14 Commits

12 changed files with 650 additions and 20 deletions

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@@ -228,6 +228,8 @@ set(TRANSFORMS
set(CFG src/CFGraph/IR.cpp
src/CFGraph/IR.h
src/CFGraph/IR_domTree.cpp
src/CFGraph/IR_domTree.h
src/CFGraph/CFGraph.cpp
src/CFGraph/CFGraph.h
src/CFGraph/RD_subst.cpp

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@@ -1149,6 +1149,16 @@ map<FuncInfo*, vector<BBlock*>> buildCFG(const map<string, CommonBlock*>& common
if (settings.withRD)
buildReachingDefs(result, settings);
if (settings.withDominators)
{
auto t = high_resolution_clock::now();
for (auto& [func, bblocks] : result)
SAPFOR::buildDominatorTree(bblocks);
auto msec = duration_cast<milliseconds>(high_resolution_clock::now() - t).count();
__spf_print(1, " dominator build time is %.3f sec\n", msec / 1000.);
}
if (SgFile::switchToFile(oldFile) == -1)
printInternalError(convertFileName(__FILE__).c_str(), __LINE__);

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@@ -6,6 +6,7 @@
#include <vector>
#include "IR.h"
#include "IR_domTree.h"
namespace SAPFOR
{
@@ -24,7 +25,7 @@ namespace SAPFOR
std::vector<BasicBlock*> next;
std::vector<BasicBlock*> prev;
BasicBlock* directDominator = NULL;
//reaching definition
std::map<SAPFOR::Argument*, std::set<int>> RD_in, RD_out;
@@ -34,6 +35,7 @@ namespace SAPFOR
bool addLive(const std::map<SAPFOR::Argument*, std::vector<SAPFOR::BasicBlock*>>& to_add, bool in);
std::map<SAPFOR::Argument*, std::vector<SAPFOR::BasicBlock*>> getLive(bool in) const;
bool removeLive(SAPFOR::Argument* to_remove, bool in);
public:
BasicBlock() { num = lastNumBlock++; }
BasicBlock(IR_Block* item);
@@ -42,6 +44,7 @@ namespace SAPFOR
void addInstruction(IR_Block* item);
void addPrev(BasicBlock* prev_) { prev.push_back(prev_); }
void addNext(BasicBlock* next_) { next.push_back(next_); }
void setDom(BasicBlock* dom) { directDominator = dom; }
int removePrev(BasicBlock* removed);
int removeNext(BasicBlock* removed);
@@ -69,7 +72,11 @@ namespace SAPFOR
const std::vector<IR_Block*>& getInstructions() const { return instructions; }
const std::vector<BasicBlock*>& getNext() const { return next; }
const std::vector<BasicBlock*>& getPrev() const { return prev; }
BasicBlock* getDom() const
{
return directDominator;
}
/*
* FOR LIVE ANALYSIS
*/
@@ -105,13 +112,15 @@ namespace SAPFOR
bool withDVM = false;
bool withCallsInBlocks = false; // separate each F_CALL to own BasicBlock
bool withCallFrom = true;
bool withDominators = true;
explicit CFG_Settings(int) { }
explicit CFG_Settings(bool atLeastOneIterInLoop = false, bool withRD = true, bool withRegisters = false,
bool withDVM = false, bool withSPF = false, bool withCallsInBlocks = false, bool withCallFrom = true) :
bool withDVM = false, bool withSPF = false, bool withCallsInBlocks = false,
bool withCallFrom = true, bool withDominators = true) :
atLeastOneIterInLoop(atLeastOneIterInLoop), withRD(withRD), withRegisters(withRegisters), withDVM(withDVM), withSPF(withSPF),
withCallsInBlocks(withCallsInBlocks), withCallFrom(withCallFrom)
withCallsInBlocks(withCallsInBlocks), withCallFrom(withCallFrom), withDominators(withDominators)
{ }
};
}
@@ -146,4 +155,4 @@ static inline void deleteCFG(std::map<FuncInfo*, std::vector<SAPFOR::BasicBlock*
byFunc.second.clear();
}
cfg.clear();
}
}

102
src/CFGraph/IR_domTree.cpp Normal file
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@@ -0,0 +1,102 @@
#include "dvm.h"
#include "IR_domTree.h"
namespace SAPFOR {
void DominatorFinder::DFS(BasicBlock* v, int parent_num) {
dfs_num[v] = n;
vertex[n] = n;
semi[n] = n;
label[n] = n;
ancestor[n] = -1;
parent[n] = parent_num;
vertices[n++] = v;
for (const auto& w : v->getNext()) {
if (dfs_num[w] == -1)
DFS(w, dfs_num[v]);
}
}
void DominatorFinder::Compress(int v) {
if (ancestor[ancestor[v]] != -1) {
Compress(ancestor[v]);
if (semi[label[ancestor[v]]] < semi[label[v]])
label[v] = label[ancestor[v]];
ancestor[v] = ancestor[ancestor[v]];
}
}
int DominatorFinder::Eval(int v) {
if (ancestor[v] == -1)
return v;
Compress(v);
return label[v];
}
void DominatorFinder::Link(int v, int w) {
ancestor[w] = v;
}
DominatorFinder::DominatorFinder(std::vector<BasicBlock*>& blocks) {
if (blocks.empty())
return;
entry = blocks[0];
n = 0;
for (auto block : blocks)
dfs_num[block] = -1;
int max_size = blocks.size();
vertices.resize(max_size);
parent.assign(max_size, -1);
semi.assign(max_size, -1);
vertex.assign(max_size, -1);
ancestor.assign(max_size, -1);
label.assign(max_size, -1);
bucket.resize(max_size);
DFS(entry, -1);
for (int i = n - 1; i > 0; --i) {
int w = vertex[i];
for (BasicBlock* v : vertices[w]->getPrev()) {
if (dfs_num[v] == -1)
continue;
int u = Eval(dfs_num[v]);
if (semi[u] < semi[w])
semi[w] = semi[u];
}
bucket[vertex[semi[w]]].push_back(w);
Link(parent[w], w);
for (int v : bucket[parent[w]])
{
int u = Eval(v);
if (semi[u] < semi[v])
vertices[v]->setDom(vertices[u]);
else
vertices[v]->setDom(vertices[parent[w]]);
}
bucket[parent[w]].clear();
}
for (int i = 1; i < n; ++i) {
int w = vertex[i];
if (vertices[w]->getDom() != vertices[vertex[semi[w]]])
vertices[w]->setDom(vertices[w]->getDom()->getDom());
}
entry->setDom(nullptr);
}
void buildDominatorTree(std::vector<BasicBlock*>& blocks) {
DominatorFinder finder(blocks);
}
}

35
src/CFGraph/IR_domTree.h Normal file
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@@ -0,0 +1,35 @@
#pragma once
#include <vector>
#include <map>
#include <unordered_map>
#include "CFGraph.h"
// Lengauer, Thomas. A fast algorithm for finding dominators in a flowgraph / Thomas Lengauer, Robert Endre Tarjan
// ACM Transactions on Programming Languages and Systems (TOPLAS). <20> 1979. <20> Vol. 1, no. 1. <20> Pp. 121<32>141.
namespace SAPFOR {
class BasicBlock;
class DominatorFinder {
private:
BasicBlock* entry;
std::vector<BasicBlock*> vertices;
std::unordered_map<BasicBlock*, int> dfs_num;
std::vector<int> parent, semi, vertex, ancestor, label;
std::vector<std::vector<int>> bucket;
int n;
void DFS(BasicBlock* v, int parent_num);
void Compress(int v);
int Eval(int v);
void Link(int v, int w);
public:
DominatorFinder(std::vector<BasicBlock*>& blocks);
};
void buildDominatorTree(std::vector<BasicBlock*>& blocks);
}

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@@ -2,16 +2,20 @@
#include <cstdio>
#include <cstring>
#include <cstring>
#include <fstream>
#include <iostream>
#include <cstdlib>
#include <set>
#include <string>
#include <vector>
#include <algorithm>
#include <tuple>
#include "CFGraph/CFGraph.h"
#include "CFGraph/IR.h"
#include "Distribution/Array.h"
#include "dvm.h"
#include "errors.h"
#include "SgUtils.h"
#include "graph_calls.h"
@@ -19,15 +23,418 @@
#include "projectParameters.h"
using namespace std;
using std::set;
using std::map;
using std::string;
using std::vector;
using std::tuple;
using std::pair;
using std::make_tuple;
using std::find_if;
map< pair<string, int>, set<string>>
findParameters(const map<string, vector<DefUseList>> &defUseByFunctions,
const map<string, CommonBlock*> &commonBlocks,
const map<string, vector<FuncInfo*>> &allFuncInfo)
static map<FuncInfo*, vector<SAPFOR::Instruction*>> call_sites;
enum class MODE
{
map< pair<string, int>, set<string>> foundParameters;
return foundParameters;
}
BEFORE,
AFTER
};
static tuple<FuncInfo*, SAPFOR::Instruction*, SAPFOR::BasicBlock*>
stmtToIR(const map<FuncInfo*, vector<SAPFOR::BasicBlock*>>& CFGraph, SgStatement* stmt)
{
SgStatement* cur = stmt;
cur->switchToFile();
while (cur->variant() != PROC_HEDR && cur->variant() != PROG_HEDR && cur->variant() != FUNC_HEDR)
cur = cur->controlParent();
string funcName = ((SgProcHedrStmt*)cur)->nameWithContains();
int stmtID = stmt->id();
for (const auto& [func, bblocks] : CFGraph)
{
if (func->funcName != funcName)
continue;
for (auto basicBlock : bblocks)
for (auto ins : basicBlock->getInstructions())
if (stmtID == ins->getInstruction()->getOperator()->id())
return make_tuple(func, ins->getInstruction(), basicBlock);
}
printInternalError(convertFileName(__FILE__).c_str(), __LINE__);
return { NULL, NULL, NULL };
}
static tuple<FuncInfo*, SAPFOR::Instruction*, SAPFOR::BasicBlock*>
IRByNumber(const map<FuncInfo*, vector<SAPFOR::BasicBlock*>>& CFGraph, int num)
{
if (num < 0)
return { NULL, NULL, NULL };
for (const auto& [func, bblocks] : CFGraph)
for (auto byBB : bblocks)
if (byBB->getInstructions().front()->getNumber() <= num && byBB->getInstructions().back()->getNumber() >= num)
return make_tuple(func, getInstructionByNumber(byBB->getInstructions(), num), byBB);
printInternalError(convertFileName(__FILE__).c_str(), __LINE__);
return { NULL, NULL, NULL };
}
template<typename Iterator>
static void processArgument(set<SAPFOR::Argument*>& worklist,
SAPFOR::Argument* arg,
Iterator instr, Iterator first_instr)
{
if (arg == NULL)
return;
if (arg->getType() == SAPFOR::CFG_ARG_TYPE::REG)
extract_vars_from_reg(worklist, arg, instr, first_instr);
else if (arg->getType() == SAPFOR::CFG_ARG_TYPE::VAR)
worklist.insert(arg);
}
template<typename Iterator>
static void extract_vars_from_reg(set<SAPFOR::Argument*>& worklist,
SAPFOR::Argument* reg,
Iterator instr, Iterator first_instr)
{
for (; instr >= first_instr; instr--)
{
if ((*instr)->getInstruction()->getResult() == reg)
{
processArgument(worklist, (*instr)->getInstruction()->getArg1(), instr, first_instr);
processArgument(worklist, (*instr)->getInstruction()->getArg2(), instr, first_instr);
return;
}
}
}
static void lookup_for_vars(set<tuple<SgStatement*, string, MODE>>& where_to_add,
set<SAPFOR::Argument*>& worklist,
SAPFOR::Instruction* instr,
SAPFOR::BasicBlock* bblock,
FuncInfo* cur_func,
const map<FuncInfo*, vector<SAPFOR::BasicBlock*>>& fullIR)
{
while (bblock)
{
auto first_instr = bblock->getInstructions().begin();
auto cur_instr = find_if(first_instr, bblock->getInstructions().end(), [instr](SAPFOR::IR_Block* i) {
return i->getInstruction() == instr;
});
for (; cur_instr >= bblock->getInstructions().begin(); --cur_instr)
{
auto instr = (*cur_instr)->getInstruction();
auto result_arg = instr->getResult();
auto arg1 = instr->getArg1();
auto arg2 = instr->getArg2();
if (worklist.count(result_arg))
{
worklist.erase(result_arg);
processArgument(worklist, arg1, cur_instr, first_instr);
processArgument(worklist, arg2, cur_instr, first_instr);
}
if (instr->getOperation() == SAPFOR::CFG_OP::PARAM && worklist.count(arg1))
{
// skip to F_CALL
auto f_call_instr = cur_instr;
while ((*f_call_instr)->getInstruction()->getOperation() != SAPFOR::CFG_OP::F_CALL)
f_call_instr++;
if ((*f_call_instr)->getInstruction()->getArg1()->getValue() == "_READ")
{
auto stmt_before = (*f_call_instr)->getInstruction()->getOperator();
auto filename = stmt_before->fileName();
auto line = stmt_before->lineNumber();
auto var_name = arg1->getValue().substr(arg1->getValue().find('%') + 1);
__spf_print(1, "Please specify value of variable %s on line %d of file %s\n", arg1->getValue().c_str(), line, filename);
auto toAdd = make_tuple(stmt_before, var_name, MODE::AFTER);
where_to_add.insert(toAdd);
worklist.erase(arg1);
}
}
}
const auto& RD = bblock->getRD_In();
map<SAPFOR::BasicBlock*, SAPFOR::Instruction*> group_by_block;
set<SAPFOR::Argument*> to_erase;
for (auto& arg : worklist)
{
if (RD.count(arg))
{
if (RD.at(arg).size() == 1 && *RD.at(arg).begin() == SAPFOR::CFG_VAL::UNINIT)
__spf_print(1, "variable %s has no definition\n", arg->getValue().c_str());
else if (RD.at(arg).size() > 1)
{
auto stmt_after = (*first_instr)->getInstruction()->getOperator();
auto filename = stmt_after->fileName();
auto line = stmt_after->lineNumber();
auto var_name = arg->getValue().substr(arg->getValue().find('%') + 1);
__spf_print(1, "variable %s has multiple reaching definitions, further analysis is impossible\n", arg->getValue().c_str());
__spf_print(1, "Please specify value of variable %s on line %d of file %s\n", arg->getValue().c_str(), line, filename);
auto toAdd = make_tuple(stmt_after, var_name, MODE::BEFORE);
where_to_add.insert(toAdd);
to_erase.insert(arg);
}
else
{
auto instr_num = *RD.at(arg).begin();
auto [func, instr, bblock] = IRByNumber(fullIR, instr_num);
if (cur_func == func && (group_by_block[bblock] == NULL || group_by_block[bblock]->getNumber() < instr_num))
group_by_block[bblock] = instr;
}
}
}
for (const auto& arg : to_erase)
worklist.erase(arg);
while (bblock && group_by_block.find(bblock) == group_by_block.end())
bblock = bblock->getDom();
if (bblock)
instr = group_by_block[bblock];
}
// other variables are from global scope
const auto& RD = fullIR.at(cur_func).front()->getRD_In();
for (auto& arg : worklist)
{
if (arg->isMemGlobal())
{
set<int> found_rd;
if (RD.count(arg))
found_rd = RD.at(arg);
if (found_rd.size() == 0)
{
auto call_instr = call_sites[cur_func].size() ? call_sites[cur_func].front() : NULL;
while (call_instr && found_rd.size() == 0)
{
auto [call_func, _, call_bblock] = IRByNumber(fullIR, call_instr->getNumber());
if (call_bblock->getRD_Out().count(arg))
found_rd = call_bblock->getRD_Out().at(arg);
call_instr = call_sites[call_func].size() ? call_sites[call_func].front() : NULL;
}
}
if (found_rd.size() == 1 && *found_rd.begin() == SAPFOR::CFG_VAL::UNINIT)
__spf_print(1, "variable %s has no definition\n", arg->getValue().c_str());
else if (found_rd.size() > 1)
{
auto first_instr = fullIR.at(cur_func).front()->getInstructions().begin();
auto stmt_after = (*first_instr)->getInstruction()->getOperator();
auto filename = stmt_after->fileName();
auto line = stmt_after->lineNumber();
auto var_name = arg->getValue().substr(arg->getValue().find('%') + 1);
__spf_print(1, "variable %s has multiple reaching definitions, further analysis is impossible\n", arg->getValue().c_str());
__spf_print(1, "Please specify value of variable %s on line %d of file %s\n", arg->getValue().c_str(), line, filename);
auto toAdd = make_tuple(stmt_after, var_name, MODE::BEFORE);
where_to_add.insert(toAdd);
}
else
{
auto instr_num = *found_rd.begin();
auto [func, instr, bblock] = IRByNumber(fullIR, instr_num);
set<SAPFOR::Argument*> new_worklist = { arg };
lookup_for_vars(where_to_add, new_worklist, instr, bblock, func, fullIR);
}
}
}
for (const auto& call_instr : call_sites[cur_func])
{
set<SAPFOR::Argument*> new_worklist;
auto params_num = cur_func->funcParams.countOfPars;
auto [call_func, _, call_bblock] = IRByNumber(fullIR, call_instr->getNumber());
auto first_instr = call_bblock->getInstructions().begin();
auto cur_instr = find_if(first_instr, call_bblock->getInstructions().end(), [call_instr](SAPFOR::IR_Block* i) {
return i->getInstruction() == call_instr;
});
for (auto& arg : worklist)
{
if (arg->getMemType() == SAPFOR::CFG_MEM_TYPE::FUNC_PARAM_)
{
auto param_num = stoi(arg->getValue().substr(arg->getValue().find('%', arg->getValue().find('%') + 1) + 1));
auto param_instr = (cur_instr - (params_num - param_num));
auto param_arg = (*param_instr)->getInstruction()->getArg1();
processArgument(new_worklist, param_arg, param_instr, first_instr);
}
}
lookup_for_vars(where_to_add, new_worklist, call_instr, call_bblock, call_func, fullIR);
}
}
static void handle_single_allocate(set<tuple<SgStatement*, string, MODE>>& where_to_add,
SgStatement* alloc_statement,
const map<FuncInfo*, vector<SAPFOR::BasicBlock*>>& fullIR)
{
auto [func, instr, bblock] = stmtToIR(fullIR, alloc_statement);
auto first_instr = bblock->getInstructions().begin();
auto cur_instr = find_if(first_instr, bblock->getInstructions().end(), [instr](SAPFOR::IR_Block* i) {
return i->getInstruction() == instr;
});
auto alloc_instr = cur_instr;
// skip to F_CALL _ALLOC n
while ((*alloc_instr)->getInstruction()->getOperation() != SAPFOR::CFG_OP::F_CALL ||
(*alloc_instr)->getInstruction()->getArg1()->getValue() != "_ALLOC")
alloc_instr++;
auto arrays_num = stoi((*alloc_instr)->getInstruction()->getArg2()->getValue());
set<SAPFOR::Argument*> worklist;
for (int i = 0; i < arrays_num; i++)
{
auto param_instr = --alloc_instr;
auto param_reg = (*param_instr)->getInstruction()->getArg1();
while ((*param_instr)->getInstruction()->getOperation() != SAPFOR::CFG_OP::LOAD ||
(*param_instr)->getInstruction()->getResult() != param_reg)
param_instr--;
auto dimensions_num = stoi((*param_instr)->getInstruction()->getArg2()->getValue());
for (int j = 0; j < dimensions_num; j++)
{
auto ref_instr = --param_instr;
if ((*ref_instr)->getInstruction()->getOperation() == SAPFOR::CFG_OP::RANGE)
{
vector<SAPFOR::Argument*> range_args = { (*ref_instr)->getInstruction()->getArg1(),
(*ref_instr)->getInstruction()->getArg2(),
(*ref_instr)->getInstruction()->getResult() };
for (auto& arg : range_args)
processArgument(worklist, arg, ref_instr, first_instr);
}
else
{
auto arg = (*ref_instr)->getInstruction()->getArg1();
processArgument(worklist, arg, ref_instr, first_instr);
}
}
}
lookup_for_vars(where_to_add, worklist, instr, bblock, func, fullIR);
}
static void handle_single_loop(set<tuple<SgStatement*, string, MODE>>& where_to_add,
SgStatement* loop_stmt,
const map<FuncInfo*, vector<SAPFOR::BasicBlock*>>& fullIR)
{
auto [func, instr, bblock] = stmtToIR(fullIR, loop_stmt);
auto cur_instr = bblock->getInstructions().end() - 1;
set<SAPFOR::Argument*> worklist;
extract_vars_from_reg(worklist, (*cur_instr)->getInstruction()->getResult(), cur_instr, bblock->getInstructions().begin());
lookup_for_vars(where_to_add, worklist, (*cur_instr)->getInstruction(), bblock, func, fullIR);
}
void findParameters(ResultSet& foundParameters,
map<FuncInfo*, vector<SAPFOR::BasicBlock*>>& fullIR,
const map<tuple<int, string, string>, pair<DIST::Array*, DIST::ArrayAccessInfo*>>& declaredArrays)
{
set<tuple<SgStatement*, string, MODE>> where_to_add;
map<string, FuncInfo*> name_to_func;
for (const auto& [func, _] : fullIR)
name_to_func[func->funcName] = func;
for (auto& [func, bblocks] : fullIR)
{
for (const auto& block : bblocks)
{
for (const auto& ir_block : block->getInstructions())
{
auto instr = ir_block->getInstruction();
if (instr->getOperation() == SAPFOR::CFG_OP::F_CALL)
{
auto func_name = instr->getArg1()->getValue();
auto func_info = name_to_func.find(func_name);
if (func_info != name_to_func.end())
call_sites[func_info->second].push_back(instr);
}
}
}
}
set<SgStatement*> alloc_statements;
for (const auto& [func, bblocks] : fullIR)
{
for (const auto& block : bblocks)
{
for (auto instr = block->getInstructions().begin(); instr != block->getInstructions().end(); ++instr)
{
auto op = (*instr)->getInstruction()->getOperator();
if (op && op->variant() == ALLOCATE_STMT)
alloc_statements.insert(op);
}
}
}
set<SgStatement*> for_statements;
// Find all FOR statements in the program
for (const auto& [func, bblocks] : fullIR)
{
for (const auto& block : bblocks)
{
for (auto instr = block->getInstructions().begin(); instr != block->getInstructions().end(); ++instr)
{
auto op = (*instr)->getInstruction()->getOperator();
if (op && op->variant() == FOR_NODE)
for_statements.insert(op);
}
}
}
for (const auto& alloc_statement : alloc_statements)
handle_single_allocate(where_to_add, alloc_statement, fullIR);
for (const auto& stmt : for_statements)
handle_single_loop(where_to_add, stmt, fullIR);
for (const auto& [stmt_before, var_name, mode] : where_to_add)
{
stmt_before->switchToFile();
SgVariableSymb* var_symb = new SgVariableSymb(var_name.c_str());
SgVarRefExp* var = new SgVarRefExp(var_symb);
SgExprListExp* ex = new SgExprListExp();
auto assgn_op = new SgExpression(ASSGN_OP, var, NULL);
ex->setLhs(assgn_op);
SgExpression* parameter_op = new SgExpression(SPF_PARAMETER_OP, ex);
auto dir_list = new SgExprListExp();
dir_list->setLhs(parameter_op);
SgStatement* toAdd = new SgStatement(SPF_ANALYSIS_DIR, NULL, NULL, dir_list, NULL, NULL);
toAdd->setlineNumber(stmt_before->lineNumber());
toAdd->setLocalLineNumber(stmt_before->lineNumber());
toAdd->setFileId(stmt_before->getFileId());
toAdd->setProject(stmt_before->getProject());
//NOTE: only for debbuging, results will be transferred to the visualizer
/*if (mode == MODE::AFTER)
stmt_before->insertStmtAfter(*toAdd, *stmt_before->controlParent());
else
stmt_before->insertStmtBefore(*toAdd, *stmt_before->controlParent());*/
foundParameters.insert(make_tuple(stmt_before->fileName(), stmt_before->lineNumber(), var_name));
}
}

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@@ -1,3 +1,14 @@
#pragma once
std::map< std::pair<std::string, int>, std::set<std::string>> findParameters(const std::map<std::string, std::vector<DefUseList>> &defUseByFunctions, const std::map<std::string, CommonBlock*> &commonBlocks, const std::map<std::string, std::vector<FuncInfo*>> &allFuncInfo);
#include <map>
#include <string>
#include <set>
#include <vector>
#include "../GraphCall/graph_calls.h"
using ResultSet = std::set<std::tuple<std::string, int, std::string>>;
void findParameters(ResultSet& foundParameters,
std::map<FuncInfo*, std::vector<SAPFOR::BasicBlock*>>& fullIR,
const std::map<std::tuple<int, std::string, std::string>, std::pair<DIST::Array*, DIST::ArrayAccessInfo*>>& declaredArrays);

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@@ -1895,7 +1895,7 @@ static bool runAnalysis(SgProject &project, const int curr_regime, const bool ne
else if (curr_regime == RENAME_SYMBOLS)
runRenameSymbols(&project, commonBlocks);
else if (curr_regime == FIND_PARAMETERS)
parametersOfProject = findParameters(defUseByFunctions, commonBlocks, allFuncInfo);
findParameters(parametersOfProject, fullIR, declaredArrays);
else if (curr_regime == BUILD_IR)
{
auto CFG_forFile = buildCFG(commonBlocks, allFuncInfo_IR, SAPFOR::CFG_Settings(0));

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@@ -169,7 +169,7 @@ std::map<int, UserFiles> filesInfo; // information about open,close,write and re
//
//for FIND_PARAMETERS
std::map< std::pair<std::string, int>, std::set<std::string>> parametersOfProject; // [file, line] -> set[vars]
std::set<std::tuple<std::string, int, std::string>> parametersOfProject; // [file, line, varname]
//
//for GET_MIN_MAX_BLOCK_DIST

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@@ -1,5 +1,7 @@
#pragma once
#include "../Distribution/Array.h"
enum varType { SCALAR, ARRAY, CONST, ANOTHER };
struct CommonVariableUse

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@@ -1,3 +1,3 @@
#pragma once
#define VERSION_SPF "2424"
#define VERSION_SPF "2425"

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@@ -0,0 +1,52 @@
program dynamic_array_maximum_3d
implicit none
integer :: n1, n2, n3, n4 , k, i, j, l, a
integer :: sum3
real :: max_element
real, allocatable :: array(:,:,:), array2(:,:,:), array3(:,:,:)
write(*, *) "Enter 3 integers"
read(*, *) n, m, k
m = 100
if (1 .eq. 1) then
a = 3
else if (2 .eq. 1) then
a = 4
endif
m = m + 1
k = m * 1000 + n * 10
allocate(array(n, m + n, k + m + n), &
&array2(k, m + n, k), &
&array3(k, m, k + n))
call random_seed()
do i = 1, n1
do j = 1, m * n1
do l = 1, k * m * n1
call random_number(array(i,j,l))
array(i,j,l) = int(array(i,j,l) * 100)
end do
end do
end do
max_element = array(1,1,1)
do i = 1, n1
do j = 1, m
do l = 1, k
max_element = MAX(array(i,j,l), max_element)
end do
end do
end do
deallocate(array, array2, array3)
write(*, *) max_element
end program dynamic_array_maximum_3d
! function sum3(x, y, z)
! implicit none
! integer :: x, y, z
! integer :: sum3
! sum3 = x + y + z
! end function sum3