//
// Cforall Version 1.0.0 Copyright (C) 2016 University of Waterloo
//
// The contents of this file are covered under the licence agreement in the
// file "LICENCE" distributed with Cforall.
//
// limits.c --
//
// Author           : Peter A. Buhr
// Created On       : Wed Apr  6 18:06:52 2016
// Last Modified By : Peter A. Buhr
// Last Modified On : Wed Sep 30 22:56:32 2020
// Update Count     : 76
//

#include <limits.h>
#include <float.h>
#define __USE_GNU										// get M_* constants
#include <math.h>
#include <complex.h>
#include "limits.hfa"

// Integral Constants

signed char MIN = SCHAR_MIN;
unsigned char MIN = 0;
short int MIN = SHRT_MIN;
unsigned short int MIN = 0;
int MIN = INT_MIN;
unsigned int MIN = 0;
long int MIN = LONG_MIN;
unsigned long int MIN = 0;
long long int MIN = LLONG_MIN;
unsigned long long int MIN = 0;

signed char MAX = SCHAR_MAX;
unsigned char MAX = UCHAR_MAX;
short int MAX = SHRT_MAX;
unsigned short int MAX = USHRT_MAX;
int MAX = INT_MAX;
unsigned int MAX = UINT_MAX;
long int MAX = LONG_MAX;
unsigned long int MAX = ULONG_MAX;
long long int MAX = LLONG_MAX;
unsigned long long int MAX = ULLONG_MAX;

// Floating-Point Constants

float MIN = FLT_MIN;
double MIN = DBL_MIN;
long double MIN = LDBL_MIN;
float _Complex MIN = __FLT_MIN__ + __FLT_MIN__ * I;
double _Complex MIN = DBL_MIN +  DBL_MIN * I;
long double _Complex MIN = LDBL_MIN + LDBL_MIN * I;

float MAX = FLT_MAX;
double MAX = DBL_MAX;
long double MAX = LDBL_MAX;
float _Complex MAX = FLT_MAX + FLT_MAX * I;
double _Complex MAX = DBL_MAX + DBL_MAX * I;
long double _Complex MAX = LDBL_MAX + LDBL_MAX * I;

float PI = (float)M_PI;									// pi
float PI_2 = (float)M_PI_2;								// pi / 2
float PI_4 = (float)M_PI_4;								// pi / 4
float _1_PI = (float)M_1_PI;							// 1 / pi
float _2_PI = (float)M_2_PI;							// 2 / pi
float _2_SQRT_PI = (float)M_2_SQRTPI;					// 2 / sqrt(pi)

double PI = M_PI;										// pi
double PI_2 = M_PI_2;									// pi / 2
double PI_4 = M_PI_4;									// pi / 4
double _1_PI = M_1_PI;									// 1 / pi
double _2_PI = M_2_PI;									// 2 / pi
double _2_SQRT_PI = M_2_SQRTPI;							// 2 / sqrt(pi)

long double PI = M_PIl;									// pi
long double PI_2 = M_PI_2l;								// pi / 2
long double PI_4 = M_PI_4l;								// pi / 4
long double _1_PI = M_1_PIl;							// 1 / pi
long double _2_PI = M_2_PIl;							// 2 / pi
long double _2_SQRT_PI = M_2_SQRTPIl;					// 2 / sqrt(pi)

float _Complex PI = (float)M_PI + 0.0_iF;				// pi
float _Complex PI_2 = (float)M_PI_2 + 0.0_iF;			// pi / 2
float _Complex PI_4 = (float)M_PI_4 + 0.0_iF;			// pi / 4
float _Complex _1_PI = (float)M_1_PI + 0.0_iF;			// 1 / pi
float _Complex _2_PI = (float)M_2_PI + 0.0_iF;			// 2 / pi
float _Complex _2_SQRT_PI = (float)M_2_SQRTPI + 0.0_iF; // 2 / sqrt(pi)

double _Complex PI = M_PI + 0.0_iD;						// pi
double _Complex PI_2 = M_PI_2 + 0.0_iD;					// pi / 2
double _Complex PI_4 = M_PI_4 + 0.0_iD;					// pi / 4
double _Complex _1_PI = M_1_PI + 0.0_iD;				// 1 / pi
double _Complex _2_PI = M_2_PI + 0.0_iD;				// 2 / pi
double _Complex _2_SQRT_PI = M_2_SQRTPI + 0.0_iD;		// 2 / sqrt(pi)

long double _Complex PI = M_PIl + 0.0_iL;				// pi
long double _Complex PI_2 = M_PI_2l + 0.0_iL;			// pi / 2
long double _Complex PI_4 = M_PI_4l + 0.0_iL;			// pi / 4
long double _Complex _1_PI = M_1_PIl + 0.0_iL;			// 1 / pi
long double _Complex _2_PI = M_2_PIl + 0.0_iL;			// 2 / pi
long double _Complex _2_SQRT_PI = M_2_SQRTPIl + 0.0_iL; // 2 / sqrt(pi)

float E = (float)M_E;									// e
float LOG2_E = (float)M_LOG2E;							// log_2(e)
float LOG10_E = (float)M_LOG10E;						// log_10(e)
float LN_2 = (float)M_LN2;								// log_e(2)
float LN_10 = (float)M_LN10;							// log_e(10)
float SQRT_2 = (float)M_SQRT2;							// sqrt(2)
float _1_SQRT_2 = (float)M_SQRT1_2;						// 1 / sqrt(2)

double E = M_E;											// e
double LOG2_E = M_LOG2E;								// log_2(e)
double LOG10_E = M_LOG10E;								// log_10(e)
double LN_2 = M_LN2;									// log_e(2)
double LN_10 = M_LN10;									// log_e(10)
double SQRT_2 = M_SQRT2;								// sqrt(2)
double _1_SQRT_2 = M_SQRT1_2;							// 1 / sqrt(2)

long double E = M_El;									// e
long double LOG2_E = M_LOG2El;							// log_2(e)
long double LOG10_E = M_LOG10El;						// log_10(e)
long double LN_2 = M_LN2l;								// log_e(2)
long double LN_10 = M_LN10l;							// log_e(10)
long double SQRT_2 = M_SQRT2l;							// sqrt(2)
long double _1_SQRT_2 = M_SQRT1_2l;						// 1 / sqrt(2)

float _Complex E = M_E + 0.0_iF;						// e
float _Complex LOG2_E = M_LOG2E + 0.0_iF;				// log_2(e)
float _Complex LOG10_E = M_LOG10E + 0.0_iF;				// log_10(e)
float _Complex LN_2 = M_LN2 + 0.0_iF;					// log_e(2)
float _Complex LN_10 = M_LN10 + 0.0_iF;					// log_e(10)
float _Complex SQRT_2 = M_SQRT2 + 0.0_iF;				// sqrt(2)
float _Complex _1_SQRT_2 = M_SQRT1_2 + 0.0_iF;			// 1 / sqrt(2)

double _Complex E = M_E + 0.0_iD;						// e
double _Complex LOG2_E = M_LOG2E + 0.0_iD;				// log_2(e)
double _Complex LOG10_E = M_LOG10E + 0.0_iD;			// log_10(e)
double _Complex LN_2 = M_LN2 + 0.0_iD;					// log_e(2)
double _Complex LN_10 = M_LN10 + 0.0_iD;				// log_e(10)
double _Complex SQRT_2 = M_SQRT2 + 0.0_iD;				// sqrt(2)
double _Complex _1_SQRT_2 = M_SQRT1_2 + 0.0_iD;			// 1 / sqrt(2)

long double _Complex E = M_El + 0.0_iL;					// e
long double _Complex LOG2_E = M_LOG2El + 0.0_iL;		// log_2(e)
long double _Complex LOG10_E = M_LOG10El + 0.0_iL;		// log_10(e)
long double _Complex LN_2 = M_LN2l + 0.0_iL;			// log_e(2)
long double _Complex LN_10 = M_LN10l + 0.0_iL;			// log_e(10)
long double _Complex SQRT_2 = M_SQRT2l + 0.0_iL;		// sqrt(2)
long double _Complex _1_SQRT_2 = M_SQRT1_2l + 0.0_iL;	// 1 / sqrt(2)

// Local Variables: //
// mode: c //
// tab-width: 4 //
// End: //