/*
    Copyright 2007-2008 Adobe Systems Incorporated
    Distributed under the MIT License (see accompanying file LICENSE_1_0_0.txt
    or a copy at http://stlab.adobe.com/licenses.html )


Goal:  Test compiler optimizations related to constant folding of simple language defined types

Assumptions:

	1) the compiler will combine constant calculations into a single constant for simple types
		aka constant folding
		result = A + B			==>		result = constant
		result = A - B			==>		result = constant
		result = A * B			==>		result = constant
		result = A / B			==>		result = constant
		result = A % B			==>		result = constant	for integer types
		result = (A == B)		==>		result = constant	for integer types
		result = (A != B)		==>		result = constant	for integer types
		result = (A > B)		==>		result = constant	for integer types
		result = (A < B)		==>		result = constant	for integer types
		result = (A >= B)		==>		result = constant	for integer types
		result = (A <= B)		==>		result = constant	for integer types
		result = (A & B)		==>		result = constant	for integer types
		result = (A | B)		==>		result = constant	for integer types
		result = (A ^ B)		==>		result = constant	for integer types
		
		result = input + A + B + C + D	==>		result = input + (A+B+C+D)
		result = input - A - B - C - D	==>		result = input - (A+B+C+D)
		result = input * A * B * C * D	==>		result = input * (A*B*C*D)
		result = input + A * B * C * D	==>		result = input + (A*B*C*D)
		result = ((((input/A) /B) /C) /D)	==>	result = input / (A*B*C*D)
		result = input + (((A /B) /C) /D)	==>	result = input + (A/B/C/D)
		result = input & A & B & C & D	==>		result = input & (A&B&C&D)			for integer types
		result = input | A | B | C | D	==>		result = input | (A|B|C|D)			for integer types
		result = input ^ A ^ B ^ C ^ D	==>		result = input ^ (A^B^C^D)			for integer types


NOTE - in some cases, loop invariant code motion might move the constant calculation out of the inner loop
	making it appear that the constants were folded
		But in the constant result cases, we want the compiler to recognize the constant and move it out of the loop

*/

/******************************************************************************/

#include "benchmark_stdint.hpp"
#include <cstddef>
#include <cstdio>
#include <ctime>
#include <cstdlib>
#include <cmath>
#include "benchmark_results.h"
#include "benchmark_timer.h"

/******************************************************************************/

// this constant may need to be adjusted to give reasonable minimum times
// For best results, times should be about 1.0 seconds for the minimum test run
int base_iterations = 2000000;
int iterations = base_iterations;


// 8000 items, or between 8k and 64k of data
// this is intended to remain within the L2 cache of most common CPUs
const int SIZE 	= 8000;


// initial value for filling our arrays, may be changed from the command line
double init_value = 1.0;

/******************************************************************************/

// our global arrays of numbers to be operated upon

double dataDouble[SIZE];
float dataFloat[SIZE];

uint64_t data64unsigned[SIZE];
int64_t data64[SIZE];

uint32_t data32unsigned[SIZE];
int32_t data32[SIZE];

uint16_t data16unsigned[SIZE];
int16_t data16[SIZE];

uint8_t data8unsigned[SIZE];
int8_t data8[SIZE];

/******************************************************************************/

#include "benchmark_shared_tests.h"

/******************************************************************************/


int main(int argc, char** argv) {
	
	// output command for documentation:
	int i;
	for (i = 0; i < argc; ++i)
		printf("%s ", argv[i] );
	printf("\n");

	if (argc > 1) base_iterations = atoi(argv[1]);
	if (argc > 2) init_value = (double) atof(argv[2]);



// int8_t
	::fill(data8, data8+SIZE, int8_t(init_value));
	
	iterations = base_iterations;
	test_constant<int8_t, custom_two<int8_t> >(data8,SIZE,"int8_t constant");
	test_constant<int8_t, custom_add_constants<int8_t> >(data8,SIZE,"int8_t add constants");
	test_constant<int8_t, custom_sub_constants<int8_t> >(data8,SIZE,"int8_t subtract constants");
	test_constant<int8_t, custom_multiply_constants<int8_t> >(data8,SIZE,"int8_t multiply constants");
	test_constant<int8_t, custom_divide_constants<int8_t> >(data8,SIZE,"int8_t divide constants");
	test_constant<int8_t, custom_mod_constants<int8_t> >(data8,SIZE,"int8_t mod constants");
	test_constant<int8_t, custom_equal_constants<int8_t> >(data8,SIZE,"int8_t equal constants");
	test_constant<int8_t, custom_notequal_constants<int8_t> >(data8,SIZE,"int8_t notequal constants");
	test_constant<int8_t, custom_greaterthan_constants<int8_t> >(data8,SIZE,"int8_t greater than constants");
	test_constant<int8_t, custom_lessthan_constants<int8_t> >(data8,SIZE,"int8_t less than constants");
	test_constant<int8_t, custom_greaterthanequal_constants<int8_t> >(data8,SIZE,"int8_t greater than equal constants");
	test_constant<int8_t, custom_lessthanequal_constants<int8_t> >(data8,SIZE,"int8_t less than equal constants");
	test_constant<int8_t, custom_and_constants<int8_t> >(data8,SIZE,"int8_t and constants");
	test_constant<int8_t, custom_or_constants<int8_t> >(data8,SIZE,"int8_t or constants");
	test_constant<int8_t, custom_xor_constants<int8_t> >(data8,SIZE,"int8_t xor constants");
	
	summarize("int8_t simple constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );
	
	
	iterations = base_iterations / 10;
	test_constant<int8_t, custom_constant_add<int8_t> >(data8,SIZE,"int8_t constant add");
	test_constant<int8_t, custom_multiple_constant_add<int8_t> >(data8,SIZE,"int8_t multiple constant adds");

	test_constant<int8_t, custom_constant_sub<int8_t> >(data8,SIZE,"int8_t constant subtract");
	test_constant<int8_t, custom_multiple_constant_sub<int8_t> >(data8,SIZE,"int8_t multiple constant subtracts");

	test_constant<int8_t, custom_constant_multiply<int8_t> >(data8,SIZE,"int8_t constant multiply");
	test_constant<int8_t, custom_multiple_constant_multiply<int8_t> >(data8,SIZE,"int8_t multiple constant multiplies");
	test_constant<int8_t, custom_multiple_constant_multiply2<int8_t> >(data8,SIZE,"int8_t multiple constant multiply2");

	test_constant<int8_t, custom_constant_divide<int8_t> >(data8,SIZE,"int8_t constant divide");
	test_constant<int8_t, custom_multiple_constant_divide<int8_t> >(data8,SIZE,"int8_t multiple constant divides");
	test_constant<int8_t, custom_multiple_constant_divide2<int8_t> >(data8,SIZE,"int8_t multiple constant divide2");
	
	test_constant<int8_t, custom_multiple_constant_mixed<int8_t> >(data8,SIZE,"int8_t multiple constant mixed");

	test_constant<int8_t, custom_constant_and<int8_t> >(data8,SIZE,"int8_t constant and");
	test_constant<int8_t, custom_multiple_constant_and<int8_t> >(data8,SIZE,"int8_t multiple constant and");

	test_constant<int8_t, custom_constant_or<int8_t> >(data8,SIZE,"int8_t constant or");
	test_constant<int8_t, custom_multiple_constant_or<int8_t> >(data8,SIZE,"int8_t multiple constant or");

	test_constant<int8_t, custom_constant_xor<int8_t> >(data8,SIZE,"int8_t constant xor");
	test_constant<int8_t, custom_multiple_constant_xor<int8_t> >(data8,SIZE,"int8_t multiple constant xor");

	summarize("int8_t constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );


// unsigned8
	::fill(data8unsigned, data8unsigned+SIZE, uint8_t(init_value));
	
	iterations = base_iterations;
	test_constant<uint8_t, custom_two<uint8_t> >(data8unsigned,SIZE,"uint8_t constant");
	test_constant<uint8_t, custom_add_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t add constants");
	test_constant<uint8_t, custom_sub_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t subtract constants");
	test_constant<uint8_t, custom_multiply_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t multiply constants");
	test_constant<uint8_t, custom_divide_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t divide constants");
	test_constant<uint8_t, custom_mod_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t mod constants");
	test_constant<uint8_t, custom_equal_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t equal constants");
	test_constant<uint8_t, custom_notequal_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t notequal constants");
	test_constant<uint8_t, custom_greaterthan_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t greater than constants");
	test_constant<uint8_t, custom_lessthan_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t less than constants");
	test_constant<uint8_t, custom_greaterthanequal_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t greater than equal constants");
	test_constant<uint8_t, custom_lessthanequal_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t less than equal constants");
	test_constant<uint8_t, custom_and_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t and constants");
	test_constant<uint8_t, custom_or_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t or constants");
	test_constant<uint8_t, custom_xor_constants<uint8_t> >(data8unsigned,SIZE,"uint8_t xor constants");
	
	summarize("uint8_t simple constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );
	
	
	iterations = base_iterations / 10;
	test_constant<uint8_t, custom_constant_add<uint8_t> >(data8unsigned,SIZE,"uint8_t constant add");
	test_constant<uint8_t, custom_multiple_constant_add<uint8_t> >(data8unsigned,SIZE,"uint8_t multiple constant adds");

	test_constant<uint8_t, custom_constant_sub<uint8_t> >(data8unsigned,SIZE,"uint8_t constant subtract");
	test_constant<uint8_t, custom_multiple_constant_sub<uint8_t> >(data8unsigned,SIZE,"uint8_t multiple constant subtracts");

	test_constant<uint8_t, custom_constant_multiply<uint8_t> >(data8unsigned,SIZE,"uint8_t constant multiply");
	test_constant<uint8_t, custom_multiple_constant_multiply<uint8_t> >(data8unsigned,SIZE,"uint8_t multiple constant multiplies");
	test_constant<uint8_t, custom_multiple_constant_multiply2<uint8_t> >(data8unsigned,SIZE,"uint8_t multiple constant multiply2");

	test_constant<uint8_t, custom_constant_divide<uint8_t> >(data8unsigned,SIZE,"uint8_t constant divide");
	test_constant<uint8_t, custom_multiple_constant_divide<uint8_t> >(data8unsigned,SIZE,"uint8_t multiple constant divides");
	test_constant<uint8_t, custom_multiple_constant_divide2<uint8_t> >(data8unsigned,SIZE,"uint8_t multiple constant divide2");
	
	test_constant<uint8_t, custom_multiple_constant_mixed<uint8_t> >(data8unsigned,SIZE,"uint8_t multiple constant mixed");

	test_constant<uint8_t, custom_constant_and<uint8_t> >(data8unsigned,SIZE,"uint8_t constant and");
	test_constant<uint8_t, custom_multiple_constant_and<uint8_t> >(data8unsigned,SIZE,"uint8_t multiple constant and");

	test_constant<uint8_t, custom_constant_or<uint8_t> >(data8unsigned,SIZE,"uint8_t constant or");
	test_constant<uint8_t, custom_multiple_constant_or<uint8_t> >(data8unsigned,SIZE,"uint8_t multiple constant or");

	test_constant<uint8_t, custom_constant_xor<uint8_t> >(data8unsigned,SIZE,"uint8_t constant xor");
	test_constant<uint8_t, custom_multiple_constant_xor<uint8_t> >(data8unsigned,SIZE,"uint8_t multiple constant xor");

	summarize("uint8_t constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );


// int16_t
	::fill(data16, data16+SIZE, int16_t(init_value));
	
	iterations = base_iterations;
	test_constant<int16_t, custom_two<int16_t> >(data16,SIZE,"int16_t constant");
	test_constant<int16_t, custom_add_constants<int16_t> >(data16,SIZE,"int16_t add constants");
	test_constant<int16_t, custom_sub_constants<int16_t> >(data16,SIZE,"int16_t subtract constants");
	test_constant<int16_t, custom_multiply_constants<int16_t> >(data16,SIZE,"int16_t multiply constants");
	test_constant<int16_t, custom_divide_constants<int16_t> >(data16,SIZE,"int16_t divide constants");
	test_constant<int16_t, custom_mod_constants<int16_t> >(data16,SIZE,"int16_t mod constants");
	test_constant<int16_t, custom_equal_constants<int16_t> >(data16,SIZE,"int16_t equal constants");
	test_constant<int16_t, custom_notequal_constants<int16_t> >(data16,SIZE,"int16_t notequal constants");
	test_constant<int16_t, custom_greaterthan_constants<int16_t> >(data16,SIZE,"int16_t greater than constants");
	test_constant<int16_t, custom_lessthan_constants<int16_t> >(data16,SIZE,"int16_t less than constants");
	test_constant<int16_t, custom_greaterthanequal_constants<int16_t> >(data16,SIZE,"int16_t greater than equal constants");
	test_constant<int16_t, custom_lessthanequal_constants<int16_t> >(data16,SIZE,"int16_t less than equal constants");
	test_constant<int16_t, custom_and_constants<int16_t> >(data16,SIZE,"int16_t and constants");
	test_constant<int16_t, custom_or_constants<int16_t> >(data16,SIZE,"int16_t or constants");
	test_constant<int16_t, custom_xor_constants<int16_t> >(data16,SIZE,"int16_t xor constants");
	
	summarize("int16_t simple constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );
	
	
	iterations = base_iterations / 10;
	test_constant<int16_t, custom_constant_add<int16_t> >(data16,SIZE,"int16_t constant add");
	test_constant<int16_t, custom_multiple_constant_add<int16_t> >(data16,SIZE,"int16_t multiple constant adds");

	test_constant<int16_t, custom_constant_sub<int16_t> >(data16,SIZE,"int16_t constant subtract");
	test_constant<int16_t, custom_multiple_constant_sub<int16_t> >(data16,SIZE,"int16_t multiple constant subtracts");

	test_constant<int16_t, custom_constant_multiply<int16_t> >(data16,SIZE,"int16_t constant multiply");
	test_constant<int16_t, custom_multiple_constant_multiply<int16_t> >(data16,SIZE,"int16_t multiple constant multiplies");
	test_constant<int16_t, custom_multiple_constant_multiply2<int16_t> >(data16,SIZE,"int16_t multiple constant multiply2");

	test_constant<int16_t, custom_constant_divide<int16_t> >(data16,SIZE,"int16_t constant divide");
	test_constant<int16_t, custom_multiple_constant_divide<int16_t> >(data16,SIZE,"int16_t multiple constant divides");
	test_constant<int16_t, custom_multiple_constant_divide2<int16_t> >(data16,SIZE,"int16_t multiple constant divide2");
	
	test_constant<int16_t, custom_multiple_constant_mixed<int16_t> >(data16,SIZE,"int16_t multiple constant mixed");

	test_constant<int16_t, custom_constant_and<int16_t> >(data16,SIZE,"int16_t constant and");
	test_constant<int16_t, custom_multiple_constant_and<int16_t> >(data16,SIZE,"int16_t multiple constant and");

	test_constant<int16_t, custom_constant_or<int16_t> >(data16,SIZE,"int16_t constant or");
	test_constant<int16_t, custom_multiple_constant_or<int16_t> >(data16,SIZE,"int16_t multiple constant or");

	test_constant<int16_t, custom_constant_xor<int16_t> >(data16,SIZE,"int16_t constant xor");
	test_constant<int16_t, custom_multiple_constant_xor<int16_t> >(data16,SIZE,"int16_t multiple constant xor");

	summarize("int16_t constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );


// unsigned16
	::fill(data16unsigned, data16unsigned+SIZE, uint16_t(init_value));
	
	iterations = base_iterations;
	test_constant<uint16_t, custom_two<uint16_t> >(data16unsigned,SIZE,"uint16_t constant");
	test_constant<uint16_t, custom_add_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t add constants");
	test_constant<uint16_t, custom_sub_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t subtract constants");
	test_constant<uint16_t, custom_multiply_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t multiply constants");
	test_constant<uint16_t, custom_divide_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t divide constants");
	test_constant<uint16_t, custom_mod_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t mod constants");
	test_constant<uint16_t, custom_equal_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t equal constants");
	test_constant<uint16_t, custom_notequal_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t notequal constants");
	test_constant<uint16_t, custom_greaterthan_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t greater than constants");
	test_constant<uint16_t, custom_lessthan_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t less than constants");
	test_constant<uint16_t, custom_greaterthanequal_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t greater than equal constants");
	test_constant<uint16_t, custom_lessthanequal_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t less than equal constants");
	test_constant<uint16_t, custom_and_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t and constants");
	test_constant<uint16_t, custom_or_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t or constants");
	test_constant<uint16_t, custom_xor_constants<uint16_t> >(data16unsigned,SIZE,"uint16_t xor constants");
	
	summarize("uint16_t simple constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );
	
	
	iterations = base_iterations / 10;
	test_constant<uint16_t, custom_constant_add<uint16_t> >(data16unsigned,SIZE,"uint16_t constant add");
	test_constant<uint16_t, custom_multiple_constant_add<uint16_t> >(data16unsigned,SIZE,"uint16_t multiple constant adds");

	test_constant<uint16_t, custom_constant_sub<uint16_t> >(data16unsigned,SIZE,"uint16_t constant subtract");
	test_constant<uint16_t, custom_multiple_constant_sub<uint16_t> >(data16unsigned,SIZE,"uint16_t multiple constant subtracts");

	test_constant<uint16_t, custom_constant_multiply<uint16_t> >(data16unsigned,SIZE,"uint16_t constant multiply");
	test_constant<uint16_t, custom_multiple_constant_multiply<uint16_t> >(data16unsigned,SIZE,"uint16_t multiple constant multiplies");
	test_constant<uint16_t, custom_multiple_constant_multiply2<uint16_t> >(data16unsigned,SIZE,"uint16_t multiple constant multiply2");

	test_constant<uint16_t, custom_constant_divide<uint16_t> >(data16unsigned,SIZE,"uint16_t constant divide");
	test_constant<uint16_t, custom_multiple_constant_divide<uint16_t> >(data16unsigned,SIZE,"uint16_t multiple constant divides");
	test_constant<uint16_t, custom_multiple_constant_divide2<uint16_t> >(data16unsigned,SIZE,"uint16_t multiple constant divide2");
	
	test_constant<uint16_t, custom_multiple_constant_mixed<uint16_t> >(data16unsigned,SIZE,"uint16_t multiple constant mixed");

	test_constant<uint16_t, custom_constant_and<uint16_t> >(data16unsigned,SIZE,"uint16_t constant and");
	test_constant<uint16_t, custom_multiple_constant_and<uint16_t> >(data16unsigned,SIZE,"uint16_t multiple constant and");

	test_constant<uint16_t, custom_constant_or<uint16_t> >(data16unsigned,SIZE,"uint16_t constant or");
	test_constant<uint16_t, custom_multiple_constant_or<uint16_t> >(data16unsigned,SIZE,"uint16_t multiple constant or");

	test_constant<uint16_t, custom_constant_xor<uint16_t> >(data16unsigned,SIZE,"uint16_t constant xor");
	test_constant<uint16_t, custom_multiple_constant_xor<uint16_t> >(data16unsigned,SIZE,"uint16_t multiple constant xor");

	summarize("uint16_t constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );



// int32_t
	::fill(data32, data32+SIZE, int32_t(init_value));

	iterations = base_iterations;
	test_constant<int32_t, custom_two<int32_t> >(data32,SIZE,"int32_t constant");
	test_constant<int32_t, custom_add_constants<int32_t> >(data32,SIZE,"int32_t add constants");
	test_constant<int32_t, custom_sub_constants<int32_t> >(data32,SIZE,"int32_t subtract constants");
	test_constant<int32_t, custom_multiply_constants<int32_t> >(data32,SIZE,"int32_t multiply constants");
	test_constant<int32_t, custom_divide_constants<int32_t> >(data32,SIZE,"int32_t divide constants");
	test_constant<int32_t, custom_mod_constants<int32_t> >(data32,SIZE,"int32_t mod constants");
	test_constant<int32_t, custom_equal_constants<int32_t> >(data32,SIZE,"int32_t equal constants");
	test_constant<int32_t, custom_notequal_constants<int32_t> >(data32,SIZE,"int32_t notequal constants");
	test_constant<int32_t, custom_greaterthan_constants<int32_t> >(data32,SIZE,"int32_t greater than constants");
	test_constant<int32_t, custom_lessthan_constants<int32_t> >(data32,SIZE,"int32_t less than constants");
	test_constant<int32_t, custom_greaterthanequal_constants<int32_t> >(data32,SIZE,"int32_t greater than equal constants");
	test_constant<int32_t, custom_lessthanequal_constants<int32_t> >(data32,SIZE,"int32_t less than equal constants");
	test_constant<int32_t, custom_and_constants<int32_t> >(data32,SIZE,"int32_t and constants");
	test_constant<int32_t, custom_or_constants<int32_t> >(data32,SIZE,"int32_t or constants");
	test_constant<int32_t, custom_xor_constants<int32_t> >(data32,SIZE,"int32_t xor constants");
	
	summarize("int32_t simple constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );
	
	
	iterations = base_iterations / 10;
	test_constant<int32_t, custom_constant_add<int32_t> >(data32,SIZE,"int32_t constant add");
	test_constant<int32_t, custom_multiple_constant_add<int32_t> >(data32,SIZE,"int32_t multiple constant adds");

	test_constant<int32_t, custom_constant_sub<int32_t> >(data32,SIZE,"int32_t constant subtract");
	test_constant<int32_t, custom_multiple_constant_sub<int32_t> >(data32,SIZE,"int32_t multiple constant subtracts");

	test_constant<int32_t, custom_constant_multiply<int32_t> >(data32,SIZE,"int32_t constant multiply");
	test_constant<int32_t, custom_multiple_constant_multiply<int32_t> >(data32,SIZE,"int32_t multiple constant multiplies");
	test_constant<int32_t, custom_multiple_constant_multiply2<int32_t> >(data32,SIZE,"int32_t multiple constant multiply2");

	test_constant<int32_t, custom_constant_divide<int32_t> >(data32,SIZE,"int32_t constant divide");
	test_constant<int32_t, custom_multiple_constant_divide<int32_t> >(data32,SIZE,"int32_t multiple constant divides");
	test_constant<int32_t, custom_multiple_constant_divide2<int32_t> >(data32,SIZE,"int32_t multiple constant divide2");
	
	test_constant<int32_t, custom_multiple_constant_mixed<int32_t> >(data32,SIZE,"int32_t multiple constant mixed");

	test_constant<int32_t, custom_constant_and<int32_t> >(data32,SIZE,"int32_t constant and");
	test_constant<int32_t, custom_multiple_constant_and<int32_t> >(data32,SIZE,"int32_t multiple constant and");

	test_constant<int32_t, custom_constant_or<int32_t> >(data32,SIZE,"int32_t constant or");
	test_constant<int32_t, custom_multiple_constant_or<int32_t> >(data32,SIZE,"int32_t multiple constant or");

	test_constant<int32_t, custom_constant_xor<int32_t> >(data32,SIZE,"int32_t constant xor");
	test_constant<int32_t, custom_multiple_constant_xor<int32_t> >(data32,SIZE,"int32_t multiple constant xor");

	summarize("int32_t constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );



// unsigned32
	::fill(data32unsigned, data32unsigned+SIZE, uint32_t(init_value));

	iterations = base_iterations;
	test_constant<uint32_t, custom_two<uint32_t> >(data32unsigned,SIZE,"uint32_t constant");
	test_constant<uint32_t, custom_add_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t add constants");
	test_constant<uint32_t, custom_sub_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t subtract constants");
	test_constant<uint32_t, custom_multiply_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t multiply constants");
	test_constant<uint32_t, custom_divide_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t divide constants");
	test_constant<uint32_t, custom_mod_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t mod constants");
	test_constant<uint32_t, custom_equal_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t equal constants");
	test_constant<uint32_t, custom_notequal_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t notequal constants");
	test_constant<uint32_t, custom_greaterthan_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t greater than constants");
	test_constant<uint32_t, custom_lessthan_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t less than constants");
	test_constant<uint32_t, custom_greaterthanequal_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t greater than equal constants");
	test_constant<uint32_t, custom_lessthanequal_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t less than equal constants");
	test_constant<uint32_t, custom_and_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t and constants");
	test_constant<uint32_t, custom_or_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t or constants");
	test_constant<uint32_t, custom_xor_constants<uint32_t> >(data32unsigned,SIZE,"uint32_t xor constants");
	
	summarize("uint32_t simple constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );
	
	
	iterations = base_iterations / 10;
	test_constant<uint32_t, custom_constant_add<uint32_t> >(data32unsigned,SIZE,"uint32_t constant add");
	test_constant<uint32_t, custom_multiple_constant_add<uint32_t> >(data32unsigned,SIZE,"uint32_t multiple constant adds");

	test_constant<uint32_t, custom_constant_sub<uint32_t> >(data32unsigned,SIZE,"uint32_t constant subtract");
	test_constant<uint32_t, custom_multiple_constant_sub<uint32_t> >(data32unsigned,SIZE,"uint32_t multiple constant subtracts");

	test_constant<uint32_t, custom_constant_multiply<uint32_t> >(data32unsigned,SIZE,"uint32_t constant multiply");
	test_constant<uint32_t, custom_multiple_constant_multiply<uint32_t> >(data32unsigned,SIZE,"uint32_t multiple constant multiplies");
	test_constant<uint32_t, custom_multiple_constant_multiply2<uint32_t> >(data32unsigned,SIZE,"uint32_t multiple constant multiply2");

	test_constant<uint32_t, custom_constant_divide<uint32_t> >(data32unsigned,SIZE,"uint32_t constant divide");
	test_constant<uint32_t, custom_multiple_constant_divide<uint32_t> >(data32unsigned,SIZE,"uint32_t multiple constant divides");
	test_constant<uint32_t, custom_multiple_constant_divide2<uint32_t> >(data32unsigned,SIZE,"uint32_t multiple constant divide2");
	
	test_constant<uint32_t, custom_multiple_constant_mixed<uint32_t> >(data32unsigned,SIZE,"uint32_t multiple constant mixed");

	test_constant<uint32_t, custom_constant_and<uint32_t> >(data32unsigned,SIZE,"uint32_t constant and");
	test_constant<uint32_t, custom_multiple_constant_and<uint32_t> >(data32unsigned,SIZE,"uint32_t multiple constant and");

	test_constant<uint32_t, custom_constant_or<uint32_t> >(data32unsigned,SIZE,"uint32_t constant or");
	test_constant<uint32_t, custom_multiple_constant_or<uint32_t> >(data32unsigned,SIZE,"uint32_t multiple constant or");

	test_constant<uint32_t, custom_constant_xor<uint32_t> >(data32unsigned,SIZE,"uint32_t constant xor");
	test_constant<uint32_t, custom_multiple_constant_xor<uint32_t> >(data32unsigned,SIZE,"uint32_t multiple constant xor");

	summarize("uint32_t constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );

	

// int64_t
	::fill(data64, data64+SIZE, int64_t(init_value));

	iterations = base_iterations;
	test_constant<int64_t, custom_two<int64_t> >(data64,SIZE,"int64_t constant");
	test_constant<int64_t, custom_add_constants<int64_t> >(data64,SIZE,"int64_t add constants");
	test_constant<int64_t, custom_sub_constants<int64_t> >(data64,SIZE,"int64_t subtract constants");
	test_constant<int64_t, custom_multiply_constants<int64_t> >(data64,SIZE,"int64_t multiply constants");
	test_constant<int64_t, custom_divide_constants<int64_t> >(data64,SIZE,"int64_t divide constants");
	test_constant<int64_t, custom_mod_constants<int64_t> >(data64,SIZE,"int64_t mod constants");
	test_constant<int64_t, custom_equal_constants<int64_t> >(data64,SIZE,"int64_t equal constants");
	test_constant<int64_t, custom_notequal_constants<int64_t> >(data64,SIZE,"int64_t notequal constants");
	test_constant<int64_t, custom_greaterthan_constants<int64_t> >(data64,SIZE,"int64_t greater than constants");
	test_constant<int64_t, custom_lessthan_constants<int64_t> >(data64,SIZE,"int64_t less than constants");
	test_constant<int64_t, custom_greaterthanequal_constants<int64_t> >(data64,SIZE,"int64_t greater than equal constants");
	test_constant<int64_t, custom_lessthanequal_constants<int64_t> >(data64,SIZE,"int64_t less than equal constants");
	test_constant<int64_t, custom_and_constants<int64_t> >(data64,SIZE,"int64_t and constants");
	test_constant<int64_t, custom_or_constants<int64_t> >(data64,SIZE,"int64_t or constants");
	test_constant<int64_t, custom_xor_constants<int64_t> >(data64,SIZE,"int64_t xor constants");
	
	summarize("int64_t simple constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );
	
	
	iterations = base_iterations / 10;
	test_constant<int64_t, custom_constant_add<int64_t> >(data64,SIZE,"int64_t constant add");
	test_constant<int64_t, custom_multiple_constant_add<int64_t> >(data64,SIZE,"int64_t multiple constant adds");

	test_constant<int64_t, custom_constant_sub<int64_t> >(data64,SIZE,"int64_t constant subtract");
	test_constant<int64_t, custom_multiple_constant_sub<int64_t> >(data64,SIZE,"int64_t multiple constant subtracts");

	test_constant<int64_t, custom_constant_multiply<int64_t> >(data64,SIZE,"int64_t constant multiply");
	test_constant<int64_t, custom_multiple_constant_multiply<int64_t> >(data64,SIZE,"int64_t multiple constant multiplies");
	test_constant<int64_t, custom_multiple_constant_multiply2<int64_t> >(data64,SIZE,"int64_t multiple constant multiply2");

	test_constant<int64_t, custom_constant_divide<int64_t> >(data64,SIZE,"int64_t constant divide");
	test_constant<int64_t, custom_multiple_constant_divide<int64_t> >(data64,SIZE,"int64_t multiple constant divides");
	test_constant<int64_t, custom_multiple_constant_divide2<int64_t> >(data64,SIZE,"int64_t multiple constant divide2");
	
	test_constant<int64_t, custom_multiple_constant_mixed<int64_t> >(data64,SIZE,"int64_t multiple constant mixed");

	test_constant<int64_t, custom_constant_and<int64_t> >(data64,SIZE,"int64_t constant and");
	test_constant<int64_t, custom_multiple_constant_and<int64_t> >(data64,SIZE,"int64_t multiple constant and");

	test_constant<int64_t, custom_constant_or<int64_t> >(data64,SIZE,"int64_t constant or");
	test_constant<int64_t, custom_multiple_constant_or<int64_t> >(data64,SIZE,"int64_t multiple constant or");

	test_constant<int64_t, custom_constant_xor<int64_t> >(data64,SIZE,"int64_t constant xor");
	test_constant<int64_t, custom_multiple_constant_xor<int64_t> >(data64,SIZE,"int64_t multiple constant xor");

	summarize("int64_t constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );


// unsigned64
	::fill(data64unsigned, data64unsigned+SIZE, uint64_t(init_value));
	
	iterations = base_iterations;
	test_constant<uint64_t, custom_two<uint64_t> >(data64unsigned,SIZE,"uint64_t constant");
	test_constant<uint64_t, custom_add_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t add constants");
	test_constant<uint64_t, custom_sub_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t subtract constants");
	test_constant<uint64_t, custom_multiply_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t multiply constants");
	test_constant<uint64_t, custom_divide_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t divide constants");
	test_constant<uint64_t, custom_mod_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t mod constants");
	test_constant<uint64_t, custom_equal_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t equal constants");
	test_constant<uint64_t, custom_notequal_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t notequal constants");
	test_constant<uint64_t, custom_greaterthan_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t greater than constants");
	test_constant<uint64_t, custom_lessthan_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t less than constants");
	test_constant<uint64_t, custom_greaterthanequal_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t greater than equal constants");
	test_constant<uint64_t, custom_lessthanequal_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t less than equal constants");
	test_constant<uint64_t, custom_and_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t and constants");
	test_constant<uint64_t, custom_or_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t or constants");
	test_constant<uint64_t, custom_xor_constants<uint64_t> >(data64unsigned,SIZE,"uint64_t xor constants");
	
	summarize("uint64_t simple constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );
	
	
	iterations = base_iterations / 10;
	test_constant<uint64_t, custom_constant_add<uint64_t> >(data64unsigned,SIZE,"uint64_t constant add");
	test_constant<uint64_t, custom_multiple_constant_add<uint64_t> >(data64unsigned,SIZE,"uint64_t multiple constant adds");

	test_constant<uint64_t, custom_constant_sub<uint64_t> >(data64unsigned,SIZE,"uint64_t constant subtract");
	test_constant<uint64_t, custom_multiple_constant_sub<uint64_t> >(data64unsigned,SIZE,"uint64_t multiple constant subtracts");

	test_constant<uint64_t, custom_constant_multiply<uint64_t> >(data64unsigned,SIZE,"uint64_t constant multiply");
	test_constant<uint64_t, custom_multiple_constant_multiply<uint64_t> >(data64unsigned,SIZE,"uint64_t multiple constant multiplies");
	test_constant<uint64_t, custom_multiple_constant_multiply2<uint64_t> >(data64unsigned,SIZE,"uint64_t multiple constant multiply2");

	test_constant<uint64_t, custom_constant_divide<uint64_t> >(data64unsigned,SIZE,"uint64_t constant divide");
	test_constant<uint64_t, custom_multiple_constant_divide<uint64_t> >(data64unsigned,SIZE,"uint64_t multiple constant divides");
	test_constant<uint64_t, custom_multiple_constant_divide2<uint64_t> >(data64unsigned,SIZE,"uint64_t multiple constant divide2");
	
	test_constant<uint64_t, custom_multiple_constant_mixed<uint64_t> >(data64unsigned,SIZE,"uint64_t multiple constant mixed");

	test_constant<uint64_t, custom_constant_and<uint64_t> >(data64unsigned,SIZE,"uint64_t constant and");
	test_constant<uint64_t, custom_multiple_constant_and<uint64_t> >(data64unsigned,SIZE,"uint64_t multiple constant and");

	test_constant<uint64_t, custom_constant_or<uint64_t> >(data64unsigned,SIZE,"uint64_t constant or");
	test_constant<uint64_t, custom_multiple_constant_or<uint64_t> >(data64unsigned,SIZE,"uint64_t multiple constant or");

	test_constant<uint64_t, custom_constant_xor<uint64_t> >(data64unsigned,SIZE,"uint64_t constant xor");
	test_constant<uint64_t, custom_multiple_constant_xor<uint64_t> >(data64unsigned,SIZE,"uint64_t multiple constant xor");

	summarize("uint64_t constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );



// float
	::fill(dataFloat, dataFloat+SIZE, float(init_value));

	iterations = base_iterations;
	test_constant<float, custom_two<float> >(dataFloat,SIZE,"float constant");
	test_constant<float, custom_add_constants<float> >(dataFloat,SIZE,"float add constants");
	test_constant<float, custom_sub_constants<float> >(dataFloat,SIZE,"float subtract constants");
	test_constant<float, custom_multiply_constants<float> >(dataFloat,SIZE,"float multiply constants");
	test_constant<float, custom_divide_constants<float> >(dataFloat,SIZE,"float divide constants");
	
	summarize("float simple constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );
	
	
	iterations = base_iterations / 10;
	test_constant<float, custom_constant_add<float> >(dataFloat,SIZE,"float constant add");
	test_constant<float, custom_multiple_constant_add<float> >(dataFloat,SIZE,"float multiple constant adds");

	test_constant<float, custom_constant_sub<float> >(dataFloat,SIZE,"float constant subtract");
	test_constant<float, custom_multiple_constant_sub<float> >(dataFloat,SIZE,"float multiple constant subtracts");

	test_constant<float, custom_constant_multiply<float> >(dataFloat,SIZE,"float constant multiply");
	test_constant<float, custom_multiple_constant_multiply<float> >(dataFloat,SIZE,"float multiple constant multiplies");
	test_constant<float, custom_multiple_constant_multiply2<float> >(dataFloat,SIZE,"float multiple constant multiply2");

	test_constant<float, custom_constant_divide<float> >(dataFloat,SIZE,"float constant divide");
	test_constant<float, custom_multiple_constant_divide<float> >(dataFloat,SIZE,"float multiple constant divides");
	test_constant<float, custom_multiple_constant_divide2<float> >(dataFloat,SIZE,"float multiple constant divide2");
	
	test_constant<float, custom_multiple_constant_mixed<float> >(dataFloat,SIZE,"float multiple constant mixed");

	summarize("float constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );


// double
	::fill(dataDouble, dataDouble+SIZE, double(init_value));

	iterations = base_iterations;
	test_constant<double, custom_two<double> >(dataDouble,SIZE,"double constant");
	test_constant<double, custom_add_constants<double> >(dataDouble,SIZE,"double add constants");
	test_constant<double, custom_sub_constants<double> >(dataDouble,SIZE,"double subtract constants");
	test_constant<double, custom_multiply_constants<double> >(dataDouble,SIZE,"double multiply constants");
	test_constant<double, custom_divide_constants<double> >(dataDouble,SIZE,"double divide constants");
	
	summarize("double simple constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );

	
	iterations = base_iterations / 10;
	test_constant<double, custom_constant_add<double> >(dataDouble,SIZE,"double constant add");
	test_constant<double, custom_multiple_constant_add<double> >(dataDouble,SIZE,"double multiple constant adds");

	test_constant<double, custom_constant_sub<double> >(dataDouble,SIZE,"double constant subtract");
	test_constant<double, custom_multiple_constant_sub<double> >(dataDouble,SIZE,"double multiple constant subtracts");

	test_constant<double, custom_constant_multiply<double> >(dataDouble,SIZE,"double constant multiply");
	test_constant<double, custom_multiple_constant_multiply<double> >(dataDouble,SIZE,"double multiple constant multiplies");
	test_constant<double, custom_multiple_constant_multiply2<double> >(dataDouble,SIZE,"double multiple constant multiply2");

	test_constant<double, custom_constant_divide<double> >(dataDouble,SIZE,"double constant divide");
	test_constant<double, custom_multiple_constant_divide<double> >(dataDouble,SIZE,"double multiple constant divides");
	test_constant<double, custom_multiple_constant_divide2<double> >(dataDouble,SIZE,"double multiple constant divide2");
	
	test_constant<double, custom_multiple_constant_mixed<double> >(dataDouble,SIZE,"double multiple constant mixed");

	summarize("double constant folding", SIZE, iterations, kDontShowGMeans, kDontShowPenalty );

	
	return 0;
}

// the end
/******************************************************************************/
/******************************************************************************/
