = SolveSquareEquation(a, b, c, &x1, &x2);    switch (nRoots)    {    case 0:        printf ("#No roots/n");        break;    case 1:        printf ("#One root: x1 = %lg/n", x1);        break;    case 2:        printf ("#Two roots: x1 = %lg, x2 = %lg/n", x1, x2);        break;    case INFINITE_ROOTS:        printf ("#Infinite number of roots/n");        break;    }    return 0;}

void output_octeon_cop2_state_defines(void){	COMMENT("Octeon specific octeon_cop2_state offsets.");	OFFSET(OCTEON_CP2_CRC_IV,	octeon_cop2_state, cop2_crc_iv);	OFFSET(OCTEON_CP2_CRC_LENGTH,	octeon_cop2_state, cop2_crc_length);	OFFSET(OCTEON_CP2_CRC_POLY,	octeon_cop2_state, cop2_crc_poly);	OFFSET(OCTEON_CP2_LLM_DAT,	octeon_cop2_state, cop2_llm_dat);	OFFSET(OCTEON_CP2_3DES_IV,	octeon_cop2_state, cop2_3des_iv);	OFFSET(OCTEON_CP2_3DES_KEY,	octeon_cop2_state, cop2_3des_key);	OFFSET(OCTEON_CP2_3DES_RESULT,	octeon_cop2_state, cop2_3des_result);	OFFSET(OCTEON_CP2_AES_INP0,	octeon_cop2_state, cop2_aes_inp0);	OFFSET(OCTEON_CP2_AES_IV,	octeon_cop2_state, cop2_aes_iv);	OFFSET(OCTEON_CP2_AES_KEY,	octeon_cop2_state, cop2_aes_key);	OFFSET(OCTEON_CP2_AES_KEYLEN,	octeon_cop2_state, cop2_aes_keylen);	OFFSET(OCTEON_CP2_AES_RESULT,	octeon_cop2_state, cop2_aes_result);	OFFSET(OCTEON_CP2_GFM_MULT,	octeon_cop2_state, cop2_gfm_mult);	OFFSET(OCTEON_CP2_GFM_POLY,	octeon_cop2_state, cop2_gfm_poly);	OFFSET(OCTEON_CP2_GFM_RESULT,	octeon_cop2_state, cop2_gfm_result);	OFFSET(OCTEON_CP2_HSH_DATW,	octeon_cop2_state, cop2_hsh_datw);	OFFSET(OCTEON_CP2_HSH_IVW,	octeon_cop2_state, cop2_hsh_ivw);	OFFSET(OCTEON_CP2_SHA3,		octeon_cop2_state, cop2_sha3);	OFFSET(THREAD_CP2,	task_struct, thread.cp2);	OFFSET(THREAD_CVMSEG,	task_struct, thread.cvmseg.cvmseg);	BLANK();}

std::stringGCodeWriter::travel_to_xyz(const Pointf3 &point, const std::string &comment){    /*  If target Z is lower than current Z but higher than nominal Z we        don't perform the Z move but we only move in the XY plane and        adjust the nominal Z by reducing the lift amount that will be         used for unlift. */    if (!this->will_move_z(point.z)) {        double nominal_z = this->_pos.z - this->_lifted;        this->_lifted = this->_lifted - (point.z - nominal_z);        return this->travel_to_xy(point);    }        /*  In all the other cases, we perform an actual XYZ move and cancel        the lift. */    this->_lifted = 0;    this->_pos = point;        std::ostringstream gcode;    gcode << "G1 X" << XYZF_NUM(point.x)          <<   " Y" << XYZF_NUM(point.y)          <<   " Z" << XYZF_NUM(point.z)          <<   " F" << XYZF_NUM(this->config.travel_speed.value * 60.0);    COMMENT(comment);    gcode << "/n";    return gcode.str();}

main(int argc,char *argv[]){  if (argc != 2) {    fprintf(stderr,"usage: %s name-for-package/n", argv[0]);    exit(1);  }  NEWLINE();  PUTS("package "); PUTS(argv[1]); PUTS(" : Cc_Info =/n");  PUTS("/tstruct/n");  PUTS("/t/t");COMMENT("all sizes in bytes");  NEWLINE();  PUTVAL("intSzB", sizeof(int));  PUTVAL("shortSzB", sizeof(short));  PUTVAL("longSzB", sizeof(long));  NEWLINE();  PUTVAL("charSzB", sizeof(char));  NEWLINE();  PUTVAL("floatSzB", sizeof(float));  PUTVAL("doubleSzB", sizeof(double));  NEWLINE();  PUTVAL("ptrSzB", sizeof(int *));  NEWLINE();  PUTVAL("unionAlign", sizeof(int *));  PUTVAL("structAlign", sizeof(int *));  NEWLINE();  PUTS("/tend "); PUTS("/* package "); PUTS(argv[1]); PUTS(" *//n");  exit(0);}

void output_thread_defines(void){	COMMENT("MIPS specific thread_struct offsets.");	OFFSET(THREAD_REG16, task_struct, thread.reg16);	OFFSET(THREAD_REG17, task_struct, thread.reg17);	OFFSET(THREAD_REG18, task_struct, thread.reg18);	OFFSET(THREAD_REG19, task_struct, thread.reg19);	OFFSET(THREAD_REG20, task_struct, thread.reg20);	OFFSET(THREAD_REG21, task_struct, thread.reg21);	OFFSET(THREAD_REG22, task_struct, thread.reg22);	OFFSET(THREAD_REG23, task_struct, thread.reg23);	OFFSET(THREAD_REG29, task_struct, thread.reg29);	OFFSET(THREAD_REG30, task_struct, thread.reg30);	OFFSET(THREAD_REG31, task_struct, thread.reg31);	OFFSET(THREAD_STATUS, task_struct,	       thread.cp0_status);	OFFSET(THREAD_FPU, task_struct, thread.fpu);	OFFSET(THREAD_BVADDR, task_struct, /	       thread.cp0_badvaddr);	OFFSET(THREAD_BUADDR, task_struct, /	       thread.cp0_baduaddr);	OFFSET(THREAD_ECODE, task_struct, /	       thread.error_code);	BLANK();}

/*------------------------------------------------------------------------------  H264BufferingSei()  Buffering period SEI message.------------------------------------------------------------------------------*/void H264BufferingSei(stream_s * sp, sei_s * sei){    u8 *pPayloadSizePos;    u32 startByteCnt;    ASSERT(sei != NULL);    if(sei->hrd == ENCHW_NO)    {        return;    }    H264NalBits(sp, SEI_BUFFERING_PERIOD, 8);    COMMENT("last_payload_type_byte");    pPayloadSizePos = sp->stream;    H264NalBits(sp, 0xFF, 8);   /* this will be updated after we know exact payload size */    COMMENT("last_payload_size_byte");    startByteCnt = sp->byteCnt;    sp->emulCnt = 0;    /* count emul_3_byte for this payload */    H264ExpGolombUnsigned(sp, sei->seqId);    COMMENT("seq_parameter_set_id");    H264NalBits(sp, sei->icrd, sei->icrdLen);    COMMENT("initial_cpb_removal_delay");    H264NalBits(sp, sei->icrdo, sei->icrdoLen);    COMMENT("initial_cpb_removal_delay_offset");    if(sp->bufferedBits)    {        H264RbspTrailingBits(sp);    }    {        u32 payload_size;        payload_size = sp->byteCnt - startByteCnt - sp->emulCnt;        *pPayloadSizePos = payload_size;    }    /* reset cpb_removal_delay */    sei->crd = 0;}

/*------------------------------------------------------------------------------    Function name: EncJpegCOMHeader    Functional description: Sets COM header data    Inputs:    Outputs:------------------------------------------------------------------------------*/void EncJpegCOMHeader(stream_s * stream, jpegData_s * data){    u32 j;    EncJpegHeaderPutBits(stream, COM, 16);    COMMENT("COM");    EncJpegHeaderPutBits(stream, 2 + data->com.comLen, 16);    COMMENT("Lc");    for(j = 0; j < data->com.comLen; j++)    {        /* Qk table 0 */        EncJpegHeaderPutBits(stream, data->com.pComment[j], 8);        COMMENT("COM data");    }}

void output_sc32_defines(void){	COMMENT("Linux 32-bit sigcontext offsets.");	OFFSET(SC32_FPREGS, sigcontext32, sc_fpregs);	OFFSET(SC32_FPC_CSR, sigcontext32, sc_fpc_csr);	OFFSET(SC32_FPC_EIR, sigcontext32, sc_fpc_eir);	BLANK();}

void output_irq_cpustat_t_defines(void){	COMMENT("Linux irq_cpustat_t offsets.");	DEFINE(IC_SOFTIRQ_PENDING,			offsetof(irq_cpustat_t, __softirq_pending));	DEFINE(IC_IRQ_CPUSTAT_T, sizeof(irq_cpustat_t));	BLANK();}

/*------------------------------------------------------------------------------	H264NalUnit------------------------------------------------------------------------------*/void H264NalUnitHdr(stream_s * stream, i32 nalRefIdc, nalUnitType_e nalUnitType,                    true_e byteStream){    if(byteStream == ENCHW_YES)    {        H264PutBits(stream, 0, 8);        COMMENT("BYTE STREAM: leadin_zero_8bits");        H264PutBits(stream, 0, 8);        COMMENT("BYTE STREAM: Start_code_prefix");        H264PutBits(stream, 0, 8);        COMMENT("BYTE STREAM: Start_code_prefix");        H264PutBits(stream, 1, 8);        COMMENT("BYTE STREAM: Start_code_prefix");    }    H264PutBits(stream, 0, 1);    COMMENT("forbidden_zero_bit");    H264PutBits(stream, nalRefIdc, 2);    COMMENT("nal_ref_idc");    H264PutBits(stream, (i32) nalUnitType, 5);    COMMENT("nal_unit_type");    stream->zeroBytes = 0; /* we start new counter for zero bytes */    return;}

std::stringGCodeWriter::set_speed(double F, const std::string &comment){    std::ostringstream gcode;    gcode << "G1 F" << F;    COMMENT(comment);    gcode << "/n";    return gcode.str();}

void output_pbe_defines(void){	COMMENT(" Linux struct pbe offsets. ");	OFFSET(PBE_ADDRESS, pbe, address);	OFFSET(PBE_ORIG_ADDRESS, pbe, orig_address);	OFFSET(PBE_NEXT, pbe, next);	DEFINE(PBE_SIZE, sizeof(struct pbe));	BLANK();}

/*------------------------------------------------------------------------------    Function name: EncJpegImageEndReplaceRst    Functional description: write EOI over hw set RST    Inputs:    Outputs:------------------------------------------------------------------------------*/void EncJpegImageEndReplaceRst(stream_s * stream, jpegData_s * data){    COMMENT("Replace RST with EOI (slice mode)");    /* write EOI to stream */    stream->stream[0] = 0xFF;    stream->stream[1] = 0xD9;    stream->stream++;    stream->stream++;    /* take care of next putbits */    if(data->appn.thumbMode)    {        stream->stream[0] = 0x0;        stream->stream[1] = 0x0;    }    COMMENT("RST ==> EOI");}

GraphicElement::GraphicElement( int minInputSz, int maxInputSz, int minOutputSz, int maxOutputSz,                                QGraphicsItem *parent ) : QGraphicsObject( parent ), label( new QGraphicsTextItem(                                                                                              this ) ){  COMMENT( "Setting flags of elements. ", 4 );  setFlag( QGraphicsItem::ItemIsMovable );  setFlag( QGraphicsItem::ItemIsSelectable );/*  setFlag(QGraphicsItem::ItemSendsScenePositionChanges); */  setFlag( QGraphicsItem::ItemSendsGeometryChanges );  COMMENT( "Setting attributes. ", 4 );  label->hide( );  QFont font( "SansSerif" );  font.setBold( true );  label->setFont( font );  label->setPos( 64, 30 );  label->setParentItem( this );  m_bottomPosition = 64;  m_topPosition = 0;  m_minInputSz = minInputSz;  m_minOutputSz = minOutputSz;  m_maxInputSz = maxInputSz;  m_maxOutputSz = maxOutputSz;  m_changed = true;//  m_visited = false;//  m_beingVisited = false;  m_rotatable = true;  m_hasColors = false;  m_hasTones = false;  m_hasTrigger = false;  m_hasFrequency = false;  m_hasLabel = false;  m_disabled = false;  m_outputsOnTop = true;  COMMENT( "Including input and output ports.", 4 );  for( int i = 0; i < minInputSz; i++ ) {    addInputPort( );  }  for( int i = 0; i < minOutputSz; i++ ) {    addOutputPort( );  }}

voidcheck_lnet_hdr (void){        CHECK_STRUCT (lnet_hdr_t);        CHECK_MEMBER (lnet_hdr_t, dest_nid);        CHECK_MEMBER (lnet_hdr_t, src_nid);        CHECK_MEMBER (lnet_hdr_t, dest_pid);        CHECK_MEMBER (lnet_hdr_t, src_pid);        CHECK_MEMBER (lnet_hdr_t, type);        CHECK_MEMBER (lnet_hdr_t, payload_length);        CHECK_MEMBER (lnet_hdr_t, msg);        BLANK_LINE ();        COMMENT ("Ack");        CHECK_MEMBER (lnet_hdr_t, msg.ack.dst_wmd);        CHECK_MEMBER (lnet_hdr_t, msg.ack.match_bits);        CHECK_MEMBER (lnet_hdr_t, msg.ack.mlength);        BLANK_LINE ();        COMMENT ("Put");        CHECK_MEMBER (lnet_hdr_t, msg.put.ack_wmd);        CHECK_MEMBER (lnet_hdr_t, msg.put.match_bits);        CHECK_MEMBER (lnet_hdr_t, msg.put.hdr_data);        CHECK_MEMBER (lnet_hdr_t, msg.put.ptl_index);        CHECK_MEMBER (lnet_hdr_t, msg.put.offset);        BLANK_LINE ();        COMMENT ("Get");        CHECK_MEMBER (lnet_hdr_t, msg.get.return_wmd);        CHECK_MEMBER (lnet_hdr_t, msg.get.match_bits);        CHECK_MEMBER (lnet_hdr_t, msg.get.ptl_index);        CHECK_MEMBER (lnet_hdr_t, msg.get.src_offset);        CHECK_MEMBER (lnet_hdr_t, msg.get.sink_length);        BLANK_LINE ();        COMMENT ("Reply");        CHECK_MEMBER (lnet_hdr_t, msg.reply.dst_wmd);        BLANK_LINE ();        COMMENT ("Hello");        CHECK_MEMBER (lnet_hdr_t, msg.hello.incarnation);        CHECK_MEMBER (lnet_hdr_t, msg.hello.type);}

/*------------------------------------------------------------------------------  H264UserDataUnregSei()  User data unregistered SEI message.------------------------------------------------------------------------------*/void H264UserDataUnregSei(stream_s * sp, sei_s * sei){    u32 i, cnt;    const u8 * pUserData;    ASSERT(sei != NULL);    ASSERT(sei->pUserData != NULL);    ASSERT(sei->userDataSize >= 16);    pUserData = sei->pUserData;    cnt = sei->userDataSize;    if(sei->userDataEnabled == ENCHW_NO)    {        return;    }    H264NalBits(sp, SEI_USER_DATA_UNREGISTERED, 8);    COMMENT("last_payload_type_byte");    while(cnt >= 255)    {        H264NalBits(sp, 0xFF, 0x8);        COMMENT("ff_byte");        cnt -= 255;    }    H264NalBits(sp, cnt, 8);    COMMENT("last_payload_size_byte");    /* Write uuid */    for (i = 0; i < 16; i++)    {    	H264NalBits(sp, pUserData[i], 8);        COMMENT("uuid_iso_iec_11578_byte");    }    /* Write payload */    for (i = 16; i < sei->userDataSize; i++)    {        H264NalBits(sp, pUserData[i], 8);        COMMENT("user_data_payload_byte");    }}

void output_task_defines(void){	COMMENT("SCORE task_struct offsets.");	OFFSET(TASK_STATE, task_struct, state);	OFFSET(TASK_THREAD_INFO, task_struct, stack);	OFFSET(TASK_FLAGS, task_struct, flags);	OFFSET(TASK_MM, task_struct, mm);	OFFSET(TASK_PID, task_struct, pid);	DEFINE(TASK_STRUCT_SIZE, sizeof(struct task_struct));	BLANK();}

void output_ptreg_defines(void){	COMMENT("MIPS pt_regs offsets.");	OFFSET(PT_R0, pt_regs, regs[0]);	OFFSET(PT_R1, pt_regs, regs[1]);	OFFSET(PT_R2, pt_regs, regs[2]);	OFFSET(PT_R3, pt_regs, regs[3]);	OFFSET(PT_R4, pt_regs, regs[4]);	OFFSET(PT_R5, pt_regs, regs[5]);	OFFSET(PT_R6, pt_regs, regs[6]);	OFFSET(PT_R7, pt_regs, regs[7]);	OFFSET(PT_R8, pt_regs, regs[8]);	OFFSET(PT_R9, pt_regs, regs[9]);	OFFSET(PT_R10, pt_regs, regs[10]);	OFFSET(PT_R11, pt_regs, regs[11]);	OFFSET(PT_R12, pt_regs, regs[12]);	OFFSET(PT_R13, pt_regs, regs[13]);	OFFSET(PT_R14, pt_regs, regs[14]);	OFFSET(PT_R15, pt_regs, regs[15]);	OFFSET(PT_R16, pt_regs, regs[16]);	OFFSET(PT_R17, pt_regs, regs[17]);	OFFSET(PT_R18, pt_regs, regs[18]);	OFFSET(PT_R19, pt_regs, regs[19]);	OFFSET(PT_R20, pt_regs, regs[20]);	OFFSET(PT_R21, pt_regs, regs[21]);	OFFSET(PT_R22, pt_regs, regs[22]);	OFFSET(PT_R23, pt_regs, regs[23]);	OFFSET(PT_R24, pt_regs, regs[24]);	OFFSET(PT_R25, pt_regs, regs[25]);	OFFSET(PT_R26, pt_regs, regs[26]);	OFFSET(PT_R27, pt_regs, regs[27]);	OFFSET(PT_R28, pt_regs, regs[28]);	OFFSET(PT_R29, pt_regs, regs[29]);	OFFSET(PT_R30, pt_regs, regs[30]);	OFFSET(PT_R31, pt_regs, regs[31]);	OFFSET(PT_LO, pt_regs, lo);	OFFSET(PT_HI, pt_regs, hi);#ifdef CONFIG_CPU_HAS_SMARTMIPS	OFFSET(PT_ACX, pt_regs, acx);#endif	OFFSET(PT_EPC, pt_regs, cp0_epc);	OFFSET(PT_BVADDR, pt_regs, cp0_badvaddr);	OFFSET(PT_STATUS, pt_regs, cp0_status);	OFFSET(PT_CAUSE, pt_regs, cp0_cause);#ifdef CONFIG_MIPS_MT_SMTC	OFFSET(PT_TCSTATUS, pt_regs, cp0_tcstatus);#endif /* CONFIG_MIPS_MT_SMTC */#ifdef CONFIG_CPU_CAVIUM_OCTEON	OFFSET(PT_MPL, pt_regs, mpl);	OFFSET(PT_MTP, pt_regs, mtp);#endif /* CONFIG_CPU_CAVIUM_OCTEON */	DEFINE(PT_SIZE, sizeof(struct pt_regs));	BLANK();}

void output_pm_defines(void){	COMMENT(" PM offsets. ");#ifdef CONFIG_EVA	OFFSET(SSS_SEGCTL0,	mips_static_suspend_state, segctl[0]);	OFFSET(SSS_SEGCTL1,	mips_static_suspend_state, segctl[1]);	OFFSET(SSS_SEGCTL2,	mips_static_suspend_state, segctl[2]);#endif	OFFSET(SSS_SP,		mips_static_suspend_state, sp);	BLANK();}

void output_sc_defines(void){	COMMENT("Linux sigcontext offsets.");	OFFSET(SC_REGS, sigcontext, sc_regs);	OFFSET(SC_FPREGS, sigcontext, sc_fpregs);	OFFSET(SC_MDHI, sigcontext, sc_mdhi);	OFFSET(SC_MDLO, sigcontext, sc_mdlo);	OFFSET(SC_PC, sigcontext, sc_pc);	OFFSET(SC_FPC_CSR, sigcontext, sc_fpc_csr);	BLANK();}