// -*- mode: C++; c-file-style: "cc-mode" -*-
//*************************************************************************
//
// Copyright 2003-2016 by Wilson Snyder. This program is free software; you can
// redistribute it and/or modify it under the terms of either the GNU
// Lesser General Public License Version 3 or the Perl Artistic License.
// Version 2.0.
//
// Verilator is distributed in the hope that it will be useful,
// but WITHOUT ANY WARRANTY; without even the implied warranty of
// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
// GNU General Public License for more details.
//
//*************************************************************************
///
/// \file
/// \brief Verilator: Common include for all Verilated C files
///
///	This file is included automatically by Verilator at the top of
///	all C++ files it generates.  It contains standard macros and
///	classes required by the Verilated code.
///
/// Code available from: http://www.veripool.org/verilator
///
//*************************************************************************


#ifndef _VERILATED_H_
#define _VERILATED_H_ 1 ///< Header Guard

#include "verilated_config.h"
#include "verilatedos.h"

#include <cassert>
#include <cstdarg>
#include <cstdio>
#include <cstdlib>
#include <cstring>
#include <cmath>
// <iostream> avoided to reduce compile time
// <map> avoided and instead in verilated_heavy.h to reduce compile time
// <string> avoided and instead in verilated_heavy.h to reduce compile time
using namespace std;

//=============================================================================
// Switches

#if VM_TRACE		// Verilator tracing requested
# define WAVES 1	// Set backward compatibility flag as in systemperl.h
#endif

//=========================================================================
// Basic types

//		     P		// Packed data of bit type (C/S/I/Q/W)
typedef vluint8_t    CData;	///< Verilated pack data, 1-8 bits
typedef vluint16_t   SData;	///< Verilated pack data, 9-16 bits
typedef vluint32_t   IData;	///< Verilated pack data, 17-32 bits
typedef vluint64_t   QData;	///< Verilated pack data, 33-64 bits
typedef vluint32_t   WData;	///< Verilated pack data, >64 bits, as an array
//	float	     F		// No typedef needed; Verilator uses float
//	double	     D		// No typedef needed; Verilator uses double
//	string	     N		// No typedef needed; Verilator uses string

typedef const WData* WDataInP;	///< Array input to a function
typedef       WData* WDataOutP;	///< Array output from a function

typedef void (*VerilatedVoidCb)(void);

class SpTraceVcd;
class SpTraceVcdCFile;
class VerilatedScopeNameMap;
class VerilatedVar;
class VerilatedVarNameMap;
class VerilatedVcd;
class VerilatedVcdC;

enum VerilatedVarType {
    VLVT_UNKNOWN=0,
    VLVT_PTR,		// Pointer to something
    VLVT_UINT8,		// AKA CData
    VLVT_UINT16,	// AKA SData
    VLVT_UINT32,	// AKA IData
    VLVT_UINT64,	// AKA QData
    VLVT_WDATA,		// AKA WData
    VLVT_STRING		// C++ string
};

enum VerilatedVarFlags {
    VLVD_IN=1,		// == vpiInput
    VLVD_OUT=2,		// == vpiOutput
    VLVD_INOUT=3,	// == vpiInOut
    VLVD_NODIR=5,	// == vpiNoDirection
    VLVF_MASK_DIR=7,	// Bit mask for above directions
    // Flags
    VLVF_PUB_RD=(1<<8),	// Public readable
    VLVF_PUB_RW=(1<<9)	// Public writable
};

//=========================================================================
/// Base class for all Verilated module classes

class VerilatedModule {
private:
    const char*		m_namep;	///< Module name
    VerilatedModule();				///< N/A, always use named constructor below
    VerilatedModule(const VerilatedModule& );	///< N/A, no copy constructor
public:
    explicit VerilatedModule(const char* namep);	///< Create module with given hierarchy name
    ~VerilatedModule();
    const char* name() const { return m_namep; }	///< Return name of module
};

//=========================================================================
// Declare nets

#ifndef VL_ST_SIG
# define VL_ST_SIG8(name, msb,lsb)	CData name		///< Declare signal, 1-8 bits
# define VL_ST_SIG16(name, msb,lsb)	SData name		///< Declare signal, 9-16 bits
# define VL_ST_SIG64(name, msb,lsb)	QData name		///< Declare signal, 33-64 bits
# define VL_ST_SIG(name, msb,lsb)	IData name		///< Declare signal, 17-32 bits
# define VL_ST_SIGW(name,msb,lsb,words)	WData name[words]	///< Declare signal, 65+ bits
#endif
#ifndef VL_SIG
# define VL_SIG8(name, msb,lsb)		CData name		///< Declare signal, 1-8 bits
# define VL_SIG16(name, msb,lsb)	SData name		///< Declare signal, 9-16 bits
# define VL_SIG64(name, msb,lsb)	QData name		///< Declare signal, 33-64 bits
# define VL_SIG(name, msb,lsb)		IData name		///< Declare signal, 17-32 bits
# define VL_SIGW(name, msb,lsb, words)	WData name[words]	///< Declare signal, 65+ bits
# define VL_IN8(name, msb,lsb)		CData name		///< Declare input signal, 1-8 bits
# define VL_IN16(name, msb,lsb)		SData name		///< Declare input signal, 9-16 bits
# define VL_IN64(name, msb,lsb)		QData name		///< Declare input signal, 33-64 bits
# define VL_IN(name, msb,lsb)		IData name		///< Declare input signal, 17-32 bits
# define VL_INW(name, msb,lsb, words)	WData name[words]	///< Declare input signal, 65+ bits
# define VL_INOUT8(name, msb,lsb)	CData name		///< Declare bidir signal, 1-8 bits
# define VL_INOUT16(name, msb,lsb)	SData name		///< Declare bidir signal, 9-16 bits
# define VL_INOUT64(name, msb,lsb)	QData name		///< Declare bidir signal, 33-64 bits
# define VL_INOUT(name, msb,lsb)	IData name		///< Declare bidir signal, 17-32 bits
# define VL_INOUTW(name, msb,lsb, words) WData name[words]	///< Declare bidir signal, 65+ bits
# define VL_OUT8(name, msb,lsb)		CData name		///< Declare output signal, 1-8 bits
# define VL_OUT16(name, msb,lsb)	SData name		///< Declare output signal, 9-16 bits
# define VL_OUT64(name, msb,lsb)	QData name		///< Declare output signal, 33-64bits
# define VL_OUT(name, msb,lsb)		IData name		///< Declare output signal, 17-32 bits
# define VL_OUTW(name, msb,lsb, words)	WData name[words]	///< Declare output signal, 65+ bits

# define VL_PIN_NOP(instname,pin,port)	///< Connect a pin, ala SP_PIN
# define VL_CELL(instname,type)		///< Declare a cell, ala SP_CELL

/// Declare a module, ala SC_MODULE
# define VL_MODULE(modname)		class modname : public VerilatedModule

/// Constructor, ala SC_CTOR
# define VL_CTOR(modname)		modname(const char* __VCname="")

/// Constructor declaration for C++, ala SP_CTOR_IMPL
# define VL_CTOR_IMP(modname)		modname::modname(const char* __VCname) : VerilatedModule(__VCname)

/// Constructor declaration for SystemC, ala SP_CTOR_IMPL
# define VL_SC_CTOR_IMP(modname)	modname::modname(sc_module_name)

#endif

//=========================================================================
// Functions overridable by user defines

#ifndef VL_PRINTF
# define VL_PRINTF printf	///< Print ala printf; may redefine if desired
#endif
#ifndef VL_VPRINTF
# define VL_VPRINTF vprintf	///< Print ala vprintf; may redefine if desired
#endif

//===========================================================================
/// Verilator symbol table base class

class VerilatedSyms {
    // VerilatedSyms base class exists just so symbol tables have a common pointer type
};

//===========================================================================
/// Verilator global static information class

class VerilatedScope {
    // Fastpath:
    VerilatedSyms*	m_symsp;	///< Symbol table
    void**		m_callbacksp;	///< Callback table pointer (Fastpath)
    int			m_funcnumMax;	///< Maxium function number stored (Fastpath)
    // 4 bytes padding (on -m64), for rent.
    VerilatedVarNameMap* m_varsp;	///< Variable map
    const char* 	m_namep;	///< Scope name (Slowpath)

public:  // But internals only - called from VerilatedModule's
    VerilatedScope();
    ~VerilatedScope();
    void configure(VerilatedSyms* symsp, const char* prefixp, const char* suffixp);
    void exportInsert(int finalize, const char* namep, void* cb);
    void varInsert(int finalize, const char* namep, void* datap,
		   VerilatedVarType vltype, int vlflags, int dims, ...);
    // ACCESSORS
    const char* name() const { return m_namep; }
    inline VerilatedSyms* symsp() const { return m_symsp; }
    VerilatedVar* varFind(const char* namep) const;
    VerilatedVarNameMap* varsp() const { return m_varsp; }
    void scopeDump() const;
    void* exportFindError(int funcnum) const;
    static void* exportFindNullError(int funcnum);
    static inline void* exportFind(const VerilatedScope* scopep, int funcnum) {
	if (VL_UNLIKELY(!scopep)) return exportFindNullError(funcnum);
	if (VL_LIKELY(funcnum < scopep->m_funcnumMax)) {
	    // m_callbacksp must be declared, as Max'es are > 0
	    return scopep->m_callbacksp[funcnum];
	} else {
	    return scopep->exportFindError(funcnum);
	}
    }
};

//===========================================================================
/// Verilator global static information class

class Verilated {
    // MEMBERS
    // Slow path variables
    static VerilatedVoidCb  s_flushCb;		///< Flush callback function

    static struct Serialized {   // All these members serialized/deserialized
	// Slow path
	int		s_randReset;		///< Random reset: 0=all 0s, 1=all 1s, 2=random
	// Fast path
	int		s_debug;		///< See accessors... only when VL_DEBUG set
	bool		s_calcUnusedSigs;	///< Waves file on, need all signals calculated
	bool		s_gotFinish;		///< A $finish statement executed
	bool		s_assertOn;		///< Assertions are enabled
        bool		s_fatalOnVpiError;	///< Stop on vpi error/unsupported
	Serialized();
    } s_s;

    static VL_THREAD const VerilatedScope* t_dpiScopep;	///< DPI context scope
    static VL_THREAD const char*	t_dpiFilename;	///< DPI context filename
    static VL_THREAD int		t_dpiLineno;	///< DPI context line number

    // no need to be save-restored (serialized) the
    // assumption is that the restore is allowed to pass different arguments
    static struct CommandArgValues {
	int          argc;
	const char** argv;
    } s_args;

public:

    // METHODS - User called

    /// Select initial value of otherwise uninitialized signals.
    ////
    /// 0 = Set to zeros
    /// 1 = Set all bits to one
    /// 2 = Randomize all bits
    static void randReset(int val) { s_s.s_randReset=val; }
    static int  randReset() { return s_s.s_randReset; }	///< Return randReset value

    /// Enable debug of internal verilated code
    static inline void debug(int level) { s_s.s_debug = level; }
#ifdef VL_DEBUG
    static inline int  debug() { return s_s.s_debug; }	///< Return debug value
#else
    static inline int  debug() { return 0; }		///< Constant 0 debug, so C++'s optimizer rips up
#endif
    /// Enable calculation of unused signals
    static void calcUnusedSigs(bool flag) { s_s.s_calcUnusedSigs=flag; }
    static bool calcUnusedSigs() { return s_s.s_calcUnusedSigs; }	///< Return calcUnusedSigs value
    /// Did the simulation $finish?
    static void gotFinish(bool flag) { s_s.s_gotFinish=flag; }
    static bool gotFinish() { return s_s.s_gotFinish; }	///< Return if got a $finish
    /// Allow traces to at some point be enabled (disables some optimizations)
    static void traceEverOn(bool flag) {
	if (flag) { calcUnusedSigs(flag); }
    }
    /// Enable/disable assertions
    static void assertOn(bool flag) { s_s.s_assertOn=flag; }
    static bool assertOn() { return s_s.s_assertOn; }
    /// Enable/disable vpi fatal
    static void fatalOnVpiError(bool flag) { s_s.s_fatalOnVpiError=flag; }
    static bool fatalOnVpiError() { return s_s.s_fatalOnVpiError; }
    /// Flush callback for VCD waves
    static void flushCb(VerilatedVoidCb cb);
    static void flushCall() { if (s_flushCb) (*s_flushCb)(); }

    /// Record command line arguments, for retrieval by $test$plusargs/$value$plusargs
    static void commandArgs(int argc, const char** argv);
    static void commandArgs(int argc, char** argv) { commandArgs(argc,(const char**)argv); }
    static void commandArgsAdd(int argc, const char** argv);
    static CommandArgValues* getCommandArgs() {return &s_args;}
    /// Match plusargs with a given prefix. Returns static char* valid only for a single call
    static const char* commandArgsPlusMatch(const char* prefixp);

    /// Produce name & version for (at least) VPI
    static const char* productName() { return VERILATOR_PRODUCT; }
    static const char* productVersion() { return VERILATOR_VERSION; }

    /// For debugging, print much of the Verilator internal state.
    /// The output of this function may change in future
    /// releases - contact the authors before production use.
    static void internalsDump();

    /// For debugging, print text list of all scope names with
    /// dpiImport/Export context.  This function may change in future
    /// releases - contact the authors before production use.
    static void scopesDump();

    // METHODS - INTERNAL USE ONLY
    // Internal: Create a new module name by concatenating two strings
    static const char* catName(const char* n1, const char* n2); // Returns new'ed data
    // Internal: Find scope
    static const VerilatedScope* scopeFind(const char* namep);
    static const VerilatedScopeNameMap* scopeNameMap();
    // Internal: Get and set DPI context
    static const VerilatedScope* dpiScope() { return t_dpiScopep; }
    static void dpiScope(const VerilatedScope* scopep) { t_dpiScopep=scopep; }
    static void dpiContext(const VerilatedScope* scopep, const char* filenamep, int lineno) {
	t_dpiScopep=scopep; t_dpiFilename=filenamep; t_dpiLineno=lineno; }
    static void dpiClearContext() { t_dpiScopep = NULL; }
    static bool dpiInContext() { return t_dpiScopep != NULL; }
    static const char* dpiFilenamep() { return t_dpiFilename; }
    static int dpiLineno() { return t_dpiLineno; }
    static int exportFuncNum(const char* namep);
    static size_t serializedSize() { return sizeof(s_s); }
    static void* serializedPtr() { return &s_s; }
};

//=========================================================================
// Extern functions -- User may override -- See verilated.cpp

/// Routine to call for $finish
extern void vl_finish (const char* filename, int linenum, const char* hier);
/// Routine to call for $stop
extern void vl_stop   (const char* filename, int linenum, const char* hier);
/// Routine to call for a couple of fatal messages
extern void vl_fatal  (const char* filename, int linenum, const char* hier,
		       const char* msg);

//=========================================================================
// Extern functions -- Slow path

extern IData  VL_RANDOM_I(int obits);	///< Randomize a signal
extern QData  VL_RANDOM_Q(int obits);	///< Randomize a signal
extern WDataOutP VL_RANDOM_W(int obits, WDataOutP outwp);	///< Randomize a signal

/// Init time only, so slow is fine
extern IData  VL_RAND_RESET_I(int obits);	///< Random reset a signal
extern QData  VL_RAND_RESET_Q(int obits);	///< Random reset a signal
extern WDataOutP VL_RAND_RESET_W(int obits, WDataOutP outwp);	///< Random reset a signal
extern WDataOutP VL_ZERO_RESET_W(int obits, WDataOutP outwp);	///< Zero reset a signal

/// Math
extern WDataOutP _vl_moddiv_w(int lbits, WDataOutP owp, WDataInP lwp, WDataInP rwp, bool is_modulus);

/// File I/O
extern IData VL_FGETS_IXI(int obits, void* destp, IData fpi);

extern IData VL_FOPEN_S(const char* filenamep, const char* mode);
extern IData VL_FOPEN_WI(int fnwords, WDataInP ofilename, IData mode);
extern IData VL_FOPEN_QI(QData ofilename, IData mode);
inline IData VL_FOPEN_II(IData ofilename, IData mode) { return VL_FOPEN_QI(ofilename,mode); }


extern void VL_FCLOSE_I(IData fdi);

extern void VL_READMEM_W(bool hex, int width, int depth, int array_lsb, int fnwords,
			 WDataInP ofilename, void* memp, IData start, IData end);
extern void VL_READMEM_Q(bool hex, int width, int depth, int array_lsb, int fnwords,
			 QData ofilename,    void* memp, IData start, IData end);
inline void VL_READMEM_I(bool hex, int width, int depth, int array_lsb, int fnwords,
			 IData ofilename,    void* memp, IData start, IData end) {
    VL_READMEM_Q(hex, width,depth,array_lsb,fnwords, ofilename,memp,start,end); }

extern void VL_WRITEF(const char* formatp, ...);
extern void VL_FWRITEF(IData fpi, const char* formatp, ...);

extern IData VL_FSCANF_IX(IData fpi, const char* formatp, ...);
extern IData VL_SSCANF_IIX(int lbits, IData ld, const char* formatp, ...);
extern IData VL_SSCANF_IQX(int lbits, QData ld, const char* formatp, ...);
extern IData VL_SSCANF_IWX(int lbits, WDataInP lwp, const char* formatp, ...);

extern void VL_SFORMAT_X(int obits, CData& destr, const char* formatp, ...);
extern void VL_SFORMAT_X(int obits, SData& destr, const char* formatp, ...);
extern void VL_SFORMAT_X(int obits, IData& destr, const char* formatp, ...);
extern void VL_SFORMAT_X(int obits, QData& destr, const char* formatp, ...);
extern void VL_SFORMAT_X(int obits, void* destp, const char* formatp, ...);

extern IData VL_SYSTEM_IW(int lhsnwords, WDataInP lhs);
extern IData VL_SYSTEM_IQ(QData lhs);
inline IData VL_SYSTEM_II(IData lhs) { return VL_SYSTEM_IQ(lhs); }

extern IData VL_TESTPLUSARGS_I(const char* formatp);
extern IData VL_VALUEPLUSARGS_IW(int rbits, const char* prefixp, char fmt, WDataOutP rwp);
extern const char* vl_mc_scan_plusargs(const char* prefixp);  // PLIish

//=========================================================================
// Base macros

/// Return true if data[bit] set
#define VL_BITISSET_I(data,bit) (data & (VL_UL(1)<<VL_BITBIT_I(bit)))
#define VL_BITISSET_Q(data,bit) (data & (VL_ULL(1)<<VL_BITBIT_Q(bit)))
#define VL_BITISSET_W(data,bit) (data[VL_BITWORD_I(bit)] & (VL_UL(1)<<VL_BITBIT_I(bit)))
#define VL_BITISSETLIMIT_W(data,width,bit) (((bit)<(width)) && data[VL_BITWORD_I(bit)] & (VL_UL(1)<<VL_BITBIT_I(bit)))

/// Create two 32-bit words from quadword
#define VL_SET_WQ(owp,data)	{ owp[0]=(IData)(data); owp[1]=(IData)((data)>>VL_WORDSIZE); }
#define VL_SET_WI(owp,data)	{ owp[0]=(IData)(data); owp[1]=0; }
#define VL_SET_QW(lwp)		( ((QData)(lwp[0])) | ((QData)(lwp[1])<<((QData)(VL_WORDSIZE)) ))
#define _VL_SET_QII(ld,rd)      ( ((QData)(ld)<<VL_ULL(32)) | (QData)(rd) )

/// Return FILE* from IData
extern FILE*  VL_CVT_I_FP(IData lhs);

// Use a union to avoid cast-to-different-size warnings
/// Return void* from QData
static inline void*  VL_CVT_Q_VP(QData lhs) { union { void* fp; QData q; } u; u.q=lhs; return u.fp; }
/// Return QData from void*
static inline QData  VL_CVT_VP_Q(void* fp) { union { void* fp; QData q; } u; u.q=0; u.fp=fp; return u.q; }
/// Return double from QData (bits, not numerically)
static inline double VL_CVT_D_Q(QData lhs) { union { double d; QData q; } u; u.q=lhs; return u.d; }
/// Return QData from double (bits, not numerically)
static inline QData  VL_CVT_Q_D(double lhs) { union { double d; QData q; } u; u.d=lhs; return u.q; }
/// Return double from QData (numeric)
static inline double VL_ITOR_D_I(IData lhs) { return ((double)((vlsint32_t)(lhs))); }
/// Return QData from double (numeric)
static inline IData  VL_RTOI_I_D(double lhs) { return ((vlsint32_t)(VL_TRUNC(lhs))); }
/// Return QData from double (numeric)
static inline IData  VL_RTOIROUND_I_D(double lhs) { return ((vlsint32_t)(VL_ROUND(lhs))); }

// Sign extend such that if MSB set, we get ffff_ffff, else 0s
// (Requires clean input)
#define VL_SIGN_I(nbits,lhs)      ((lhs) >> VL_BITBIT_I((nbits) - VL_UL(1)))
#define VL_SIGN_Q(nbits,lhs)      ((lhs) >> VL_BITBIT_Q((nbits) - VL_ULL(1)))
#define VL_SIGNONES_I(nbits,lhs)  (-(VL_SIGN_I(nbits,lhs)))

// Sign bit extended up to MSB, doesn't include unsigned portion
// Optimization bug in GCC 3.3 returns different bitmasks to later states for
static inline IData  VL_EXTENDSIGN_I(int lbits, IData lhs) { return (-((lhs)&(VL_UL(1)<<(lbits-1)))); }
static inline QData  VL_EXTENDSIGN_Q(int lbits, QData lhs) { return (-((lhs)&(VL_ULL(1)<<(lbits-1)))); }

// Debugging prints
void _VL_DEBUG_PRINT_W(int lbits, WDataInP iwp);

//=========================================================================
// Pli macros

#ifndef VL_TIME_PRECISION
# define VL_TIME_PRECISION -12	///< Timescale units only for for VPI return - picoseconds
#endif
#ifndef VL_TIME_MULTIPLIER
# define VL_TIME_MULTIPLIER 1
#endif

/// Return current simulation time
#if defined(SYSTEMC_VERSION) && (SYSTEMC_VERSION>20011000)
# define VL_TIME_I() ((IData)(sc_time_stamp().to_default_time_units()*VL_TIME_MULTIPLIER))
# define VL_TIME_Q() ((QData)(sc_time_stamp().to_default_time_units()*VL_TIME_MULTIPLIER))
# define VL_TIME_D() ((double)(sc_time_stamp().to_default_time_units()*VL_TIME_MULTIPLIER))
#else
# define VL_TIME_I() ((IData)(sc_time_stamp()*VL_TIME_MULTIPLIER))
# define VL_TIME_Q() ((QData)(sc_time_stamp()*VL_TIME_MULTIPLIER))
# define VL_TIME_D() ((double)(sc_time_stamp()*VL_TIME_MULTIPLIER))
extern double sc_time_stamp();
#endif

/// Evaluate expression if debug enabled
#ifdef VL_DEBUG
# define VL_DEBUG_IF(text) {if (VL_UNLIKELY(Verilated::debug())) {text}}
#else
# define VL_DEBUG_IF(text)
#endif

/// Collect coverage analysis for this line
#ifndef SP_AUTO_COVER3
# define SP_AUTO_COVER3(what,file,line)
#endif


//=========================================================================
// Functional macros/routines
// These all take the form
//	VL_func_IW(bits,bits,op,op)
//	VL_func_WW(bits,bits,out,op,op)
// The I/W indicates if it's a integer or wide for the output and each operand.
// The bits indicate the bit width of the output and each operand.
// If wide output, a temporary storage location is specified.

//===================================================================
// SETTING OPERATORS

// Output clean
// EMIT_RULE: VL_CLEAN:  oclean=clean; obits=lbits;
#define VL_CLEAN_II(obits,lbits,lhs) ((lhs) & VL_MASK_I(obits))
#define VL_CLEAN_QQ(obits,lbits,lhs) ((lhs) & VL_MASK_Q(obits))

// EMIT_RULE: VL_ASSIGNCLEAN:  oclean=clean; obits==lbits;
#define VL_ASSIGNCLEAN_W(obits,owp,lwp) VL_CLEAN_WW(obits,obits,owp,lwp)
static inline WDataOutP _VL_CLEAN_INPLACE_W(int obits, WDataOutP owp) {
    int words = VL_WORDS_I(obits);
    owp[words-1] &= VL_MASK_I(obits);
    return(owp);
}
static inline WDataOutP VL_CLEAN_WW(int obits, int, WDataOutP owp, WDataInP lwp){
    int words = VL_WORDS_I(obits);
    for (int i=0; (i < (words-1)); i++) owp[i] = lwp[i];
    owp[words-1] = lwp[words-1] & VL_MASK_I(obits);
    return(owp);
}

// EMIT_RULE: VL_ASSIGN:  oclean=rclean; obits==lbits;
// For now, we always have a clean rhs.
// Note: If a ASSIGN isn't clean, use VL_ASSIGNCLEAN instead to do the same thing.
static inline WDataOutP VL_ASSIGN_W(int obits, WDataOutP owp,WDataInP lwp){
    int words = VL_WORDS_I(obits);
    for (int i=0; i < words; i++) owp[i] = lwp[i];
    return(owp);
}

// EMIT_RULE: VL_ASSIGNBIT:  rclean=clean;
static inline void VL_ASSIGNBIT_II(int, int bit, CData& lhsr, IData rhs) {
    lhsr = ((lhsr & ~(VL_UL(1)<<VL_BITBIT_I(bit)))
	    | (rhs<<VL_BITBIT_I(bit)));
}
static inline void VL_ASSIGNBIT_II(int, int bit, SData& lhsr, IData rhs) {
    lhsr = ((lhsr & ~(VL_UL(1)<<VL_BITBIT_I(bit)))
	    | (rhs<<VL_BITBIT_I(bit)));
}
static inline void VL_ASSIGNBIT_II(int, int bit, IData& lhsr, IData rhs) {
    lhsr = ((lhsr & ~(VL_UL(1)<<VL_BITBIT_I(bit)))
	    | (rhs<<VL_BITBIT_I(bit)));
}
static inline void VL_ASSIGNBIT_QI(int, int bit, QData& lhsr, QData rhs) {
    lhsr = ((lhsr & ~(VL_ULL(1)<<VL_BITBIT_Q(bit)))
	    | (rhs<<VL_BITBIT_Q(bit)));
}
static inline void VL_ASSIGNBIT_WI(int, int bit, WDataOutP owp, IData rhs) {
    IData orig = owp[VL_BITWORD_I(bit)];
    owp[VL_BITWORD_I(bit)] = ((orig & ~(VL_UL(1)<<VL_BITBIT_I(bit)))
			      | (rhs<<VL_BITBIT_I(bit)));
}
// Alternative form that is an instruction faster when rhs is constant one.
static inline void VL_ASSIGNBIT_IO(int, int bit, CData& lhsr, IData) {
    lhsr = (lhsr | (VL_UL(1)<<VL_BITBIT_I(bit)));
}
static inline void VL_ASSIGNBIT_IO(int, int bit, SData& lhsr, IData) {
    lhsr = (lhsr | (VL_UL(1)<<VL_BITBIT_I(bit)));
}
static inline void VL_ASSIGNBIT_IO(int, int bit, IData& lhsr, IData) {
    lhsr = (lhsr | (VL_UL(1)<<VL_BITBIT_I(bit)));
}
static inline void VL_ASSIGNBIT_QO(int, int bit, QData& lhsr, IData) {
    lhsr = (lhsr | (VL_ULL(1)<<VL_BITBIT_Q(bit)));
}
static inline void VL_ASSIGNBIT_WO(int, int bit, WDataOutP owp, IData) {
    IData orig = owp[VL_BITWORD_I(bit)];
    owp[VL_BITWORD_I(bit)] = (orig |  (VL_UL(1)<<VL_BITBIT_I(bit)));
}

//===================================================================
// SYSTEMC OPERATORS
// Copying verilog format to systemc integers and bit vectors.
// Get a SystemC variable

#define VL_ASSIGN_ISI(obits,vvar,svar) { (vvar) = VL_CLEAN_II((obits),(obits),(svar).read()); }
#define VL_ASSIGN_QSQ(obits,vvar,svar) { (vvar) = VL_CLEAN_QQ((obits),(obits),(svar).read()); }

#define VL_ASSIGN_ISW(obits,od,svar) { \
    od = (svar.read().get_word(0)) & VL_MASK_I(obits); \
}
#define VL_ASSIGN_QSW(obits,od,svar) { \
    od = (((QData)svar.read().get_word(1))<<VL_WORDSIZE | svar.read().get_word(0)) \
	& VL_MASK_Q(obits); \
}
#define VL_ASSIGN_WSW(obits,owp,svar) { \
    int words = VL_WORDS_I(obits); \
    for (int i=0; i < words; i++) owp[i] = svar.read().get_word(i); \
    owp[words-1] &= VL_MASK_I(obits); \
}

#define VL_ASSIGN_ISU(obits,vvar,svar) { (vvar) = VL_CLEAN_II((obits),(obits),(svar).read().to_uint()); }
#define VL_ASSIGN_QSU(obits,vvar,svar) { (vvar) = VL_CLEAN_QQ((obits),(obits),(svar).read().to_uint64()); }
#define VL_ASSIGN_WSB(obits,owp,svar) {                       \
    int words = VL_WORDS_I(obits);                            \
    sc_biguint<obits> _butemp = (svar).read();                \
    for (int i=0; i < words; i++) {                           \
        int msb = ((i+1)*VL_WORDSIZE) - 1;                    \
        msb = (msb >= obits) ? (obits-1) : msb;               \
        owp[i] = _butemp.range(msb,i*VL_WORDSIZE).to_uint();  \
    }                                                         \
    owp[words-1] &= VL_MASK_I(obits);                         \
}

// Copying verilog format from systemc integers and bit vectors.
// Set a SystemC variable

#define VL_ASSIGN_SII(obits,svar,vvar) { (svar).write(vvar); }
#define VL_ASSIGN_SQQ(obits,svar,vvar) { (svar).write(vvar); }

#define VL_ASSIGN_SWI(obits,svar,rd) { \
    sc_bv<obits> _bvtemp; \
    _bvtemp.set_word(0,(rd));			\
    svar.write(_bvtemp); \
}
#define VL_ASSIGN_SWQ(obits,svar,rd) { \
    sc_bv<obits> _bvtemp; \
    _bvtemp.set_word(0,(IData)(rd));	 \
    _bvtemp.set_word(1,(IData)((rd)>>VL_WORDSIZE));	\
    svar.write(_bvtemp); \
}
#define VL_ASSIGN_SWW(obits,svar,rwp) { \
    sc_bv<obits> _bvtemp; \
    for (int i=0; i < VL_WORDS_I(obits); i++) _bvtemp.set_word(i,rwp[i]); \
    svar.write(_bvtemp); \
}

#define VL_ASSIGN_SUI(obits,svar,rd) { (svar).write(rd); }
#define VL_ASSIGN_SUQ(obits,svar,rd) { (svar).write(rd); }
#define VL_ASSIGN_SBI(obits,svar,rd) { (svar).write(rd); }
#define VL_ASSIGN_SBQ(obits,svar,rd) { (svar).write(rd); }
#define VL_ASSIGN_SBW(obits,svar,rwp) {             \
    sc_biguint<obits> _butemp;                      \
    for (int i=0; i < VL_WORDS_I(obits); i++) {     \
        int msb = ((i+1)*VL_WORDSIZE) - 1;          \
        msb = (msb >= obits) ? (obits-1) : msb;     \
        _butemp.range(msb,i*VL_WORDSIZE) = rwp[i];  \
    }                                               \
    svar.write(_butemp);                            \
}

//===================================================================
// Extending sizes

// CAREFUL, we're width changing, so obits!=lbits

// Right must be clean because otherwise size increase would pick up bad bits
// EMIT_RULE: VL_EXTEND:  oclean=clean; rclean==clean;
#define VL_EXTEND_II(obits,lbits,lhs) ((lhs))
#define VL_EXTEND_QI(obits,lbits,lhs) ((QData)(lhs))
#define VL_EXTEND_QQ(obits,lbits,lhs) ((lhs))

static inline WDataOutP VL_EXTEND_WI(int obits, int, WDataOutP owp, IData ld) {
    // Note for extracts that obits != lbits
    owp[0] = ld;
    for (int i=1; i < VL_WORDS_I(obits); i++) owp[i] = 0;
    return(owp);
}
static inline WDataOutP VL_EXTEND_WQ(int obits, int, WDataOutP owp, QData ld) {
    VL_SET_WQ(owp,ld);
    for (int i=2; i < VL_WORDS_I(obits); i++) owp[i] = 0;
    return(owp);
}
static inline WDataOutP VL_EXTEND_WW(int obits, int lbits, WDataOutP owp, WDataInP lwp) {
    for (int i=0; i < VL_WORDS_I(lbits); i++) owp[i] = lwp[i];
    for (int i=VL_WORDS_I(lbits); i < VL_WORDS_I(obits); i++) owp[i] = 0;
    return(owp);
}

// EMIT_RULE: VL_EXTENDS:  oclean=*dirty*; obits=lbits;
// Sign extension; output dirty
static inline IData VL_EXTENDS_II(int, int lbits, IData lhs) {
    return VL_EXTENDSIGN_I(lbits,lhs) | lhs;
}
static inline QData VL_EXTENDS_QI(int, int lbits, QData lhs/*Q_as_need_extended*/) {
    return VL_EXTENDSIGN_Q(lbits,lhs) | lhs;
}
static inline QData VL_EXTENDS_QQ(int, int lbits, QData lhs) {
    return VL_EXTENDSIGN_Q(lbits,lhs) | lhs;
}

static inline WDataOutP VL_EXTENDS_WI(int obits, int lbits, WDataOutP owp, IData ld) {
    IData sign = VL_SIGNONES_I(lbits,ld);
    owp[0] = ld | (sign & ~VL_MASK_I(lbits));
    for (int i=1; i < VL_WORDS_I(obits); i++) owp[i] = sign;
    return(owp);
}
static inline WDataOutP VL_EXTENDS_WQ(int obits, int lbits, WDataOutP owp, QData ld) {
    VL_SET_WQ(owp,ld);
    IData sign = VL_SIGNONES_I(lbits,owp[1]);
    owp[1] |= sign & ~VL_MASK_I(lbits);
    for (int i=2; i < VL_WORDS_I(obits); i++) owp[i] = sign;
    return(owp);
}
static inline WDataOutP VL_EXTENDS_WW(int obits, int lbits, WDataOutP owp, WDataInP lwp) {
    for (int i=0; i < VL_WORDS_I(lbits)-1; i++) owp[i] = lwp[i];
    int lmsw=VL_WORDS_I(lbits)-1;
    IData sign = VL_SIGNONES_I(lbits,lwp[lmsw]);
    owp[lmsw] = lwp[lmsw] | (sign & ~VL_MASK_I(lbits));
    for (int i=VL_WORDS_I(lbits); i < VL_WORDS_I(obits); i++) owp[i] = sign;
    return(owp);
}

//===================================================================
// REDUCTION OPERATORS

// EMIT_RULE: VL_REDAND:  oclean=clean; lclean==clean; obits=1;
#define VL_REDAND_II(obits,lbits,lhs) (lhs == VL_MASK_I(lbits))
#define VL_REDAND_IQ(obits,lbits,lhs) (lhs == VL_MASK_Q(lbits))
static inline IData VL_REDAND_IW(int, int lbits, WDataInP lwp) {
    int words = VL_WORDS_I(lbits);
    IData combine=lwp[0];
    for (int i=1; i < words-1; i++) combine &= lwp[i];
    combine &= ~VL_MASK_I(lbits) | lwp[words-1];
    return ((~combine)==0);
}

// EMIT_RULE: VL_REDOR:  oclean=clean; lclean==clean; obits=1;
#define VL_REDOR_I(lhs) (lhs!=0)
#define VL_REDOR_Q(lhs) (lhs!=0)
static inline IData VL_REDOR_W(int words, WDataInP lwp) {
    IData equal=0;
    for (int i=0; i < words; i++) equal |= lwp[i];
    return(equal!=0);
}

// EMIT_RULE: VL_REDXOR:  oclean=dirty; obits=1;
static inline IData VL_REDXOR_2(IData r) {
    // Experiments show VL_REDXOR_2 is faster than __builtin_parityl
    r=(r^(r>>1));
    return r;
}
static inline IData VL_REDXOR_4(IData r) {
#if defined(__GNUC__) && (__GNUC__ >= 4) && !defined(VL_NO_BUILTINS)
    return __builtin_parityl(r);
#else
    r=(r^(r>>1)); r=(r^(r>>2));
    return r;
#endif
}
static inline IData VL_REDXOR_8(IData r) {
#if defined(__GNUC__) && (__GNUC__ >= 4) && !defined(VL_NO_BUILTINS)
    return __builtin_parityl(r);
#else
    r=(r^(r>>1)); r=(r^(r>>2)); r=(r^(r>>4));
    return r;
#endif
}
static inline IData VL_REDXOR_16(IData r) {
#if defined(__GNUC__) && (__GNUC__ >= 4) && !defined(VL_NO_BUILTINS)
    return __builtin_parityl(r);
#else
    r=(r^(r>>1)); r=(r^(r>>2)); r=(r^(r>>4)); r=(r^(r>>8));
    return r;
#endif
}
static inline IData VL_REDXOR_32(IData r) {
#if defined(__GNUC__) && (__GNUC__ >= 4) && !defined(VL_NO_BUILTINS)
    return __builtin_parityl(r);
#else
    r=(r^(r>>1)); r=(r^(r>>2)); r=(r^(r>>4)); r=(r^(r>>8)); r=(r^(r>>16));
    return r;
#endif
}
static inline IData VL_REDXOR_64(QData r) {
#if defined(__GNUC__) && (__GNUC__ >= 4) && !defined(VL_NO_BUILTINS)
    return __builtin_parityll(r);
#else
    r=(r^(r>>1)); r=(r^(r>>2)); r=(r^(r>>4)); r=(r^(r>>8)); r=(r^(r>>16)); r=(r^(r>>32));
    return (IData)r;
#endif
}
static inline IData VL_REDXOR_W(int words, WDataInP lwp) {
    IData r = lwp[0];
    for (int i=1; i < words; i++) r ^= lwp[i];
    return VL_REDXOR_32(r);
}

// EMIT_RULE: VL_COUNTONES_II:  oclean = false; lhs clean
static inline IData VL_COUNTONES_I(IData lhs) {
    // This is faster than __builtin_popcountl
    IData r = lhs - ((lhs >> 1) & 033333333333) - ((lhs >> 2) & 011111111111);
    r = (r + (r>>3)) & 030707070707;
    r = (r + (r>>6));
    r = (r + (r>>12) + (r>>24)) & 077;
    return r;
}
static inline IData VL_COUNTONES_Q(QData lhs) {
    return VL_COUNTONES_I((IData)lhs) + VL_COUNTONES_I((IData)(lhs>>32));
}
static inline IData VL_COUNTONES_W(int words, WDataInP lwp) {
    IData r = 0;
    for (int i=0; (i < words); i++) r+=VL_COUNTONES_I(lwp[i]);
    return r;
}

static inline IData VL_ONEHOT_I(IData lhs) {
    return (((lhs & (lhs-1))==0) & (lhs!=0));
}
static inline IData VL_ONEHOT_Q(QData lhs) {
    return (((lhs & (lhs-1))==0) & (lhs!=0));
}
static inline IData VL_ONEHOT_W(int words, WDataInP lwp) {
    IData one=0;
    for (int i=0; (i < words); i++) {
	if (lwp[i]) {
	    if (one) return 0;
	    one = 1;
	    if (lwp[i] & (lwp[i]-1)) return 0;
	}
    }
    return one;
}

static inline IData VL_ONEHOT0_I(IData lhs) {
    return ((lhs & (lhs-1))==0);
}
static inline IData VL_ONEHOT0_Q(QData lhs) {
    return ((lhs & (lhs-1))==0);
}
static inline IData VL_ONEHOT0_W(int words, WDataInP lwp) {
    bool one=false;
    for (int i=0; (i < words); i++) {
	if (lwp[i]) {
	    if (one) return 0;
	    one = true;
	    if (lwp[i] & (lwp[i]-1)) return 0;
	}
    }
    return 1;
}

static inline IData VL_CLOG2_I(IData lhs) {
    // There are faster algorithms, or fls GCC4 builtins, but rarely used
    if (VL_UNLIKELY(!lhs)) return 0;
    lhs--;
    int shifts=0;
    for (; lhs!=0; shifts++) lhs = lhs >> 1;
    return shifts;
}
static inline IData VL_CLOG2_Q(QData lhs) {
    if (VL_UNLIKELY(!lhs)) return 0;
    lhs--;
    int shifts=0;
    for (; lhs!=0; shifts++) lhs = lhs >> VL_ULL(1);
    return shifts;
}
static inline IData VL_CLOG2_W(int words, WDataInP lwp) {
    IData adjust = (VL_COUNTONES_W(words,lwp)==1) ? 0 : 1;
    for (int i=words-1; i>=0; i--) {
	if (VL_UNLIKELY(lwp[i])) {  // Shorter worst case if predict not taken
	    for (int bit=31; bit>=0; bit--) {
		if (VL_UNLIKELY(VL_BITISSET_I(lwp[i],bit))) {
		    return i*VL_WORDSIZE + bit + adjust;
		}
	    }
	    // Can't get here - one bit must be set
	}
    }
    return 0;
}

static inline IData VL_MOSTSETBITP1_W(int words, WDataInP lwp) {
    // MSB set bit plus one; similar to FLS.  0=value is zero
    for (int i=words-1; i>=0; i--) {
	if (VL_UNLIKELY(lwp[i])) {  // Shorter worst case if predict not taken
	    for (int bit=31; bit>=0; bit--) {
		if (VL_UNLIKELY(VL_BITISSET_I(lwp[i],bit))) {
		    return i*VL_WORDSIZE + bit + 1;
		}
	    }
	    // Can't get here - one bit must be set
	}
    }
    return 0;
}

//===================================================================
// SIMPLE LOGICAL OPERATORS

// EMIT_RULE: VL_AND:  oclean=lclean||rclean; obits=lbits; lbits==rbits;
static inline WDataOutP VL_AND_W(int words, WDataOutP owp,WDataInP lwp,WDataInP rwp){
    for (int i=0; (i < words); i++) owp[i] = (lwp[i] & rwp[i]);
    return(owp);
}
// EMIT_RULE: VL_OR:   oclean=lclean&&rclean; obits=lbits; lbits==rbits;
static inline WDataOutP VL_OR_W(int words, WDataOutP owp,WDataInP lwp,WDataInP rwp){
    for (int i=0; (i < words); i++) owp[i] = (lwp[i] | rwp[i]);
    return(owp);
}
// EMIT_RULE: VL_CHANGEXOR:  oclean=1; obits=32; lbits==rbits;
static inline IData VL_CHANGEXOR_W(int words, WDataInP lwp,WDataInP rwp){
    IData od = 0;
    for (int i=0; (i < words); i++) od |= (lwp[i] ^ rwp[i]);
    return(od);
}
// EMIT_RULE: VL_XOR:  oclean=lclean&&rclean; obits=lbits; lbits==rbits;
static inline WDataOutP VL_XOR_W(int words, WDataOutP owp,WDataInP lwp,WDataInP rwp){
    for (int i=0; (i < words); i++) owp[i] = (lwp[i] ^ rwp[i]);
    return(owp);
}
// EMIT_RULE: VL_XNOR:  oclean=dirty; obits=lbits; lbits==rbits;
static inline WDataOutP VL_XNOR_W(int words, WDataOutP owp,WDataInP lwp,WDataInP rwp){
    for (int i=0; (i < words); i++) owp[i] = (lwp[i] ^ ~rwp[i]);
    return(owp);
}
// EMIT_RULE: VL_NOT:  oclean=dirty; obits=lbits;
static inline WDataOutP VL_NOT_W(int words, WDataOutP owp,WDataInP lwp) {
    for (int i=0; i < words; i++) owp[i] = ~(lwp[i]);
    return(owp);
}

//=========================================================================
// Logical comparisons

// EMIT_RULE: VL_EQ:  oclean=clean; lclean==clean; rclean==clean; obits=1; lbits==rbits;
// EMIT_RULE: VL_NEQ: oclean=clean; lclean==clean; rclean==clean; obits=1; lbits==rbits;
// EMIT_RULE: VL_LT:  oclean=clean; lclean==clean; rclean==clean; obits=1; lbits==rbits;
// EMIT_RULE: VL_GT:  oclean=clean; lclean==clean; rclean==clean; obits=1; lbits==rbits;
// EMIT_RULE: VL_GTE: oclean=clean; lclean==clean; rclean==clean; obits=1; lbits==rbits;
// EMIT_RULE: VL_LTE: oclean=clean; lclean==clean; rclean==clean; obits=1; lbits==rbits;
#define VL_NEQ_W(words,lwp,rwp)		(!VL_EQ_W(words,lwp,rwp))
#define VL_LT_W(words,lwp,rwp)		(_VL_CMP_W(words,lwp,rwp)<0)
#define VL_LTE_W(words,lwp,rwp)		(_VL_CMP_W(words,lwp,rwp)<=0)
#define VL_GT_W(words,lwp,rwp)		(_VL_CMP_W(words,lwp,rwp)>0)
#define VL_GTE_W(words,lwp,rwp)		(_VL_CMP_W(words,lwp,rwp)>=0)

// Output clean, <lhs> AND <rhs> MUST BE CLEAN
static inline IData VL_EQ_W(int words, WDataInP lwp, WDataInP rwp) {
    int nequal=0;
    for (int i=0; (i < words); i++) nequal |= (lwp[i] ^ rwp[i]);
    return(nequal==0);
}

// Internal usage
static inline int _VL_CMP_W(int words, WDataInP lwp, WDataInP rwp) {
    for (int i=words-1; i>=0; --i) {
	if (lwp[i] > rwp[i]) return 1;
	if (lwp[i] < rwp[i]) return -1;
    }
    return(0); // ==
}

#define VL_LTS_IWW(obits,lbits,rbbits,lwp,rwp)		(_VL_CMPS_W(lbits,lwp,rwp)<0)
#define VL_LTES_IWW(obits,lbits,rbits,lwp,rwp)		(_VL_CMPS_W(lbits,lwp,rwp)<=0)
#define VL_GTS_IWW(obits,lbits,rbits,lwp,rwp)		(_VL_CMPS_W(lbits,lwp,rwp)>0)
#define VL_GTES_IWW(obits,lbits,rbits,lwp,rwp)		(_VL_CMPS_W(lbits,lwp,rwp)>=0)

static inline IData VL_GTS_III(int, int lbits, int, IData lhs, IData rhs) {
    // For lbits==32, this becomes just a single instruction, otherwise ~5.
    // GCC 3.3.4 sign extension bugs on AMD64 architecture force us to use quad logic
    vlsint64_t lhs_signed = VL_EXTENDS_QQ(64, lbits, lhs); //Q for gcc
    vlsint64_t rhs_signed = VL_EXTENDS_QQ(64, lbits, rhs); //Q for gcc
    return lhs_signed > rhs_signed;
}
static inline IData VL_GTS_IQQ(int, int lbits, int, QData lhs, QData rhs) {
    vlsint64_t lhs_signed = VL_EXTENDS_QQ(64, lbits, lhs);
    vlsint64_t rhs_signed = VL_EXTENDS_QQ(64, lbits, rhs);
    return lhs_signed > rhs_signed;
}

static inline IData VL_GTES_III(int, int lbits, int, IData lhs, IData rhs) {
    vlsint64_t lhs_signed = VL_EXTENDS_QQ(64, lbits, lhs); //Q for gcc
    vlsint64_t rhs_signed = VL_EXTENDS_QQ(64, lbits, rhs); //Q for gcc
    return lhs_signed >= rhs_signed;
}
static inline IData VL_GTES_IQQ(int, int lbits, int, QData lhs, QData rhs) {
    vlsint64_t lhs_signed = VL_EXTENDS_QQ(64, lbits, lhs);
    vlsint64_t rhs_signed = VL_EXTENDS_QQ(64, lbits, rhs);
    return lhs_signed >= rhs_signed;
}

static inline IData VL_LTS_III(int, int lbits, int, IData lhs, IData rhs) {
    vlsint64_t lhs_signed = VL_EXTENDS_QQ(64, lbits, lhs); //Q for gcc
    vlsint64_t rhs_signed = VL_EXTENDS_QQ(64, lbits, rhs); //Q for gcc
    return lhs_signed < rhs_signed;
}
static inline IData VL_LTS_IQQ(int, int lbits, int, QData lhs, QData rhs) {
    vlsint64_t lhs_signed = VL_EXTENDS_QQ(64, lbits, lhs);
    vlsint64_t rhs_signed = VL_EXTENDS_QQ(64, lbits, rhs);
    return lhs_signed < rhs_signed;
}

static inline IData VL_LTES_III(int, int lbits, int, IData lhs, IData rhs) {
    vlsint64_t lhs_signed = VL_EXTENDS_QQ(64, lbits, lhs); //Q for gcc
    vlsint64_t rhs_signed = VL_EXTENDS_QQ(64, lbits, rhs); //Q for gcc
    return lhs_signed <= rhs_signed;
}
static inline IData VL_LTES_IQQ(int, int lbits, int, QData lhs, QData rhs) {
    vlsint64_t lhs_signed = VL_EXTENDS_QQ(64, lbits, lhs);
    vlsint64_t rhs_signed = VL_EXTENDS_QQ(64, lbits, rhs);
    return lhs_signed <= rhs_signed;
}

static inline int _VL_CMPS_W(int lbits, WDataInP lwp, WDataInP rwp) {
    int words = VL_WORDS_I(lbits);
    int i=words-1;
    // We need to flip sense if negative comparison
    IData lsign = VL_SIGN_I(lbits,lwp[i]);
    IData rsign = VL_SIGN_I(lbits,rwp[i]);
    if (!lsign && rsign) return  1; // + > -
    if (lsign && !rsign) return -1; // - < +
    for (; i>=0; --i) {
	if (lwp[i] > rwp[i]) return 1;
	if (lwp[i] < rwp[i]) return -1;
    }
    return(0); // ==
}

//=========================================================================
// Math

// EMIT_RULE: VL_MUL:    oclean=dirty; lclean==clean; rclean==clean;
// EMIT_RULE: VL_DIV:    oclean=dirty; lclean==clean; rclean==clean;
// EMIT_RULE: VL_MODDIV: oclean=dirty; lclean==clean; rclean==clean;
#define VL_DIV_III(lbits,lhs,rhs)	(((rhs)==0)?0:(lhs)/(rhs))
#define VL_DIV_QQQ(lbits,lhs,rhs)	(((rhs)==0)?0:(lhs)/(rhs))
#define VL_DIV_WWW(lbits,owp,lwp,rwp)   (_vl_moddiv_w(lbits,owp,lwp,rwp,0))
#define VL_MODDIV_III(lbits,lhs,rhs)	(((rhs)==0)?0:(lhs)%(rhs))
#define VL_MODDIV_QQQ(lbits,lhs,rhs)	(((rhs)==0)?0:(lhs)%(rhs))
#define VL_MODDIV_WWW(lbits,owp,lwp,rwp) (_vl_moddiv_w(lbits,owp,lwp,rwp,1))

static inline WDataOutP VL_ADD_W(int words, WDataOutP owp,WDataInP lwp,WDataInP rwp){
    QData carry = 0;
    for (int i=0; i<words; i++) {
	carry = carry + (QData)(lwp[i]) + (QData)(rwp[i]);
	owp[i] = (carry & VL_ULL(0xffffffff));
	carry = (carry >> VL_ULL(32)) & VL_ULL(0xffffffff);
    }
    return(owp);
}

static inline WDataOutP VL_SUB_W(int words, WDataOutP owp,WDataInP lwp,WDataInP rwp){
    QData carry = 0;
    for (int i=0; i<words; i++) {
	carry = carry + (QData)(lwp[i]) + (QData)(IData)(~rwp[i]);
	if (i==0) carry++;  // Negation of temp2
	owp[i] = (carry & VL_ULL(0xffffffff));
	carry = (carry >> VL_ULL(32)) & VL_ULL(0xffffffff);
    }
    return(owp);
}

// Optimization bug in GCC 2.96 and presumably all-pre GCC 3 versions need this workaround,
// we can't just
//# define VL_NEGATE_I(data) (-(data))
static inline IData  VL_NEGATE_I(IData data) { return -data; }
static inline QData  VL_NEGATE_Q(QData data) { return -data; }

static inline WDataOutP VL_NEGATE_W(int words, WDataOutP owp,WDataInP lwp){
    QData carry = 0;
    for (int i=0; i<words; i++) {
	carry = carry + (QData)(IData)(~lwp[i]);
	if (i==0) carry++;  // Negation of temp2
	owp[i] = (carry & VL_ULL(0xffffffff));
	carry = (carry >> VL_ULL(32)) & VL_ULL(0xffffffff);
    }
    return(owp);
}

static inline WDataOutP VL_MUL_W(int words, WDataOutP owp,WDataInP lwp,WDataInP rwp){
    for (int i=0; i<words; i++) owp[i] = 0;
    for (int lword=0; lword<words; lword++) {
	for (int rword=0; rword<words; rword++) {
	    QData mul = (QData)(lwp[lword]) * (QData)(rwp[rword]);
	    for (int qword=lword+rword; qword<words; qword++) {
		mul += (QData)(owp[qword]);
		owp[qword] = (mul & VL_ULL(0xffffffff));
		mul = (mul >> VL_ULL(32)) & VL_ULL(0xffffffff);
	    }
	}
    }
    // Last output word is dirty
    return(owp);
}

static inline IData VL_MULS_III(int,int lbits,int, IData lhs,IData rhs) {
    vlsint32_t lhs_signed = VL_EXTENDS_II(32, lbits, lhs);
    vlsint32_t rhs_signed = VL_EXTENDS_II(32, lbits, rhs);
    return lhs_signed * rhs_signed;
}
static inline QData VL_MULS_QQQ(int,int lbits,int, QData lhs,QData rhs) {
    vlsint64_t lhs_signed = VL_EXTENDS_QQ(64, lbits, lhs);
    vlsint64_t rhs_signed = VL_EXTENDS_QQ(64, lbits, rhs);
    return lhs_signed * rhs_signed;
}

static inline WDataOutP VL_MULS_WWW(int,int lbits,int, WDataOutP owp,WDataInP lwp,WDataInP rwp){
    int words = VL_WORDS_I(lbits);
    IData lwstore[VL_MULS_MAX_WORDS]; // Fixed size, as MSVC++ doesn't allow [words] here
    IData rwstore[VL_MULS_MAX_WORDS];
    WDataInP lwusp = lwp;
    WDataInP rwusp = rwp;
    IData lneg = VL_SIGN_I(lbits,lwp[words-1]);
    if (lneg) { // Negate lhs
	lwusp = lwstore;
	VL_NEGATE_W(words, lwstore, lwp);
	lwstore[words-1] &= VL_MASK_I(lbits);  // Clean it
    }
    IData rneg = VL_SIGN_I(lbits,rwp[words-1]);
    if (rneg) { // Negate rhs
	rwusp = rwstore;
	VL_NEGATE_W(words, rwstore, rwp);
	rwstore[words-1] &= VL_MASK_I(lbits);  // Clean it
    }
    VL_MUL_W(words,owp,lwusp,rwusp);
    owp[words-1] &= VL_MASK_I(lbits);  // Clean.  Note it's ok for the multiply to overflow into the sign bit
    if ((lneg ^ rneg) & 1) {      // Negate output  (not using NEGATE, as owp==lwp)
	QData carry = 0;
	for (int i=0; i<words; i++) {
	    carry = carry + (QData)(IData)(~owp[i]);
	    if (i==0) carry++;  // Negation of temp2
	    owp[i] = (carry & VL_ULL(0xffffffff));
	    carry = (carry >> VL_ULL(32)) & VL_ULL(0xffffffff);
	}
	//Not needed: owp[words-1] |= 1<<VL_BITBIT_I(lbits-1);  // Set sign bit
    }
    // Last output word is dirty
    return(owp);
}

static inline IData VL_DIVS_III(int lbits, IData lhs,IData rhs) {
    if (VL_UNLIKELY(rhs==0)) return 0;
    vlsint32_t lhs_signed = VL_EXTENDS_II(32, lbits, lhs);
    vlsint32_t rhs_signed = VL_EXTENDS_II(32, lbits, rhs);
    return lhs_signed / rhs_signed;
}
static inline QData VL_DIVS_QQQ(int lbits, QData lhs,QData rhs) {
    if (VL_UNLIKELY(rhs==0)) return 0;
    vlsint64_t lhs_signed = VL_EXTENDS_QQ(64, lbits, lhs);
    vlsint64_t rhs_signed = VL_EXTENDS_QQ(64, lbits, rhs);
    return lhs_signed / rhs_signed;
}
static inline IData VL_MODDIVS_III(int lbits, IData lhs,IData rhs) {
    if (VL_UNLIKELY(rhs==0)) return 0;
    vlsint32_t lhs_signed = VL_EXTENDS_II(32, lbits, lhs);
    vlsint32_t rhs_signed = VL_EXTENDS_II(32, lbits, rhs);
    return lhs_signed % rhs_signed;
}
static inline QData VL_MODDIVS_QQQ(int lbits, QData lhs,QData rhs) {
    if (VL_UNLIKELY(rhs==0)) return 0;
    vlsint64_t lhs_signed = VL_EXTENDS_QQ(64, lbits, lhs);
    vlsint64_t rhs_signed = VL_EXTENDS_QQ(64, lbits, rhs);
    return lhs_signed % rhs_signed;
}

static inline WDataOutP VL_DIVS_WWW(int lbits, WDataOutP owp,WDataInP lwp,WDataInP rwp) {
    int words = VL_WORDS_I(lbits);
    IData lsign = VL_SIGN_I(lbits,lwp[words-1]);
    IData rsign = VL_SIGN_I(lbits,rwp[words-1]);
    // cppcheck-suppress variableScope
    IData lwstore[VL_MULS_MAX_WORDS]; // Fixed size, as MSVC++ doesn't allow [words] here
    // cppcheck-suppress variableScope
    IData rwstore[VL_MULS_MAX_WORDS];
    WDataInP ltup = lwp;
    WDataInP rtup = rwp;
    if (lsign) { ltup = _VL_CLEAN_INPLACE_W(lbits, VL_NEGATE_W(VL_WORDS_I(lbits), lwstore, lwp)); }
    if (rsign) { rtup = _VL_CLEAN_INPLACE_W(lbits, VL_NEGATE_W(VL_WORDS_I(lbits), rwstore, rwp)); }
    if ((lsign && !rsign) || (!lsign && rsign)) {
	IData qNoSign[VL_MULS_MAX_WORDS];
	VL_DIV_WWW(lbits,qNoSign,ltup,rtup);
	_VL_CLEAN_INPLACE_W(lbits, VL_NEGATE_W(VL_WORDS_I(lbits), owp, qNoSign));
	return owp;
    } else {
	return VL_DIV_WWW(lbits,owp,ltup,rtup);
    }
}
static inline WDataOutP VL_MODDIVS_WWW(int lbits, WDataOutP owp,WDataInP lwp,WDataInP rwp) {
    int words = VL_WORDS_I(lbits);
    IData lsign = VL_SIGN_I(lbits,lwp[words-1]);
    IData rsign = VL_SIGN_I(lbits,rwp[words-1]);
    // cppcheck-suppress variableScope
    IData lwstore[VL_MULS_MAX_WORDS]; // Fixed size, as MSVC++ doesn't allow [words] here
    // cppcheck-suppress variableScope
    IData rwstore[VL_MULS_MAX_WORDS];
    WDataInP ltup = lwp;
    WDataInP rtup = rwp;
    if (lsign) { ltup = _VL_CLEAN_INPLACE_W(lbits, VL_NEGATE_W(VL_WORDS_I(lbits), lwstore, lwp)); }
    if (rsign) { rtup = _VL_CLEAN_INPLACE_W(lbits, VL_NEGATE_W(VL_WORDS_I(lbits), rwstore, rwp)); }
    if (lsign) {  // Only dividend sign matters for modulus
	IData qNoSign[VL_MULS_MAX_WORDS];
	VL_MODDIV_WWW(lbits,qNoSign,ltup,rtup);
	_VL_CLEAN_INPLACE_W(lbits, VL_NEGATE_W(VL_WORDS_I(lbits), owp, qNoSign));
	return owp;
    } else {
	return VL_MODDIV_WWW(lbits,owp,ltup,rtup);
    }
}

#define VL_POW_QQI(obits,lbits,rbits,lhs,rhs) VL_POW_QQQ(obits,lbits,rbits,lhs,rhs)

static inline IData VL_POW_III(int, int, int rbits, IData lhs, IData rhs) {
    if (VL_UNLIKELY(rhs==0)) return 1;
    if (VL_UNLIKELY(lhs==0)) return 0;
    IData power = lhs;
    IData out = 1;
    for (int i=0; i<rbits; i++) {
	if (i>0) power = power*power;
	if (rhs & (VL_ULL(1)<<i)) out *= power;
    }
    return out;
}
static inline QData VL_POW_QQQ(int, int, int rbits, QData lhs, QData rhs) {
    if (VL_UNLIKELY(rhs==0)) return 1;
    if (VL_UNLIKELY(lhs==0)) return 0;
    QData power = lhs;
    QData out = VL_ULL(1);
    for (int i=0; i<rbits; i++) {
	if (i>0) power = power*power;
	if (rhs & (VL_ULL(1)<<i)) out *= power;
    }
    return out;
}

#define VL_POWSS_QQI(obits,lbits,rbits,lhs,rhs,lsign,rsign) VL_POWSS_QQQ(obits,lbits,rbits,lhs,rhs,lsign,rsign)

static inline IData VL_POWSS_III(int obits, int, int rbits, IData lhs, IData rhs, bool lsign, bool rsign) {
    if (VL_UNLIKELY(rhs==0)) return 1;
    if (rsign && VL_SIGN_I(rbits, rhs)) {
	if (lhs==0) return 0;	// "X"
	else if (lhs==1) return 1;
	else if (lsign && lhs==VL_MASK_I(obits)) {  //-1
	    if (rhs & 1) return VL_MASK_I(obits);  // -1^odd=-1
	    else return 1; // -1^even=1
	}
	return 0;
    }
    return VL_POW_III(obits, obits, rbits, lhs, rhs);
}

static inline QData VL_POWSS_QQQ(int obits, int, int rbits, QData lhs, QData rhs, bool lsign, bool rsign) {
    if (VL_UNLIKELY(rhs==0)) return 1;
    if (rsign && VL_SIGN_I(rbits, rhs)) {
	if (lhs==0) return 0;	// "X"
	else if (lhs==1) return 1;
	else if (lsign && lhs==VL_MASK_I(obits)) {  //-1
	    if (rhs & 1) return VL_MASK_I(obits);  // -1^odd=-1
	    else return 1; // -1^even=1
	}
	return 0;
    }
    return VL_POW_QQQ(obits, obits, rbits, lhs, rhs);
}

//===================================================================
// Concat/replication

// INTERNAL: Stuff LHS bit 0++ into OUTPUT at specified offset
// ld may be "dirty", output is clean
static inline void _VL_INSERT_II(int, CData& lhsr, IData ld, int hbit, int lbit) {
    IData insmask = (VL_MASK_I(hbit-lbit+1))<<lbit;
    lhsr = (lhsr & ~insmask) | ((ld<<lbit) & insmask);
}
static inline void _VL_INSERT_II(int, SData& lhsr, IData ld, int hbit, int lbit) {
    IData insmask = (VL_MASK_I(hbit-lbit+1))<<lbit;
    lhsr = (lhsr & ~insmask) | ((ld<<lbit) & insmask);
}
static inline void _VL_INSERT_II(int, IData& lhsr, IData ld, int hbit, int lbit) {
    IData insmask = (VL_MASK_I(hbit-lbit+1))<<lbit;
    lhsr = (lhsr & ~insmask) | ((ld<<lbit) & insmask);
}
static inline void _VL_INSERT_QQ(int, QData& lhsr, QData ld, int hbit, int lbit) {
    QData insmask = (VL_MASK_Q(hbit-lbit+1))<<lbit;
    lhsr = (lhsr & ~insmask) | ((ld<<lbit) & insmask);
}
static inline void _VL_INSERT_WI(int, WDataOutP owp, IData ld, int hbit, int lbit) {
    int hoffset = VL_BITBIT_I(hbit);
    int loffset = VL_BITBIT_I(lbit);
    if (hoffset==VL_SIZEBITS_I && loffset==0) {
	// Fast and common case, word based insertion
	owp[VL_BITWORD_I(lbit)] = ld;
    }
    else {
	int hword = VL_BITWORD_I(hbit);
	int lword = VL_BITWORD_I(lbit);
	if (hword==lword) {	// know < 32 bits because above checks it
	    IData insmask = (VL_MASK_I(hoffset-loffset+1))<<loffset;
	    owp[lword] = (owp[lword] & ~insmask) | ((ld<<loffset) & insmask);
	} else {
	    IData hinsmask = (VL_MASK_I(hoffset-0+1))<<0;
	    IData linsmask = (VL_MASK_I(31-loffset+1))<<loffset;
	    int nbitsonright = 32-loffset;  // bits that end up in lword
	    owp[lword] = (owp[lword] & ~linsmask) | ((ld<<loffset) & linsmask);
	    owp[hword] = (owp[hword] & ~hinsmask) | ((ld>>nbitsonright) & hinsmask);
	}
    }
}

// INTERNAL: Stuff large LHS bit 0++ into OUTPUT at specified offset
// lwp may be "dirty"
static inline void _VL_INSERT_WW(int, WDataOutP owp, WDataInP lwp, int hbit, int lbit) {
    int hoffset = hbit & VL_SIZEBITS_I;
    int loffset = lbit & VL_SIZEBITS_I;
    int lword = VL_BITWORD_I(lbit);
    int words = VL_WORDS_I(hbit-lbit+1);
    if (hoffset==VL_SIZEBITS_I && loffset==0) {
	// Fast and common case, word based insertion
	for (int i=0; i<words; i++) {
	    owp[lword+i] = lwp[i];
	}
    }
    else if (loffset==0) {
	// Non-32bit, but nicely aligned, so stuff all but the last word
	for (int i=0; i<(words-1); i++) {
	    owp[lword+i] = lwp[i];
	}
	IData hinsmask = (VL_MASK_I(hoffset-0+1)); // Know it's not a full word as above fast case handled it
	owp[lword+words-1] = (owp[words+lword-1] & ~hinsmask) | (lwp[words-1] & hinsmask);
    }
    else {
	IData hinsmask = (VL_MASK_I(hoffset-0+1))<<0;
	IData linsmask = (VL_MASK_I(31-loffset+1))<<loffset;
	int nbitsonright = 32-loffset;  // bits that end up in lword (know loffset!=0)
	// Middle words
	int hword = VL_BITWORD_I(hbit);
	for (int i=0; i<words; i++) {
	    {	// Lower word
		int oword = lword+i;
		IData d = lwp[i]<<loffset;
		IData od = (owp[oword] & ~linsmask) | (d & linsmask);
		if (oword==hword) owp[oword] = (owp[oword] & ~hinsmask) | (od & hinsmask);
		else owp[oword] = od;
	    }
	    {   // Upper word
		int oword = lword+i+1;
		if (oword <= hword) {
		    IData d = lwp[i]>>nbitsonright;
		    IData od = (d & ~linsmask) | (owp[oword] & linsmask);
		    if (oword==hword) owp[oword] = (owp[oword] & ~hinsmask) | (od & hinsmask);
		    else owp[oword] = od;
		}
	    }
	}
    }
}

static inline void _VL_INSERT_WQ(int obits, WDataOutP owp, QData ld, int hbit, int lbit) {
    WData lwp[2]; VL_SET_WQ(lwp,ld);
    _VL_INSERT_WW(obits,owp,lwp,hbit,lbit);
}

// EMIT_RULE: VL_REPLICATE:  oclean=clean>width32, dirty<=width32; lclean=clean; rclean==clean;
// RHS MUST BE CLEAN CONSTANT.
#define VL_REPLICATE_IOI(obits,lbits,rbits, ld, rep) (-(ld))  // Iff lbits==1
#define VL_REPLICATE_QOI(obits,lbits,rbits, ld, rep) (-((QData)ld))  // Iff lbits==1

static inline IData VL_REPLICATE_III(int, int lbits, int, IData ld, IData rep) {
    IData returndata = ld;
    for (unsigned i=1; i < rep; i++){
	returndata = returndata << lbits;
	returndata |= ld;
    }
    return (returndata);
}
static inline QData VL_REPLICATE_QII(int, int lbits, int, IData ld, IData rep) {
    QData returndata = ld;
    for (unsigned i=1; i < rep; i++){
	returndata = returndata << lbits;
	returndata |= (QData)ld;
    }
    return (returndata);
}
static inline WDataOutP VL_REPLICATE_WII(int obits, int lbits, int, WDataOutP owp, IData ld, IData rep) {
    owp[0] = ld;
    for (unsigned i=1; i < rep; i++){
	_VL_INSERT_WI(obits,owp,ld,i*lbits+lbits-1,i*lbits);
    }
    return(owp);
}
static inline WDataOutP VL_REPLICATE_WQI(int obits, int lbits, int, WDataOutP owp, QData ld, IData rep) {
    VL_SET_WQ(owp,ld);
    for (unsigned i=1; i < rep; i++){
	_VL_INSERT_WQ(obits,owp,ld,i*lbits+lbits-1,i*lbits);
    }
    return(owp);
}
static inline WDataOutP VL_REPLICATE_WWI(int obits, int lbits, int, WDataOutP owp, WDataInP lwp, IData rep) {
    for (int i=0; i < VL_WORDS_I(lbits); i++) owp[i] = lwp[i];
    for (unsigned i=1; i < rep; i++){
	_VL_INSERT_WW(obits,owp,lwp,i*lbits+lbits-1,i*lbits);
    }
    return(owp);
}

// Left stream operator. Output will always be clean. LHS and RHS must be clean.
// Special "fast" versions for slice sizes that are a power of 2. These use
// shifts and masks to execute faster than the slower for-loop approach where a
// subset of bits is copied in during each iteration.
static inline IData VL_STREAML_FAST_III(int, int lbits, int, IData ld, IData rd_log2) {
    // Pre-shift bits in most-significant slice:
    //
    // If lbits is not a multiple of the slice size (i.e., lbits % rd != 0),
    // then we end up with a "gap" in our reversed result. For example, if we
    // have a 5-bit Verlilog signal (lbits=5) in an 8-bit C data type:
    //
    //   ld = ---43210
    //
    // (where numbers are the Verilog signal bit numbers and '-' is an unused bit).
    // Executing the switch statement below with a slice size of two (rd=2,
    // rd_log2=1) produces:
    //
    //   ret = 1032-400
    //
    // Pre-shifting the bits in the most-significant slice allows us to avoid
    // this gap in the shuffled data:
    //
    //   ld_adjusted = --4-3210
    //   ret = 10324---
    IData ret = ld;
    if (rd_log2) {
	vluint32_t lbitsFloor = lbits & ~VL_MASK_I(rd_log2); // max multiple of rd <= lbits
	vluint32_t lbitsRem = lbits - lbitsFloor; // number of bits in most-sig slice (MSS)
	IData msbMask = VL_MASK_I(lbitsRem) << lbitsFloor; // mask to sel only bits in MSS
	ret = (ret & ~msbMask) | ((ret & msbMask) << ((VL_UL(1) << rd_log2) - lbitsRem));
    }
    switch (rd_log2) {
	case 0:
	    ret = ((ret >> 1) & VL_UL(0x55555555)) | ((ret & VL_UL(0x55555555)) << 1);    // FALLTHRU
	case 1:
	    ret = ((ret >> 2) & VL_UL(0x33333333)) | ((ret & VL_UL(0x33333333)) << 2);    // FALLTHRU
	case 2:
	    ret = ((ret >> 4) & VL_UL(0x0f0f0f0f)) | ((ret & VL_UL(0x0f0f0f0f)) << 4);    // FALLTHRU
	case 3:
	    ret = ((ret >> 8) & VL_UL(0x00ff00ff)) | ((ret & VL_UL(0x00ff00ff)) << 8);    // FALLTHRU
	case 4:
	    ret = ((ret >> 16) | (ret << 16));
    }
    return ret >> (VL_WORDSIZE - lbits);
}

static inline QData VL_STREAML_FAST_QQI(int, int lbits, int, QData ld, IData rd_log2) {
    // Pre-shift bits in most-significant slice (see comment in VL_STREAML_FAST_III)
    QData ret = ld;
    if (rd_log2) {
        vluint32_t lbitsFloor = lbits & ~VL_MASK_I(rd_log2);
        vluint32_t lbitsRem = lbits - lbitsFloor;
        QData msbMask = VL_MASK_Q(lbitsRem) << lbitsFloor;
        ret = (ret & ~msbMask) | ((ret & msbMask) << ((VL_ULL(1) << rd_log2) - lbitsRem));
    }
    switch (rd_log2) {
	case 0:
	    ret = ((ret >>  1) & VL_ULL(0x5555555555555555)) | ((ret & VL_ULL(0x5555555555555555)) <<  1);    // FALLTHRU
	case 1:
	    ret = ((ret >>  2) & VL_ULL(0x3333333333333333)) | ((ret & VL_ULL(0x3333333333333333)) <<  2);    // FALLTHRU
	case 2:
	    ret = ((ret >>  4) & VL_ULL(0x0f0f0f0f0f0f0f0f)) | ((ret & VL_ULL(0x0f0f0f0f0f0f0f0f)) <<  4);    // FALLTHRU
	case 3:
	    ret = ((ret >>  8) & VL_ULL(0x00ff00ff00ff00ff)) | ((ret & VL_ULL(0x00ff00ff00ff00ff)) <<  8);    // FALLTHRU
	case 4:
	    ret = ((ret >> 16) & VL_ULL(0x0000ffff0000ffff)) | ((ret & VL_ULL(0x0000ffff0000ffff)) << 16);    // FALLTHRU
	case 5:
	    ret = ((ret >> 32) | (ret << 32));
    }
    return ret >> (VL_QUADSIZE - lbits);
}

// Regular "slow" streaming operators
static inline IData VL_STREAML_III(int, int lbits, int, IData ld, IData rd) {
    IData ret = 0;
    // Slice size should never exceed the lhs width
    IData mask = VL_MASK_I(rd);
    for (int istart=0; istart<lbits; istart+=rd) {
	int ostart=lbits-rd-istart;
        ostart = ostart > 0 ? ostart : 0;
        ret |= ((ld >> istart) & mask) << ostart;
    }
    return ret;
}

static inline QData VL_STREAML_QQI(int, int lbits, int, QData ld, IData rd) {
    QData ret = 0;
    // Slice size should never exceed the lhs width
    QData mask = VL_MASK_Q(rd);
    for (int istart=0; istart<lbits; istart+=rd) {
	int ostart=lbits-rd-istart;
        ostart = ostart > 0 ? ostart : 0;
        ret |= ((ld >> istart) & mask) << ostart;
    }
    return ret;
}

static inline WDataOutP VL_STREAML_WWI(int, int lbits, int, WDataOutP owp, WDataInP lwp, IData rd) {
    VL_ZERO_RESET_W(lbits, owp);
    // Slice size should never exceed the lhs width
    int ssize = (rd < (IData)lbits) ? rd : ((IData)lbits);
    for (int istart=0; istart<lbits; istart+=rd) {
	int ostart=lbits-rd-istart;
        ostart = ostart > 0 ? ostart : 0;
	for (int sbit=0; sbit<ssize && sbit<lbits-istart; sbit++) {
            // Extract a single bit from lwp and shift it to the correct
            // location for owp.
            WData bit= ((lwp[VL_BITWORD_I(istart+sbit)] >> VL_BITBIT_I(istart+sbit)) & 1) << VL_BITBIT_I(ostart+sbit);
            owp[VL_BITWORD_I(ostart+sbit)] |= bit;
	}
    }
    return owp;
}

// Because concats are common and wide, it's valuable to always have a clean output.
// Thus we specify inputs must be clean, so we don't need to clean the output.
// Note the bit shifts are always constants, so the adds in these constify out.
// Casts required, as args may be 8 bit entities, and need to shift to appropriate output size
#define VL_CONCAT_III(obits,lbits,rbits,ld,rd)   ((IData)(ld)<<(rbits) | (IData)(rd))
#define VL_CONCAT_QII(obits,lbits,rbits,ld,rd)   ((QData)(ld)<<(rbits) | (QData)(rd))
#define VL_CONCAT_QIQ(obits,lbits,rbits,ld,rd)   ((QData)(ld)<<(rbits) | (QData)(rd))
#define VL_CONCAT_QQI(obits,lbits,rbits,ld,rd)   ((QData)(ld)<<(rbits) | (QData)(rd))
#define VL_CONCAT_QQQ(obits,lbits,rbits,ld,rd)   ((QData)(ld)<<(rbits) | (QData)(rd))

static inline WDataOutP VL_CONCAT_WII(int obits,int lbits,int rbits,WDataOutP owp,IData ld,IData rd) {
    owp[0] = rd;
    for (int i=1; i < VL_WORDS_I(obits); i++) owp[i] = 0;
    _VL_INSERT_WI(obits,owp,ld,rbits+lbits-1,rbits);
    return(owp);
}
static inline WDataOutP VL_CONCAT_WWI(int obits,int lbits,int rbits,WDataOutP owp,WDataInP lwp, IData rd) {
    owp[0] = rd;
    for (int i=1; i < VL_WORDS_I(obits); i++) owp[i] = 0;
    _VL_INSERT_WW(obits,owp,lwp,rbits+lbits-1,rbits);
    return(owp);
}
static inline WDataOutP VL_CONCAT_WIW(int obits,int lbits,int rbits,WDataOutP owp,IData ld, WDataInP rwp) {
    for (int i=0; i < VL_WORDS_I(rbits); i++) owp[i] = rwp[i];
    for (int i=VL_WORDS_I(rbits); i < VL_WORDS_I(obits); i++) owp[i] = 0;
    _VL_INSERT_WI(obits,owp,ld,rbits+lbits-1,rbits);
    return(owp);
}
static inline WDataOutP VL_CONCAT_WIQ(int obits,int lbits,int rbits,WDataOutP owp,IData ld,QData rd) {
    VL_SET_WQ(owp,rd);
    for (int i=2; i < VL_WORDS_I(obits); i++) owp[i] = 0;
    _VL_INSERT_WI(obits,owp,ld,rbits+lbits-1,rbits);
    return(owp);
}
static inline WDataOutP VL_CONCAT_WQI(int obits,int lbits,int rbits,WDataOutP owp,QData ld,IData rd) {
    owp[0] = rd;
    for (int i=1; i < VL_WORDS_I(obits); i++) owp[i] = 0;
    _VL_INSERT_WQ(obits,owp,ld,rbits+lbits-1,rbits);
    return(owp);
}
static inline WDataOutP VL_CONCAT_WQQ(int obits,int lbits,int rbits,WDataOutP owp,QData ld,QData rd) {
    VL_SET_WQ(owp,rd);
    for (int i=2; i < VL_WORDS_I(obits); i++) owp[i] = 0;
    _VL_INSERT_WQ(obits,owp,ld,rbits+lbits-1,rbits);
    return(owp);
}
static inline WDataOutP VL_CONCAT_WWQ(int obits,int lbits,int rbits,WDataOutP owp,WDataInP lwp, QData rd) {
    VL_SET_WQ(owp,rd);
    for (int i=2; i < VL_WORDS_I(obits); i++) owp[i] = 0;
    _VL_INSERT_WW(obits,owp,lwp,rbits+lbits-1,rbits);
    return(owp);
}
static inline WDataOutP VL_CONCAT_WQW(int obits,int lbits,int rbits,WDataOutP owp,QData ld, WDataInP rwp) {
    for (int i=0; i < VL_WORDS_I(rbits); i++) owp[i] = rwp[i];
    for (int i=VL_WORDS_I(rbits); i < VL_WORDS_I(obits); i++) owp[i] = 0;
    _VL_INSERT_WQ(obits,owp,ld,rbits+lbits-1,rbits);
    return(owp);
}
static inline WDataOutP VL_CONCAT_WWW(int obits,int lbits,int rbits,WDataOutP owp,WDataInP lwp, WDataInP rwp) {
    for (int i=0; i < VL_WORDS_I(rbits); i++) owp[i] = rwp[i];
    for (int i=VL_WORDS_I(rbits); i < VL_WORDS_I(obits); i++) owp[i] = 0;
    _VL_INSERT_WW(obits,owp,lwp,rbits+lbits-1,rbits);
    return(owp);
}

//===================================================================
// Shifts

// Static shift, used by internal functions
// The output is the same as the input - it overlaps!
static inline void _VL_SHIFTL_INPLACE_W(int obits,WDataOutP iowp,IData rd/*1 or 4*/) {
    int words = VL_WORDS_I(obits);
    IData linsmask = VL_MASK_I(rd);
    for (int i=words-1; i>=1; i--) {
	iowp[i] = ((iowp[i]<<rd) & ~linsmask) | ((iowp[i-1] >> (32-rd)) & linsmask);
    }
    iowp[0] = ((iowp[0]<<rd) & ~linsmask);
    iowp[VL_WORDS_I(obits)-1] &= VL_MASK_I(obits);
}

// EMIT_RULE: VL_SHIFTL:  oclean=lclean; rclean==clean;
// Important: Unlike most other funcs, the shift might well be a computed
// expression.  Thus consider this when optimizing.  (And perhaps have 2 funcs?)
static inline WDataOutP VL_SHIFTL_WWI(int obits,int,int,WDataOutP owp,WDataInP lwp, IData rd) {
    int word_shift = VL_BITWORD_I(rd);
    int bit_shift = VL_BITBIT_I(rd);
    if (rd >= (IData)obits) {  // rd may be huge with MSB set
	for (int i=0; i < VL_WORDS_I(obits); i++) owp[i] = 0;
    } else if (bit_shift==0) {  // Aligned word shift (<<0,<<32,<<64 etc)
	for (int i=0; i < word_shift; i++) owp[i] = 0;
	for (int i=word_shift; i < VL_WORDS_I(obits); i++) owp[i] = lwp[i-word_shift];
    } else {
	for (int i=0; i < VL_WORDS_I(obits); i++) owp[i] = 0;
	_VL_INSERT_WW(obits,owp,lwp,obits-1,rd);
    }
    return(owp);
}

// EMIT_RULE: VL_SHIFTR:  oclean=lclean; rclean==clean;
// Important: Unlike most other funcs, the shift might well be a computed
// expression.  Thus consider this when optimizing.  (And perhaps have 2 funcs?)
static inline WDataOutP VL_SHIFTR_WWI(int obits,int,int,WDataOutP owp,WDataInP lwp, IData rd) {
    int word_shift = VL_BITWORD_I(rd);  // Maybe 0
    int bit_shift = VL_BITBIT_I(rd);
    if (rd >= (IData)obits) {  // rd may be huge with MSB set
	for (int i=0; i < VL_WORDS_I(obits); i++) owp[i] = 0;
    } else if (bit_shift==0) {  // Aligned word shift (>>0,>>32,>>64 etc)
	int copy_words = (VL_WORDS_I(obits)-word_shift);
	for (int i=0; i < copy_words; i++) owp[i] = lwp[i+word_shift];
	for (int i=copy_words; i < VL_WORDS_I(obits); i++) owp[i] = 0;
    } else {
	int loffset = rd & VL_SIZEBITS_I;
	int nbitsonright = 32-loffset;  // bits that end up in lword (know loffset!=0)
	// Middle words
	int words = VL_WORDS_I(obits-rd);
	for (int i=0; i<words; i++) {
	    owp[i] = lwp[i+word_shift]>>loffset;
	    int upperword = i+word_shift+1;
	    if (upperword < VL_WORDS_I(obits)) {
		owp[i] |= lwp[upperword]<< nbitsonright;
	    }
	}
	for (int i=words; i<VL_WORDS_I(obits); i++) owp[i]=0;
    }
    return(owp);
}

// EMIT_RULE: VL_SHIFTRS:  oclean=false; lclean=clean, rclean==clean;
static inline IData VL_SHIFTRS_III(int obits, int lbits, int, IData lhs, IData rhs) {
    // Note the C standard does not specify the >> operator as a arithmetic shift!
    // IEEE says signed if output signed, but bit position from lbits;
    // must use lbits for sign; lbits might != obits,
    // an EXTEND(SHIFTRS(...)) can became a SHIFTRS(...) within same 32/64 bit word length
    IData sign    = -(lhs >> (lbits-1)); // ffff_ffff if negative
    IData signext = ~(VL_MASK_I(lbits) >> rhs);   // One with bits where we've shifted "past"
    return (lhs >> rhs) | (sign & VL_CLEAN_II(obits,obits,signext));
}
static inline QData VL_SHIFTRS_QQI(int obits, int lbits, int, QData lhs, IData rhs) {
    QData sign    = -(lhs >> (lbits-1));
    QData signext = ~(VL_MASK_Q(lbits) >> rhs);
    return (lhs >> rhs) | (sign & VL_CLEAN_QQ(obits,obits,signext));
}
static inline IData VL_SHIFTRS_IQI(int obits, int lbits, int rbits, QData lhs, IData rhs) {
    return (IData)(VL_SHIFTRS_QQI(obits, lbits, rbits, lhs, rhs));
}
static inline WDataOutP VL_SHIFTRS_WWI(int obits,int lbits,int,WDataOutP owp,WDataInP lwp, IData rd) {
    int word_shift = VL_BITWORD_I(rd);
    int bit_shift = VL_BITBIT_I(rd);
    int lmsw = VL_WORDS_I(obits)-1;
    IData sign = VL_SIGNONES_I(lbits,lwp[lmsw]);
    if (rd >= (IData)obits) {  // Shifting past end, sign in all of lbits
	for (int i=0; i <= lmsw; i++) owp[i] = sign;
	owp[lmsw] &= VL_MASK_I(lbits);
    } else if (bit_shift==0) {  // Aligned word shift (>>0,>>32,>>64 etc)
	int copy_words = (VL_WORDS_I(obits)-word_shift);
	for (int i=0; i < copy_words; i++) owp[i] = lwp[i+word_shift];
	if (copy_words>=0) owp[copy_words-1] |= ~VL_MASK_I(obits) & sign;
	for (int i=copy_words; i < VL_WORDS_I(obits); i++) owp[i] = sign;
	owp[lmsw] &= VL_MASK_I(lbits);
    } else {
	int loffset = rd & VL_SIZEBITS_I;
	int nbitsonright = 32-loffset;  // bits that end up in lword (know loffset!=0)
	// Middle words
	int words = VL_WORDS_I(obits-rd);
	for (int i=0; i<words; i++) {
	    owp[i] = lwp[i+word_shift]>>loffset;
	    int upperword = i+word_shift+1;
	    if (upperword < VL_WORDS_I(obits)) {
		owp[i] |= lwp[upperword]<< nbitsonright;
	    }
	}
	if (words) owp[words-1] |= sign & ~VL_MASK_I(obits-loffset);
	for (int i=words; i<VL_WORDS_I(obits); i++) owp[i] = sign;
	owp[lmsw] &= VL_MASK_I(lbits);
    }
    return(owp);
}

//===================================================================
// Bit selection

// EMIT_RULE: VL_BITSEL:  oclean=dirty; rclean==clean;
#define VL_BITSEL_IIII(obits,lbits,rbits,zbits,lhs,rhs) ((lhs)>>(rhs))
#define VL_BITSEL_QIII(obits,lbits,rbits,zbits,lhs,rhs) ((lhs)>>(rhs))
#define VL_BITSEL_QQII(obits,lbits,rbits,zbits,lhs,rhs) ((lhs)>>(rhs))
#define VL_BITSEL_IQII(obits,lbits,rbits,zbits,lhs,rhs) ((IData)((lhs)>>(rhs)))

static inline IData VL_BITSEL_IWII(int, int lbits, int, int, WDataInP lwp, IData rd) {
    int word = VL_BITWORD_I(rd);
    if (VL_UNLIKELY(rd>(IData)lbits)) {
	return ~0; // Spec says you can go outside the range of a array.  Don't coredump if so.
	// We return all 1's as that's more likely to find bugs (?) than 0's.
    } else {
	return (lwp[word]>>VL_BITBIT_I(rd));
    }
}

// EMIT_RULE: VL_RANGE:  oclean=lclean;  out=dirty
// <msb> & <lsb> MUST BE CLEAN (currently constant)
#define VL_SEL_IIII(obits,lbits,rbits,tbits,lhs,lsb,width) ((lhs)>>(lsb))
#define VL_SEL_QQII(obits,lbits,rbits,tbits,lhs,lsb,width) ((lhs)>>(lsb))
#define VL_SEL_IQII(obits,lbits,rbits,tbits,lhs,lsb,width) ((IData)((lhs)>>(lsb)))

static inline IData VL_SEL_IWII(int, int lbits, int, int, WDataInP lwp, IData lsb, IData width) {
    int msb = lsb+width-1;
    if (VL_UNLIKELY(msb>lbits)) {
	return ~0; // Spec says you can go outside the range of a array.  Don't coredump if so.
    } else if (VL_BITWORD_I(msb)==VL_BITWORD_I((int)lsb)) {
	return (lwp[VL_BITWORD_I(lsb)]>>VL_BITBIT_I(lsb));
    } else {
	// 32 bit extraction may span two words
	int nbitsfromlow = 32-VL_BITBIT_I(lsb);  // bits that come from low word
	return ((lwp[VL_BITWORD_I(msb)]<<nbitsfromlow)
		|(lwp[VL_BITWORD_I(lsb)]>>VL_BITBIT_I(lsb)));
    }
}

static inline QData VL_SEL_QWII(int, int lbits, int, int, WDataInP lwp, IData lsb, IData width) {
    int msb = lsb+width-1;
    if (VL_UNLIKELY(msb>lbits)) {
	return ~0; // Spec says you can go outside the range of a array.  Don't coredump if so.
    } else if (VL_BITWORD_I(msb)==VL_BITWORD_I((int)lsb)) {
	return (lwp[VL_BITWORD_I(lsb)]>>VL_BITBIT_I(lsb));
    } else if (VL_BITWORD_I(msb)==1+VL_BITWORD_I((int)lsb)) {
	int nbitsfromlow = 32-VL_BITBIT_I(lsb);
	QData hi = (lwp[VL_BITWORD_I(msb)]);
	QData lo = (lwp[VL_BITWORD_I(lsb)]>>VL_BITBIT_I(lsb));
	return (hi<<nbitsfromlow) | lo;
    } else {
	// 64 bit extraction may span three words
	int nbitsfromlow = 32-VL_BITBIT_I(lsb);
	QData hi = (lwp[VL_BITWORD_I(msb)]);
	QData mid= (lwp[VL_BITWORD_I(lsb)+1]);
	QData lo = (lwp[VL_BITWORD_I(lsb)]>>VL_BITBIT_I(lsb));
	return (hi<<(nbitsfromlow+32)) | (mid<<nbitsfromlow) | lo;
    }
}

static inline WDataOutP VL_SEL_WWII(int obits,int lbits,int,int,WDataOutP owp,WDataInP lwp, IData lsb, IData width) {
    int msb = lsb+width-1;
    int word_shift = VL_BITWORD_I(lsb);
    if (VL_UNLIKELY(msb>lbits)) { // Outside bounds,
	for (int i=0; i<VL_WORDS_I(obits)-1; i++) owp[i] = ~0;
	owp[VL_WORDS_I(obits)-1] = VL_MASK_I(obits);
    } else if (VL_BITBIT_I(lsb)==0) {
	// Just a word extract
	for (int i=0; i<VL_WORDS_I(obits); i++) owp[i] = lwp[i+word_shift];
    } else {
	// Not a _VL_INSERT because the bits come from any bit number and goto bit 0
	int loffset = lsb & VL_SIZEBITS_I;
	int nbitsfromlow = 32-loffset;  // bits that end up in lword (know loffset!=0)
	// Middle words
	int words = VL_WORDS_I(msb-lsb+1);
	for (int i=0; i<words; i++) {
	    owp[i] = lwp[i+word_shift]>>loffset;
	    int upperword = i+word_shift+1;
	    if (upperword <= (int)VL_BITWORD_I(msb)) {
		owp[i] |= lwp[upperword]<< nbitsfromlow;
	    }
	}
	for (int i=words; i<VL_WORDS_I(obits); i++) owp[i]=0;
    }
    return owp;
}

//======================================================================
// Range assignments

// EMIT_RULE: VL_ASSIGNRANGE:  rclean=dirty;
static inline void VL_ASSIGNSEL_IIII(int obits, int lsb, CData& lhsr, IData rhs) {
    _VL_INSERT_II(obits, lhsr, rhs, lsb+obits-1, lsb);
}
static inline void VL_ASSIGNSEL_IIII(int obits, int lsb, SData& lhsr, IData rhs) {
    _VL_INSERT_II(obits, lhsr, rhs, lsb+obits-1, lsb);
}
static inline void VL_ASSIGNSEL_IIII(int obits, int lsb, IData& lhsr, IData rhs) {
    _VL_INSERT_II(obits, lhsr, rhs, lsb+obits-1, lsb);
}
static inline void VL_ASSIGNSEL_QIII(int obits, int lsb, QData& lhsr, IData rhs) {
    _VL_INSERT_QQ(obits, lhsr, rhs, lsb+obits-1, lsb);
}
static inline void VL_ASSIGNSEL_QQII(int obits, int lsb, QData& lhsr, QData rhs) {
    _VL_INSERT_QQ(obits, lhsr, rhs, lsb+obits-1, lsb);
}
static inline void VL_ASSIGNSEL_QIIQ(int obits, int lsb, QData& lhsr, QData rhs) {
    _VL_INSERT_QQ(obits, lhsr, rhs, lsb+obits-1, lsb);
}
//static inline void VL_ASSIGNSEL_IIIW(int obits, int lsb, IData& lhsr,WDataInP rwp) {
// Illegal, as lhs width >= rhs width
static inline void VL_ASSIGNSEL_WIII(int obits, int lsb, WDataOutP owp, IData rhs) {
    _VL_INSERT_WI(obits, owp, rhs, lsb+obits-1, lsb);
}
static inline void VL_ASSIGNSEL_WIIQ(int obits, int lsb, WDataOutP owp, QData rhs) {
    _VL_INSERT_WQ(obits, owp, rhs, lsb+obits-1, lsb);
}
static inline void VL_ASSIGNSEL_WIIW(int obits, int lsb, WDataOutP owp, WDataInP rwp) {
    _VL_INSERT_WW(obits, owp, rwp, lsb+obits-1, lsb);
}

//======================================================================
// Triops

static inline WDataOutP VL_COND_WIWW(int obits, int, int, int,
				     WDataOutP owp, int cond, WDataInP w1p, WDataInP w2p) {
    int words = VL_WORDS_I(obits);
    for (int i=0; i < words; i++) owp[i] = cond ? w1p[i] : w2p[i];
    return(owp);
}

//======================================================================
// System Functions

inline IData VL_VALUEPLUSARGS_IQ(int rbits, const char* prefixp, char fmt, QData& ldr) {
    WData wd[2]; IData v=VL_VALUEPLUSARGS_IW(rbits,prefixp,fmt,wd); if (v) ldr=VL_SET_QW(wd);
    return v;
}
inline IData VL_VALUEPLUSARGS_II(int rbits, const char* prefixp, char fmt, CData& ldr) {
    QData qd; IData v=VL_VALUEPLUSARGS_IQ(rbits,prefixp,fmt,qd); if (v) ldr=(CData)qd;
    return v;
}
inline IData VL_VALUEPLUSARGS_II(int rbits, const char* prefixp, char fmt, SData& ldr) {
    QData qd; IData v=VL_VALUEPLUSARGS_IQ(rbits,prefixp,fmt,qd); if (v) ldr=(SData)qd;
    return v;
}
inline IData VL_VALUEPLUSARGS_II(int rbits, const char* prefixp, char fmt, IData& ldr) {
    QData qd; IData v=VL_VALUEPLUSARGS_IQ(rbits,prefixp,fmt,qd); if (v) ldr=(IData)qd;
    return v;
}

//======================================================================
// Constification

// VL_CONST_W_#X(int obits, WDataOutP owp, IData data0, .... IData data(#-1))
// Sets wide vector words to specified constant words, zeros upper data.

// If changing the number of functions here, also change EMITCINLINES_NUM_CONSTW

#define _END(obits,wordsSet) \
    for(int i=(wordsSet);i<VL_WORDS_I(obits);i++) o[i] = (IData)0x0; \
    return o

#define VL_HAVE_CONST_W_1X
static inline WDataOutP VL_CONST_W_1X(int obits, WDataOutP o,
				      IData d0) {
    o[0]=d0;
    _END(obits,1);  }
#define VL_HAVE_CONST_W_2X
static inline WDataOutP VL_CONST_W_2X(int obits, WDataOutP o,
				      IData d1,IData d0) {
    o[0]=d0;  o[1]=d1;
    _END(obits,2);  }
#define VL_HAVE_CONST_W_3X
static inline WDataOutP VL_CONST_W_3X(int obits, WDataOutP o,
				      IData d2,IData d1,IData d0) {
    o[0]=d0;  o[1]=d1;  o[2]=d2;
    _END(obits,3);  }
#define VL_HAVE_CONST_W_4X
static inline WDataOutP VL_CONST_W_4X(int obits, WDataOutP o,
				      IData d3,IData d2,IData d1,IData d0) {
    o[0]=d0;  o[1]=d1;  o[2]=d2;  o[3]=d3;
    _END(obits,4);  }
#define VL_HAVE_CONST_W_5X
static inline WDataOutP VL_CONST_W_5X(int obits, WDataOutP o,
				      IData d4,IData d3,IData d2,IData d1,IData d0) {
    o[0]=d0;  o[1]=d1;  o[2]=d2;  o[3]=d3;  o[4]=d4;
    _END(obits,5);  }
#define VL_HAVE_CONST_W_6X
static inline WDataOutP VL_CONST_W_6X(int obits, WDataOutP o,
				      IData d5,IData d4,IData d3,IData d2,IData d1,IData d0) {
    o[0]=d0;  o[1]=d1;  o[2]=d2;  o[3]=d3;  o[4]=d4;  o[5]=d5;
    _END(obits,6);  }
#define VL_HAVE_CONST_W_7X
static inline WDataOutP VL_CONST_W_7X(int obits, WDataOutP o,
				      IData d6,IData d5,IData d4,IData d3,IData d2,IData d1,IData d0) {
    o[0]=d0;  o[1]=d1;  o[2]=d2;  o[3]=d3;  o[4]=d4;  o[5]=d5;  o[6]=d6;
    _END(obits,7);  }
#define VL_HAVE_CONST_W_8X
static inline WDataOutP VL_CONST_W_8X(int obits, WDataOutP o,
				      IData d7,IData d6,IData d5,IData d4,IData d3,IData d2,IData d1,IData d0) {
    o[0]=d0;  o[1]=d1;  o[2]=d2;  o[3]=d3;  o[4]=d4;  o[5]=d5;  o[6]=d6;  o[7]=d7;
    _END(obits,8);  }
#define VL_HAVE_CONST_W_9X
static inline WDataOutP VL_CONST_W_9X(int obits, WDataOutP o,
				      IData d8,
				      IData d7,IData d6,IData d5,IData d4,IData d3,IData d2,IData d1,IData d0) {
    o[0]=d0;  o[1]=d1;  o[2]=d2;  o[3]=d3;  o[4]=d4;  o[5]=d5;  o[6]=d6;  o[7]=d7;
    o[8]=d8;
    _END(obits,9);  }

#undef _END

//======================================================================

#endif /*_VERILATED_H_*/
