#define NULL ((void *)0)
typedef unsigned long size_t; // Customize by platform.
typedef long intptr_t;
typedef unsigned long uintptr_t;
typedef long scalar_t__; // Either arithmetic or pointer type.
/* By default, we understand bool (as a convenience). */
typedef int bool;
#define false 0
#define true 1

/* Forward declarations */

/* Type definitions */

/* Variables and functions */
int /*<<< orphan*/ printf(char *);
void DisplayHelp(int DummyArgument) {
  printf("Please read the NUPACK User Guide for detailed instructions.\n");
  printf("Usage: distributions [OPTIONS] PREFIX\n");
  printf("Calculate concentrations for each complex specified\n");
  printf("Options:\n");
  printf(
      " -ordered             perform the calculation on ordered complexes\n");
  printf(" -maxstates BIG       maximum number of states to enumerate\n");
  printf(
      " -writestates         write an output file describing properties for\n");
  printf("                      all population states of the system\n");
  printf(
      " -sort METHOD         change the sort method for the .eq output file\n");
  printf("                      0: same as input\n");
  printf("                      1: sort by concentration of complex; if "
         "-ordered\n");
  printf("                         specified, then sort by concentration of "
         "ordered\n");
  printf("                         complex\n");
  printf("                      2: sort by concentration of complex and then, "
         "if\n");
  printf("                         if -ordered is selected, by the "
         "concentration\n");
  printf("                         each constituent ordered complex\n");
  printf("                      3: output is sorted by complex/ordered complex "
         "id\n");
  printf(
      "                      4: output is sorted by strands in the complex,\n");
  printf(
      "                         then by strand quantities, then by ordered\n");
  printf("                         complex identifier\n");
  printf(" -quiet               suppress output to the screen\n");
  printf("\n");
}


x86 assembly (clang, -O0):
<DisplayHelp>:
push   %rbp
mov    %rsp,%rbp
sub    $0x10,%rsp
mov    %edi,-0x4(%rbp)
lea    0xede(%rip),%rdi
call   1030 <printf@plt>
lea    0xf10(%rip),%rdi
call   1030 <printf@plt>
lea    0xf2b(%rip),%rdi
call   1030 <printf@plt>
lea    0xf54(%rip),%rdi
call   1030 <printf@plt>
lea    0xf52(%rip),%rdi
call   1030 <printf@plt>
lea    0xf8a(%rip),%rdi
call   1030 <printf@plt>
lea    0xfbb(%rip),%rdi
call   1030 <printf@plt>
lea    0xff5(%rip),%rdi
call   1030 <printf@plt>
lea    0x1024(%rip),%rdi
call   1030 <printf@plt>
lea    0x105e(%rip),%rdi
call   1030 <printf@plt>
lea    0x107a(%rip),%rdi
call   1030 <printf@plt>
lea    0x10b6(%rip),%rdi
call   1030 <printf@plt>
lea    0x10f5(%rip),%rdi
call   1030 <printf@plt>
lea    0x110b(%rip),%rdi
call   1030 <printf@plt>
lea    0x1147(%rip),%rdi
call   1030 <printf@plt>
lea    0x1183(%rip),%rdi
call   1030 <printf@plt>
lea    0x11b2(%rip),%rdi
call   1030 <printf@plt>
lea    0x11ef(%rip),%rdi
call   1030 <printf@plt>
lea    0x1229(%rip),%rdi
call   1030 <printf@plt>
lea    0x1262(%rip),%rdi
call   1030 <printf@plt>
lea    0x1283(%rip),%rdi
call   1030 <printf@plt>
lea    0x1203(%rip),%rdi
call   1030 <printf@plt>
add    $0x10,%rsp
pop    %rbp
ret

x86 assembly (clang, -O2):
<DisplayHelp>:
push   %rax
lea    0xed8(%rip),%rdi
call   1040 <puts@plt>
lea    0xf09(%rip),%rdi
call   1040 <puts@plt>
lea    0xf23(%rip),%rdi
call   1040 <puts@plt>
lea    0xf4b(%rip),%rdi
call   1040 <puts@plt>
lea    0xf48(%rip),%rdi
call   1040 <puts@plt>
lea    0xf7f(%rip),%rdi
call   1040 <puts@plt>
lea    0xfaf(%rip),%rdi
call   1040 <puts@plt>
lea    0xfe8(%rip),%rdi
call   1040 <puts@plt>
lea    0x1016(%rip),%rdi
call   1040 <puts@plt>
lea    0x104f(%rip),%rdi
call   1040 <puts@plt>
lea    0x106a(%rip),%rdi
call   1040 <puts@plt>
lea    0x10a5(%rip),%rdi
call   1040 <puts@plt>
lea    0x10e3(%rip),%rdi
call   1040 <puts@plt>
lea    0x10f8(%rip),%rdi
call   1040 <puts@plt>
lea    0x1133(%rip),%rdi
call   1040 <puts@plt>
lea    0x116e(%rip),%rdi
call   1040 <puts@plt>
lea    0x119c(%rip),%rdi
call   1040 <puts@plt>
lea    0x11d8(%rip),%rdi
call   1040 <puts@plt>
lea    0x1211(%rip),%rdi
call   1040 <puts@plt>
lea    0x1249(%rip),%rdi
call   1040 <puts@plt>
lea    0x1269(%rip),%rdi
call   1040 <puts@plt>
mov    $0xa,%edi
pop    %rax
jmp    1030 <putchar@plt>

LLVM IR (-O0):
@.str = [62 x i8] c"Please read the NUPACK User Guide for detailed instructions.\0A\00"
@.str.1 = [39 x i8] c"Usage: distributions [OPTIONS] PREFIX\0A\00"
@.str.2 = [53 x i8] c"Calculate concentrations for each complex specified\0A\00"
@.str.3 = [10 x i8] c"Options:\0A\00"
@.str.4 = [68 x i8] c" -ordered perform the calculation on ordered complexes\0A\00"
@.str.5 = [61 x i8] c" -maxstates BIG maximum number of states to enumerate\0A\00"
@.str.6 = [70 x i8] c" -writestates write an output file describing properties for\0A\00"
@.str.7 = [59 x i8] c" all population states of the system\0A\00"
@.str.8 = [70 x i8] c" -sort METHOD change the sort method for the .eq output file\0A\00"
@.str.9 = [40 x i8] c" 0: same as input\0A\00"
@.str.10 = [72 x i8] c" 1: sort by concentration of complex; if -ordered\0A\00"
@.str.11 = [75 x i8] c" specified, then sort by concentration of ordered\0A\00"
@.str.12 = [34 x i8] c" complex\0A\00"
@.str.13 = [72 x i8] c" 2: sort by concentration of complex and then, if\0A\00"
@.str.14 = [72 x i8] c" if -ordered is selected, by the concentration\0A\00"
@.str.15 = [59 x i8] c" each constituent ordered complex\0A\00"
@.str.16 = [73 x i8] c" 3: output is sorted by complex/ordered complex id\0A\00"
@.str.17 = [70 x i8] c" 4: output is sorted by strands in the complex,\0A\00"
@.str.18 = [69 x i8] c" then by strand quantities, then by ordered\0A\00"
@.str.19 = [45 x i8] c" complex identifier\0A\00"
@.str.20 = [53 x i8] c" -quiet suppress output to the screen\0A\00"
@.str.21 = [2 x i8] c"\0A\00"
define void @DisplayHelp(i32 %0) {
%2 = alloca i32
store i32 %0, i32* %2
%3 = call i32 @printf(i8* getelementptr inbounds ([62 x i8], [62 x i8]* @.str, i64 0, i64 0))
%4 = call i32 @printf(i8* getelementptr inbounds ([39 x i8], [39 x i8]* @.str.1, i64 0, i64 0))
%5 = call i32 @printf(i8* getelementptr inbounds ([53 x i8], [53 x i8]* @.str.2, i64 0, i64 0))
%6 = call i32 @printf(i8* getelementptr inbounds ([10 x i8], [10 x i8]* @.str.3, i64 0, i64 0))
%7 = call i32 @printf(i8* getelementptr inbounds ([68 x i8], [68 x i8]* @.str.4, i64 0, i64 0))
%8 = call i32 @printf(i8* getelementptr inbounds ([61 x i8], [61 x i8]* @.str.5, i64 0, i64 0))
%9 = call i32 @printf(i8* getelementptr inbounds ([70 x i8], [70 x i8]* @.str.6, i64 0, i64 0))
%10 = call i32 @printf(i8* getelementptr inbounds ([59 x i8], [59 x i8]* @.str.7, i64 0, i64 0))
%11 = call i32 @printf(i8* getelementptr inbounds ([70 x i8], [70 x i8]* @.str.8, i64 0, i64 0))
%12 = call i32 @printf(i8* getelementptr inbounds ([40 x i8], [40 x i8]* @.str.9, i64 0, i64 0))
%13 = call i32 @printf(i8* getelementptr inbounds ([72 x i8], [72 x i8]* @.str.10, i64 0, i64 0))
%14 = call i32 @printf(i8* getelementptr inbounds ([75 x i8], [75 x i8]* @.str.11, i64 0, i64 0))
%15 = call i32 @printf(i8* getelementptr inbounds ([34 x i8], [34 x i8]* @.str.12, i64 0, i64 0))
%16 = call i32 @printf(i8* getelementptr inbounds ([72 x i8], [72 x i8]* @.str.13, i64 0, i64 0))
%17 = call i32 @printf(i8* getelementptr inbounds ([72 x i8], [72 x i8]* @.str.14, i64 0, i64 0))
%18 = call i32 @printf(i8* getelementptr inbounds ([59 x i8], [59 x i8]* @.str.15, i64 0, i64 0))
%19 = call i32 @printf(i8* getelementptr inbounds ([73 x i8], [73 x i8]* @.str.16, i64 0, i64 0))
%20 = call i32 @printf(i8* getelementptr inbounds ([70 x i8], [70 x i8]* @.str.17, i64 0, i64 0))
%21 = call i32 @printf(i8* getelementptr inbounds ([69 x i8], [69 x i8]* @.str.18, i64 0, i64 0))
%22 = call i32 @printf(i8* getelementptr inbounds ([45 x i8], [45 x i8]* @.str.19, i64 0, i64 0))
%23 = call i32 @printf(i8* getelementptr inbounds ([53 x i8], [53 x i8]* @.str.20, i64 0, i64 0))
%24 = call i32 @printf(i8* getelementptr inbounds ([2 x i8], [2 x i8]* @.str.21, i64 0, i64 0))
ret void
}

LLVM IR (-O2):
@str = [61 x i8] c"Please read the NUPACK User Guide for detailed instructions.\00"
@str.22 = [38 x i8] c"Usage: distributions [OPTIONS] PREFIX\00"
@str.23 = [52 x i8] c"Calculate concentrations for each complex specified\00"
@str.24 = [9 x i8] c"Options:\00"
@str.25 = [67 x i8] c" -ordered perform the calculation on ordered complexes\00"
@str.26 = [60 x i8] c" -maxstates BIG maximum number of states to enumerate\00"
@str.27 = [69 x i8] c" -writestates write an output file describing properties for\00"
@str.28 = [58 x i8] c" all population states of the system\00"
@str.29 = [69 x i8] c" -sort METHOD change the sort method for the .eq output file\00"
@str.30 = [39 x i8] c" 0: same as input\00"
@str.31 = [71 x i8] c" 1: sort by concentration of complex; if -ordered\00"
@str.32 = [74 x i8] c" specified, then sort by concentration of ordered\00"
@str.33 = [33 x i8] c" complex\00"
@str.34 = [71 x i8] c" 2: sort by concentration of complex and then, if\00"
@str.35 = [71 x i8] c" if -ordered is selected, by the concentration\00"
@str.36 = [58 x i8] c" each constituent ordered complex\00"
@str.37 = [72 x i8] c" 3: output is sorted by complex/ordered complex id\00"
@str.38 = [69 x i8] c" 4: output is sorted by strands in the complex,\00"
@str.39 = [68 x i8] c" then by strand quantities, then by ordered\00"
@str.40 = [44 x i8] c" complex identifier\00"
@str.41 = [52 x i8] c" -quiet suppress output to the screen\00"
define void @DisplayHelp(i32 %0) {
%2 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([61 x i8], [61 x i8]* @str, i64 0, i64 0))
%3 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([38 x i8], [38 x i8]* @str.22, i64 0, i64 0))
%4 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([52 x i8], [52 x i8]* @str.23, i64 0, i64 0))
%5 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([9 x i8], [9 x i8]* @str.24, i64 0, i64 0))
%6 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([67 x i8], [67 x i8]* @str.25, i64 0, i64 0))
%7 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([60 x i8], [60 x i8]* @str.26, i64 0, i64 0))
%8 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([69 x i8], [69 x i8]* @str.27, i64 0, i64 0))
%9 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([58 x i8], [58 x i8]* @str.28, i64 0, i64 0))
%10 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([69 x i8], [69 x i8]* @str.29, i64 0, i64 0))
%11 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([39 x i8], [39 x i8]* @str.30, i64 0, i64 0))
%12 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([71 x i8], [71 x i8]* @str.31, i64 0, i64 0))
%13 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([74 x i8], [74 x i8]* @str.32, i64 0, i64 0))
%14 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([33 x i8], [33 x i8]* @str.33, i64 0, i64 0))
%15 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([71 x i8], [71 x i8]* @str.34, i64 0, i64 0))
%16 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([71 x i8], [71 x i8]* @str.35, i64 0, i64 0))
%17 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([58 x i8], [58 x i8]* @str.36, i64 0, i64 0))
%18 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([72 x i8], [72 x i8]* @str.37, i64 0, i64 0))
%19 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([69 x i8], [69 x i8]* @str.38, i64 0, i64 0))
%20 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([68 x i8], [68 x i8]* @str.39, i64 0, i64 0))
%21 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([44 x i8], [44 x i8]* @str.40, i64 0, i64 0))
%22 = tail call i32 @puts(i8* dereferenceable(1) getelementptr inbounds ([52 x i8], [52 x i8]* @str.41, i64 0, i64 0))
%23 = tail call i32 @putchar(i32 10)
ret void
}