예제 #1
0
 def processModuleBeginMatch(self, moduleBeginMatch):
     super(H90toF90Converter,
           self).processModuleBeginMatch(moduleBeginMatch)
     self.implementation.processModuleBegin(self.currModuleName)
     self.currModule = Module(self.currModuleName,
                              self.moduleNodesByName[self.currModuleName])
     self.prepareLine(moduleBeginMatch.group(0), self.tab_outsideSub)
예제 #2
0
 def processModuleBeginMatch(self, moduleBeginMatch):
     super(ApplicationModelGenerator,
           self).processModuleBeginMatch(moduleBeginMatch)
     self.implementation.processModuleBegin(self.currModuleName)
     self.currModule = Module(self.currModuleName,
                              self.moduleNodesByName[self.currModuleName])
     self.modulesInFile.append(self.currModule)
     self.prepareLine(moduleBeginMatch.group(0), self.tab_outsideSub)
예제 #3
0
파일: module.py 프로젝트: muslax/aces-api
async def find_modules(ids: List[str]) -> List[Module]:
    filter = []
    for id in ids:
        if ObjectId.is_valid(id):
            filter.append({"_id": ObjectId(id)})
    if len(filter) == 0:
        return []

    collection = get_collection(DOCTYPE_MODULE)
    modules: List[Module] = []
    cursor = collection.find({"$or": filter})
    async for row in cursor:
        module = Module(**row)
        modules.append(module.dict())
    return modules
예제 #4
0
 def processModuleBeginMatch(self, moduleBeginMatch):
     super(H90toF90Converter, self).processModuleBeginMatch(moduleBeginMatch)
     self.implementation.processModuleBegin(self.currModuleName)
     self.currModule = Module(
         self.currModuleName,
         self.moduleNodesByName[self.currModuleName]
     )
     self.prepareLine(moduleBeginMatch.group(0), self.tab_outsideSub)
예제 #5
0
 def processModuleBeginMatch(self, moduleBeginMatch):
     super(ApplicationModelGenerator, self).processModuleBeginMatch(moduleBeginMatch)
     self.implementation.processModuleBegin(self.currModuleName)
     self.currModule = Module(
         self.currModuleName,
         self.moduleNodesByName[self.currModuleName]
     )
     self.modulesInFile.append(self.currModule)
     self.prepareLine(moduleBeginMatch.group(0), self.tab_outsideSub)
예제 #6
0
# -*- coding: utf-8 -*-
from models.module import Module
from main import app, db

app.app_context().push()
module_query = Module.query.all()
for module in module_query:
    db.session.delete(module)
m = Module("10001", "主页", "home", "/home", 1)
db.session.add(m)
m = Module("10002", "常用在线工具", "tool", "/tools", 2)
db.session.add(m)
m = Module("10003", "占位符2", "question", "/2", 3)
db.session.add(m)
m = Module("10004", "占位符3", "question", "/3", 4)
db.session.add(m)
m = Module("10005", "占位符4", "question", "/4", 5)

db.session.commit()
예제 #7
0
class H90toF90Converter(H90CallGraphAndSymbolDeclarationsParser):
    currentLineNeedsPurge = False
    tab_insideSub = "\t\t"
    tab_outsideSub = "\t"

    def __init__(self,
                 cgDoc,
                 implementationsByTemplateName,
                 outputStream=sys.stdout,
                 moduleNodesByName=None,
                 parallelRegionData=None,
                 symbolAnalysisByRoutineNameAndSymbolName=None,
                 symbolsByModuleNameAndSymbolName=None,
                 symbolsByRoutineNameAndSymbolName=None):
        super(H90toF90Converter, self).__init__(
            cgDoc,
            moduleNodesByName=moduleNodesByName,
            parallelRegionData=parallelRegionData,
            implementationsByTemplateName=implementationsByTemplateName)
        self.outputStream = outputStream
        self.currSubroutineImplementationNeedsToBeCommented = False
        self.currParallelIterators = []
        self.currRoutine = None
        self.currRegion = None
        self.currParallelRegion = None
        self.currModule = None
        self.currCallee = None
        self.codeSanitizer = FortranCodeSanitizer()
        self.currParallelRegionRelationNode = None
        self.currParallelRegionTemplateNode = None
        self.prepareLineCalledForCurrentLine = False
        self.preparedBy = None
        try:
            if symbolAnalysisByRoutineNameAndSymbolName != None:
                self.symbolAnalysisByRoutineNameAndSymbolName = symbolAnalysisByRoutineNameAndSymbolName
            else:
                symbolAnalyzer = SymbolDependencyAnalyzer(self.cgDoc)
                self.symbolAnalysisByRoutineNameAndSymbolName = symbolAnalyzer.getSymbolAnalysisByRoutine(
                )
            if symbolsByModuleNameAndSymbolName != None:
                self.symbolsByModuleNameAndSymbolName = symbolsByModuleNameAndSymbolName
            else:
                self.symbolsByModuleNameAndSymbolName = getSymbolsByModuleNameAndSymbolName(
                    self.cgDoc, self.moduleNodesByName,
                    self.symbolAnalysisByRoutineNameAndSymbolName)

            if symbolsByRoutineNameAndSymbolName != None:
                self.symbolsByRoutineNameAndSymbolName = symbolsByRoutineNameAndSymbolName
            else:
                self.symbolsByRoutineNameAndSymbolName = getSymbolsByRoutineNameAndSymbolName(
                    self.cgDoc, self.routineNodesByProcName,
                    self.parallelRegionTemplatesByProcName,
                    self.symbolAnalysisByRoutineNameAndSymbolName)
        except UsageError as e:
            logging.error('Error: %s' % (str(e)),
                          extra={
                              "hfLineNo": currLineNo,
                              "hfFile": currFile
                          })
            sys.exit(1)
        except Exception as e:
            exc_type, exc_obj, exc_tb = sys.exc_info()
            fname = os.path.split(exc_tb.tb_frame.f_code.co_filename)[1]
            logging.critical('Error when initializing h90 conversion: %s' %
                             (str(e)),
                             extra={
                                 "hfLineNo": currLineNo,
                                 "hfFile": currFile
                             })
            logging.info(traceback.format_exc())
            sys.exit(1)

    def switchToNewRegion(self, regionClassName="Region", oldRegion=None):
        logging.debug("switching to new %s on line %i; called from:\n%s" %
                      (regionClassName, self.lineNo, stacktrace()))
        self.currRegion = self.currRoutine.createRegion(
            regionClassName, oldRegion)

    def endRegion(self):
        logging.debug("ending region on line %i" % (self.lineNo))
        self.currRegion = None

    def prepareActiveParallelRegion(self, implementationFunctionName):
        routineNode = self.routineNodesByProcName.get(self.currRoutine.name)
        if not routineNode:
            raise Exception("no definition found for routine '%s'",
                            self.currRoutine.name)
        if routineNode.getAttribute('parallelRegionPosition') != 'within':
            return False
        templates = self.parallelRegionTemplatesByProcName.get(
            self.currRoutine.name)
        if not templates or len(templates) == 0:
            raise Exception("Unexpected: no parallel template definition found for routine '%s'" \
                %(self.currRoutine.name))
        if len(
                templates
        ) > 1 and self.implementation.multipleParallelRegionsPerSubroutineAllowed != True:
            raise Exception(
                "Unexpected: more than one parallel region templates found for subroutine '%s' containing a parallelRegion directive \
This is not allowed for implementations using %s.\
                " %
                (self.currRoutine.name, type(self.implementation).__name__))
        if implementationFunctionName == "parallelRegionBegin":
            self.switchToNewRegion("ParallelRegion")
            self.currParallelRegion = self.currRegion
        implementationAttr = getattr(self, 'implementation')
        functionAttr = getattr(implementationAttr, implementationFunctionName)
        self.prepareLine(
            functionAttr(self.currParallelRegionTemplateNode,
                         self.branchAnalyzer.level), self.tab_insideSub)
        if implementationFunctionName == "parallelRegionEnd":
            self.switchToNewRegion(oldRegion=self.currParallelRegion)
            self.currParallelRegion = None
        return True

    def filterOutSymbolsAlreadyAliveInCurrentScope(self, symbolList):
        return [
            symbol for symbol in symbolList
            if not symbol.analysis \
            or ( \
                symbol.name not in self.symbolsByRoutineNameAndSymbolName.get(self.currRoutine.name, {}) \
                and symbol.analysis.argumentIndexByRoutineName.get(self.currRoutine.name, -1) == -1 \
            )
        ]

    def processModuleSymbolImportAndGetAdjustedLine(self, line, symbols):
        if len(symbols) == 0:
            return line
        return self.implementation.getImportSpecification(
            symbols,
            RegionType.MODULE_DECLARATION,
            parallelRegionPosition=None,
            parallelRegionTemplates=[],
        )

    def processCallMatch(self, subProcCallMatch):
        super(H90toF90Converter, self).processCallMatch(subProcCallMatch)
        calleeNode = self.routineNodesByProcName.get(self.currCalleeName)
        if calleeNode:
            self.currCallee = AnalyzableRoutine(
                self.currCalleeName, self.currModule, calleeNode,
                self.parallelRegionTemplatesByProcName.get(
                    self.currCalleeName),
                self.implementationForTemplateName(
                    calleeNode.getAttribute('implementationTemplate')))
        else:
            self.currCallee = Routine(self.currCalleeName, self.currModule)
        self.currRoutine.loadCall(self.currCallee)
        remainingCall = subProcCallMatch.group(2)
        if isinstance(self.currCallee, AnalyzableRoutine):
            self.analyseSymbolInformationOnCurrentLine(
                subProcCallMatch.group(0), isInsideSubroutineCall=True)
        self.currCallee.loadArguments(self.currArguments)
        self.currRegion.loadPassedInSymbolsByName(
            self.symbolsPassedInCurrentCallByName)
        self.prepareLine("", self.tab_insideSub)
        if self.state != "inside_subroutine_call" and not (
                self.state == "inside_branch"
                and self.stateBeforeBranch == "inside_subroutine_call"):
            self.currCallee = None
            self.processCallPost()

    def processModuleDeclarationLineAndGetAdjustedLine(self, line):
        baseline = line
        if self.currentLineNeedsPurge:
            baseline = ""  #$$$ this seems dangerous
        adjustedLine = self.processModuleSymbolImportAndGetAdjustedLine(
            baseline, self.importsOnCurrentLine)
        if len(self.symbolsOnCurrentLine) > 0:
            adjustedLine = self.implementation.adjustDeclarationForDevice(
                adjustedLine, self.symbolsOnCurrentLine,
                RegionType.MODULE_DECLARATION,
                self.currRoutine.node.getAttribute('parallelRegionPosition')
                if self.currRoutine else "inside")
        return adjustedLine

    def processTemplateMatch(self, templateMatch):
        super(H90toF90Converter, self).processTemplateMatch(templateMatch)
        self.prepareLine("", "")

    def processTemplateEndMatch(self, templateEndMatch):
        super(H90toF90Converter,
              self).processTemplateEndMatch(templateEndMatch)
        self.prepareLine("", "")

    def processBranchMatch(self, branchMatch):
        super(H90toF90Converter, self).processBranchMatch(branchMatch)
        self.prepareLine("", "")
        self.currentLineNeedsPurge = True

    def processModuleBeginMatch(self, moduleBeginMatch):
        super(H90toF90Converter,
              self).processModuleBeginMatch(moduleBeginMatch)
        self.implementation.processModuleBegin(self.currModuleName)
        self.currModule = Module(self.currModuleName,
                                 self.moduleNodesByName[self.currModuleName])
        self.prepareLine(moduleBeginMatch.group(0), self.tab_outsideSub)

    def processModuleEndMatch(self, moduleEndMatch):
        self.prepareLine(moduleEndMatch.group(0), self.tab_outsideSub)
        self.outputStream.write(
            self.codeSanitizer.sanitizeLines(self.currModule.implemented() +
                                             "\n\n"))
        self.currModule = None
        self.implementation.processModuleEnd()
        super(H90toF90Converter, self).processModuleEndMatch(moduleEndMatch)

    def processProcBeginMatch(self, subProcBeginMatch):
        super(H90toF90Converter, self).processProcBeginMatch(subProcBeginMatch)
        self.currRoutine = self.currModule.createRoutine(
            self.currSubprocName,
            self.routineNodesByProcName.get(self.currSubprocName),
            self.parallelRegionTemplatesByProcName.get(self.currSubprocName),
            self.implementation)
        self.currRoutine.loadSymbolsByName(self.currSymbolsByName)
        self.currRoutine.loadArguments(self.currArguments)
        self.currRoutine.loadGlobalContext(
            self.moduleNodesByName,
            self.symbolAnalysisByRoutineNameAndSymbolName,
            self.symbolsByModuleNameAndSymbolName)
        self.currRegion = self.currRoutine.currRegion
        self.prepareLine("", self.tab_insideSub)

    def processProcExitPoint(self, line, isSubroutineEnd):
        if isSubroutineEnd:
            self.prepareLine("", self.tab_outsideSub)
        else:
            self.switchToNewRegion("RoutineEarlyExitRegion")
            self.prepareLine(line, self.tab_insideSub)
            self.switchToNewRegion()

    def processProcEndMatch(self, subProcEndMatch):
        self.currRoutine.loadAllImports(self.currRoutineImportsDict)
        self.endRegion()
        self.processProcExitPoint(subProcEndMatch.group(0),
                                  isSubroutineEnd=True)
        self.currSubroutineImplementationNeedsToBeCommented = False
        self.currRoutine = None
        super(H90toF90Converter, self).processProcEndMatch(subProcEndMatch)

    def processParallelRegionMatch(self, parallelRegionMatch):
        super(H90toF90Converter,
              self).processParallelRegionMatch(parallelRegionMatch)
        logging.debug(
            "...parallel region starts on line %i with active symbols %s" %
            (self.lineNo, str(self.currSymbolsByName.values())),
            extra={
                "hfLineNo": currLineNo,
                "hfFile": currFile
            })
        self.switchToNewRegion("ParallelRegion")
        self.currParallelRegion = self.currRegion
        self.currParallelRegion.loadActiveParallelRegionTemplate(
            self.currParallelRegionTemplateNode)
        self.prepareLine("", self.tab_insideSub)

    def processParallelRegionEndMatch(self, parallelRegionEndMatch):
        super(H90toF90Converter,
              self).processParallelRegionEndMatch(parallelRegionEndMatch)
        self.prepareLine("", self.tab_insideSub)
        self.switchToNewRegion(oldRegion=self.currParallelRegion)
        self.currParallelRegion = None
        self.currParallelIterators = []
        self.currParallelRegionTemplateNode = None
        self.currParallelRegionRelationNode = None

    def processDomainDependantMatch(self, domainDependantMatch):
        super(H90toF90Converter,
              self).processDomainDependantMatch(domainDependantMatch)
        self.prepareLine("", "")

    def processDomainDependantEndMatch(self, domainDependantEndMatch):
        super(H90toF90Converter,
              self).processDomainDependantEndMatch(domainDependantEndMatch)
        self.prepareLine("", "")

    def processContainsMatch(self, containsMatch):
        super(H90toF90Converter, self).processContainsMatch(containsMatch)
        self.prepareLine(containsMatch.group(0), self.tab_outsideSub)

    def processDataStatementMatch(self, dataStatementMatch):
        if not self.currRegion or not isinstance(self.currRegion,
                                                 RoutineSpecificationRegion):
            raise Exception("invalid place for a data statement")
        self.currRegion.loadDataSpecificationLine(dataStatementMatch.group(0))
        self.prepareLine("", "")

    def processInterfaceMatch(self, interfaceMatch):
        super(H90toF90Converter, self).processInterfaceMatch(interfaceMatch)
        self.prepareLine(interfaceMatch.group(0), self.tab_outsideSub)

    def processInterfaceEndMatch(self, interfaceEndMatch):
        super(H90toF90Converter,
              self).processInterfaceEndMatch(interfaceEndMatch)
        self.prepareLine(interfaceEndMatch.group(0), self.tab_outsideSub)

    def processTypeMatch(self, typeMatch):
        super(H90toF90Converter, self).processTypeMatch(typeMatch)
        self.prepareLine(typeMatch.group(0), self.tab_outsideSub)

    def processTypeEndMatch(self, typeEndMatch):
        super(H90toF90Converter, self).processTypeEndMatch(typeEndMatch)
        self.prepareLine(typeEndMatch.group(0), self.tab_outsideSub)

    def processNoMatch(self, line):
        super(H90toF90Converter, self).processNoMatch(line)
        self.prepareLine(line, "")

    def processInsideModuleState(self, line):
        super(H90toF90Converter, self).processInsideModuleState(line)
        if self.state not in ['inside_module', 'inside_branch'] \
        or (self.state == 'inside_branch' and self.stateBeforeBranch != 'inside_module'):
            return
        if not self.prepareLineCalledForCurrentLine:
            self.prepareLine(
                self.processModuleDeclarationLineAndGetAdjustedLine(line),
                self.tab_outsideSub)

    def processInsideDeclarationsState(self, line):
        '''process everything that happens per h90 declaration line'''
        subProcCallMatch = self.patterns.subprocCallPattern.match(line)
        parallelRegionMatch = self.patterns.parallelRegionPattern.match(line)
        domainDependantMatch = self.patterns.domainDependantPattern.match(line)
        subProcEndMatch = self.patterns.subprocEndPattern.match(line)
        templateMatch = self.patterns.templatePattern.match(line)
        templateEndMatch = self.patterns.templateEndPattern.match(line)
        branchMatch = self.patterns.branchPattern.match(line)
        dataStatementMatch = self.patterns.dataStatementPattern.match(line)

        if dataStatementMatch:
            self.processDataStatementMatch(dataStatementMatch)
            return
        if branchMatch:
            self.processBranchMatch(branchMatch)
            return
        if subProcCallMatch:
            self.switchToNewRegion("CallRegion")
            self.processCallMatch(subProcCallMatch)
            self.switchToNewRegion()
            return
        if subProcEndMatch:
            self.processProcEndMatch(subProcEndMatch)
            if self.state == "inside_branch":
                self.stateBeforeBranch = 'inside_module_body'
            else:
                self.state = 'inside_module_body'
            return
        if parallelRegionMatch:
            raise UsageError("parallel region without parallel dependants")
        if self.patterns.subprocBeginPattern.match(line):
            raise UsageError("subprocedure within subprocedure not allowed")
        if templateMatch:
            raise UsageError(
                "template directives are only allowed outside of subroutines")
        if templateEndMatch:
            raise UsageError(
                "template directives are only allowed outside of subroutines")

        if domainDependantMatch:
            if self.state == "inside_branch":
                self.stateBeforeBranch = 'inside_domainDependantRegion'
            else:
                self.state = 'inside_domainDependantRegion'
            self.switchToNewRegion()
            self.processDomainDependantMatch(domainDependantMatch)
            return

        importMatch1 = self.patterns.importPattern.match(line)
        importMatch2 = self.patterns.singleMappedImportPattern.match(line)
        importMatch3 = self.patterns.importAllPattern.match(line)
        specTuple = parseSpecification(line)
        specificationStatementMatch = self.patterns.specificationStatementPattern.match(
            line)
        if not ( \
            line.strip() == "" \
            or importMatch1 \
            or importMatch2 \
            or importMatch3 \
            or specTuple[0] \
            or specificationStatementMatch \
        ):
            if self.state == "inside_branch":
                self.stateBeforeBranch = "inside_subroutine_body"
            else:
                self.state = "inside_subroutine_body"
            self.switchToNewRegion()
            self.processInsideSubroutineBodyState(line)
            return

        self.analyseSymbolInformationOnCurrentLine(line)
        #we are never calling super and every match that would have prepared a line, would already have been covered
        #with a return -> safe to call prepareLine here.
        self.prepareLine(line, self.tab_insideSub)

    def processInsideSubroutineBodyState(self, line):
        '''process everything that happens per h90 subroutine body line'''
        branchMatch = self.patterns.branchPattern.match(line)
        if branchMatch:
            self.processBranchMatch(branchMatch)
            return

        if self.patterns.branchEndPattern.match(line):
            self.prepareLine("", "")
            return

        subProcCallMatch = self.patterns.subprocCallPattern.match(line)
        if subProcCallMatch:
            self.switchToNewRegion("CallRegion")
            self.processCallMatch(subProcCallMatch)
            self.switchToNewRegion()
            return

        subProcEndMatch = self.patterns.subprocEndPattern.match(line)
        if subProcEndMatch:
            self.processProcEndMatch(subProcEndMatch)
            if self.state == "inside_branch":
                self.stateBeforeBranch = "inside_module_body"
            else:
                self.state = 'inside_module_body'
            return

        if self.patterns.earlyReturnPattern.match(line):
            self.processProcExitPoint(line, isSubroutineEnd=False)
            return

        if self.currSubroutineImplementationNeedsToBeCommented:
            self.prepareLine("! " + line, "")
            return

        parallelRegionMatch = self.patterns.parallelRegionPattern.match(line)
        if (parallelRegionMatch) \
        and self.currRoutine.node.getAttribute('parallelRegionPosition') == "within":
            templateRelations = self.parallelRegionTemplateRelationsByProcName.get(
                self.currRoutine.name)
            if templateRelations == None or len(templateRelations) == 0:
                raise Exception(
                    "No parallel region template relation found for this region."
                )
            for templateRelation in templateRelations:
                startLine = templateRelation.getAttribute("startLine")
                if startLine in [None, '']:
                    continue
                startLineInt = 0
                try:
                    startLineInt = int(startLine)
                except ValueError:
                    raise Exception(
                        "Invalid startLine definition for parallel region template relation: %s\n. All active template relations: %s\nRoutine node: %s"
                        % (templateRelation.toxml(), [
                            templateRelation.toxml()
                            for templateRelation in templateRelations
                        ], self.currRoutine.node.toprettyxml()))
                if startLineInt == self.lineNo:
                    self.currParallelRegionRelationNode = templateRelation
                    break
            else:
                raise Exception(
                    "No parallel region template relation was matched for the current linenumber."
                )
            logging.debug(
                "parallel region detected on line %i with template relation %s"
                % (self.lineNo, self.currParallelRegionRelationNode.toxml()),
                extra={
                    "hfLineNo": currLineNo,
                    "hfFile": currFile
                })
            templates = self.parallelRegionTemplatesByProcName.get(
                self.currRoutine.name)
            if templates == None or len(templates) == 0:
                raise Exception(
                    "No parallel region template found for this region.")
            activeTemplateID = self.currParallelRegionRelationNode.getAttribute(
                "id")
            for template in templates:
                if template.getAttribute("id") == activeTemplateID:
                    self.currParallelRegionTemplateNode = template
                    break
            else:
                raise Exception(
                    "No parallel region template has matched the active template ID."
                )
            self.currParallelIterators = self.implementation.getIterators(
                self.currParallelRegionTemplateNode)
            if len(self.currParallelIterators) > 0:
                self.processParallelRegionMatch(parallelRegionMatch)
                if self.state == "inside_branch":
                    self.stateBeforeBranch = "inside_parallelRegion"
                else:
                    self.state = 'inside_parallelRegion'
            else:
                self.prepareLine("", "")
            return
        elif parallelRegionMatch:
            #this parallel region does not apply to us
            self.prepareLine("", "")
            return

        if (self.patterns.parallelRegionEndPattern.match(line)):
            #note: this may occur when a parallel region is discarded because it doesn't apply
            #-> state stays within body and the region end line will trap here
            self.prepareLine("", "")
            return

        domainDependantMatch = self.patterns.domainDependantPattern.match(line)
        if (domainDependantMatch):
            if self.state == "inside_branch":
                self.stateBeforeBranch = "inside_domainDependantRegion"
            else:
                self.state = 'inside_domainDependantRegion'
            self.processDomainDependantMatch(domainDependantMatch)
            return

        if (self.patterns.subprocBeginPattern.match(line)):
            raise Exception("subprocedure within subprocedure not allowed")

        self.analyseSymbolInformationOnCurrentLine(line,
                                                   isInSubroutineBody=True)
        self.prepareLine(line, self.tab_insideSub)

    def processInsideParallelRegionState(self, line):
        branchMatch = self.patterns.branchPattern.match(line)
        if branchMatch:
            self.processBranchMatch(branchMatch)
            return

        subProcCallMatch = self.patterns.subprocCallPattern.match(line)
        if subProcCallMatch:
            if subProcCallMatch.group(
                    1) not in self.routineNodesByProcName.keys():
                message = self.implementation.warningOnUnrecognizedSubroutineCallInParallelRegion(
                    self.currRoutine.name, subProcCallMatch.group(1))
                if message != "":
                    logging.warning(message,
                                    extra={
                                        "hfLineNo": currLineNo,
                                        "hfFile": currFile
                                    })
            self.switchToNewRegion("CallRegion")
            self.processCallMatch(subProcCallMatch)
            self.switchToNewRegion()
            return

        parallelRegionEndMatch = self.patterns.parallelRegionEndPattern.match(
            line)
        if (parallelRegionEndMatch):
            self.processParallelRegionEndMatch(parallelRegionEndMatch)
            self.state = "inside_subroutine_body"
            if self.state == "inside_branch":
                self.stateBeforeBranch = "inside_subroutine_body"
            else:
                self.state = 'inside_subroutine_body'
            return

        if (self.patterns.parallelRegionPattern.match(line)):
            raise Exception("parallelRegion within parallelRegion not allowed")
        if (self.patterns.subprocEndPattern.match(line)):
            raise Exception("subprocedure end before @end parallelRegion")
        if (self.patterns.subprocBeginPattern.match(line)):
            raise Exception("subprocedure within subprocedure not allowed")

        adjustedLine = ""
        whileLoopMatch = self.patterns.whileLoopPattern.match(line)
        loopMatch = self.patterns.loopPattern.match(line)
        if whileLoopMatch == None and loopMatch != None:
            adjustedLine += self.implementation.loopPreparation().strip(
            ) + '\n'
        adjustedLine += line
        self.analyseSymbolInformationOnCurrentLine(line,
                                                   isInSubroutineBody=True)
        self.prepareLine(adjustedLine, self.tab_insideSub)

    def processInsideDomainDependantRegionState(self, line):
        super(H90toF90Converter,
              self).processInsideDomainDependantRegionState(line)
        if self.state == "inside_domainDependantRegion":
            self.prepareLine("", "")

    def processInsideModuleDomainDependantRegionState(self, line):
        super(H90toF90Converter,
              self).processInsideModuleDomainDependantRegionState(line)
        if self.state == "inside_moduleDomainDependantRegion":
            self.prepareLine("", "")

    def processInsideBranch(self, line):
        super(H90toF90Converter, self).processInsideBranch(line)
        if self.state != "inside_branch":
            self.prepareLine("", "")

    def processInsideIgnore(self, line):
        super(H90toF90Converter, self).processInsideIgnore(line)
        self.prepareLine("", "")

    def processLine(self, line):
        self.currentLineNeedsPurge = False
        self.prepareLineCalledForCurrentLine = False
        super(H90toF90Converter, self).processLine(line)
        if not self.prepareLineCalledForCurrentLine:
            raise Exception(
                "Line has never been prepared - there is an error in the transpiler logic. Please contact the Hybrid Fortran maintainers. Parser state: %s; before branch: %s"
                % (self.state, self.stateBeforeBranch))

    def processFile(self, fileName):
        self.outputStream.write(self.implementation.filePreparation(fileName))
        super(H90toF90Converter, self).processFile(fileName)

    def putLine(self, line):
        if line == "":
            return
        if self.currRegion:
            self.currRegion.loadLine(
                line, self.symbolsOnCurrentLine + self.importsOnCurrentLine)
        elif self.currRoutine:
            self.currRoutine.loadLine(
                line, self.symbolsOnCurrentLine + self.importsOnCurrentLine)
        elif self.currModule:
            self.currModule.loadLine(line)
        else:
            self.outputStream.write(self.codeSanitizer.sanitizeLines(line))

    #TODO: remove tab argument everywhere
    def prepareLine(self, line, tab):
        if self.prepareLineCalledForCurrentLine:
            raise Exception(
                "Line has already been prepared by %s - there is an error in the transpiler logic. Please contact the Hybrid Fortran maintainers. Parser state: %s; before branch: %s"
                % (self.preparedBy, self.state, self.stateBeforeBranch))
        self.preparedBy = ""
        if ConversionOptions.Instance().debugPrint:
            import inspect
            self.preparedBy = inspect.getouterframes(inspect.currentframe(),
                                                     2)[1][3]
        self.prepareLineCalledForCurrentLine = True
        self.putLine(line)
예제 #8
0
 def get(self):
     module = Module.objects().to_json()
     return Response(module, mimetype="application/json", status=200)
예제 #9
0
 def post(self):
     body = request.get_json()
     module = Module(**body).save()
     id = instituto.id
     return {'id': str(id)}, 200
예제 #10
0
class H90toF90Converter(H90CallGraphAndSymbolDeclarationsParser):
    currentLineNeedsPurge = False
    tab_insideSub = "\t\t"
    tab_outsideSub = "\t"

    def __init__(
        self,
        cgDoc,
        implementationsByTemplateName,
        outputStream=sys.stdout,
        moduleNodesByName=None,
        parallelRegionData=None,
        symbolAnalysisByRoutineNameAndSymbolName=None,
        symbolsByModuleNameAndSymbolName=None,
        symbolsByRoutineNameAndSymbolName=None
    ):
        super(H90toF90Converter, self).__init__(
            cgDoc,
            moduleNodesByName=moduleNodesByName,
            parallelRegionData=parallelRegionData,
            implementationsByTemplateName=implementationsByTemplateName
        )
        self.outputStream = outputStream
        self.currSubroutineImplementationNeedsToBeCommented = False
        self.currParallelIterators = []
        self.currRoutine = None
        self.currRegion = None
        self.currParallelRegion = None
        self.currModule = None
        self.currCallee = None
        self.codeSanitizer = FortranCodeSanitizer()
        self.currParallelRegionRelationNode = None
        self.currParallelRegionTemplateNode = None
        self.prepareLineCalledForCurrentLine = False
        self.preparedBy = None
        try:
            if symbolAnalysisByRoutineNameAndSymbolName != None:
                self.symbolAnalysisByRoutineNameAndSymbolName = symbolAnalysisByRoutineNameAndSymbolName
            else:
                symbolAnalyzer = SymbolDependencyAnalyzer(self.cgDoc)
                self.symbolAnalysisByRoutineNameAndSymbolName = symbolAnalyzer.getSymbolAnalysisByRoutine()
            if symbolsByModuleNameAndSymbolName != None:
                self.symbolsByModuleNameAndSymbolName = symbolsByModuleNameAndSymbolName
            else:
                self.symbolsByModuleNameAndSymbolName = getSymbolsByModuleNameAndSymbolName(self.cgDoc, self.moduleNodesByName, self.symbolAnalysisByRoutineNameAndSymbolName)

            if symbolsByRoutineNameAndSymbolName != None:
                self.symbolsByRoutineNameAndSymbolName = symbolsByRoutineNameAndSymbolName
            else:
                self.symbolsByRoutineNameAndSymbolName = getSymbolsByRoutineNameAndSymbolName(
                    self.cgDoc,
                    self.routineNodesByProcName,
                    self.parallelRegionTemplatesByProcName,
                    self.symbolAnalysisByRoutineNameAndSymbolName
                )
        except UsageError as e:
            logging.error('Error: %s' %(str(e)), extra={"hfLineNo":currLineNo, "hfFile":currFile})
            sys.exit(1)
        except Exception as e:
            exc_type, exc_obj, exc_tb = sys.exc_info()
            fname = os.path.split(exc_tb.tb_frame.f_code.co_filename)[1]
            logging.critical('Error when initializing h90 conversion: %s' %(str(e)), extra={"hfLineNo":currLineNo, "hfFile":currFile})
            logging.info(traceback.format_exc())
            sys.exit(1)

    def switchToNewRegion(self, regionClassName="Region", oldRegion=None):
        logging.debug("switching to new %s on line %i; called from:\n%s" %(
            regionClassName,
            self.lineNo,
            stacktrace()
        ))
        self.currRegion = self.currRoutine.createRegion(regionClassName, oldRegion)

    def endRegion(self):
        logging.debug("ending region on line %i" %(self.lineNo))
        self.currRegion = None

    def prepareActiveParallelRegion(self, implementationFunctionName):
        routineNode = self.routineNodesByProcName.get(self.currRoutine.name)
        if not routineNode:
            raise Exception("no definition found for routine '%s'", self.currRoutine.name)
        if routineNode.getAttribute('parallelRegionPosition') != 'within':
            return False
        templates = self.parallelRegionTemplatesByProcName.get(self.currRoutine.name)
        if not templates or len(templates) == 0:
            raise Exception("Unexpected: no parallel template definition found for routine '%s'" \
                %(self.currRoutine.name))
        if len(templates) > 1 and self.implementation.multipleParallelRegionsPerSubroutineAllowed != True:
            raise Exception("Unexpected: more than one parallel region templates found for subroutine '%s' containing a parallelRegion directive \
This is not allowed for implementations using %s.\
                " %(
                    self.currRoutine.name,
                    type(self.implementation).__name__
                )
            )
        if implementationFunctionName == "parallelRegionBegin":
            self.switchToNewRegion("ParallelRegion")
            self.currParallelRegion = self.currRegion
        implementationAttr = getattr(self, 'implementation')
        functionAttr = getattr(implementationAttr, implementationFunctionName)
        self.prepareLine(functionAttr(self.currParallelRegionTemplateNode, self.branchAnalyzer.level), self.tab_insideSub)
        if implementationFunctionName == "parallelRegionEnd":
            self.switchToNewRegion(oldRegion=self.currParallelRegion)
            self.currParallelRegion = None
        return True

    def filterOutSymbolsAlreadyAliveInCurrentScope(self, symbolList):
        return [
            symbol for symbol in symbolList
            if not symbol.analysis \
            or ( \
                symbol.name not in self.symbolsByRoutineNameAndSymbolName.get(self.currRoutine.name, {}) \
                and symbol.analysis.argumentIndexByRoutineName.get(self.currRoutine.name, -1) == -1 \
            )
        ]

    def processModuleSymbolImportAndGetAdjustedLine(self, line, symbols):
        if len(symbols) == 0:
            return line
        return self.implementation.getImportSpecification(
            symbols,
            RegionType.MODULE_DECLARATION,
            parallelRegionPosition=None,
            parallelRegionTemplates=[],
        )

    def processCallMatch(self, subProcCallMatch):
        super(H90toF90Converter, self).processCallMatch(subProcCallMatch)
        calleeNode = self.routineNodesByProcName.get(self.currCalleeName)
        if calleeNode:
            self.currCallee = AnalyzableRoutine(
                self.currCalleeName,
                self.currModule,
                calleeNode,
                self.parallelRegionTemplatesByProcName.get(self.currCalleeName),
                self.implementationForTemplateName(calleeNode.getAttribute('implementationTemplate'))
            )
        else:
            self.currCallee = Routine(self.currCalleeName, self.currModule)
        self.currRoutine.loadCall(self.currCallee)
        remainingCall = subProcCallMatch.group(2)
        if isinstance(self.currCallee, AnalyzableRoutine):
            self.analyseSymbolInformationOnCurrentLine(subProcCallMatch.group(0), isInsideSubroutineCall=True)
        self.currCallee.loadArguments(self.currArguments)
        self.currRegion.loadPassedInSymbolsByName(self.symbolsPassedInCurrentCallByName)
        self.prepareLine("", self.tab_insideSub)
        if self.state != "inside_subroutine_call" and not (self.state == "inside_branch" and self.stateBeforeBranch == "inside_subroutine_call"):
            self.currCallee = None
            self.processCallPost()

    def processModuleDeclarationLineAndGetAdjustedLine(self, line):
        baseline = line
        if self.currentLineNeedsPurge:
            baseline = "" #$$$ this seems dangerous
        adjustedLine = self.processModuleSymbolImportAndGetAdjustedLine(baseline, self.importsOnCurrentLine)
        if len(self.symbolsOnCurrentLine) > 0:
            adjustedLine = self.implementation.adjustDeclarationForDevice(
                adjustedLine,
                self.symbolsOnCurrentLine,
                RegionType.MODULE_DECLARATION,
                self.currRoutine.node.getAttribute('parallelRegionPosition') if self.currRoutine else "inside"
            )
        return adjustedLine

    def processTemplateMatch(self, templateMatch):
        super(H90toF90Converter, self).processTemplateMatch(templateMatch)
        self.prepareLine("","")

    def processTemplateEndMatch(self, templateEndMatch):
        super(H90toF90Converter, self).processTemplateEndMatch(templateEndMatch)
        self.prepareLine("","")

    def processBranchMatch(self, branchMatch):
        super(H90toF90Converter, self).processBranchMatch(branchMatch)
        self.prepareLine("","")
        self.currentLineNeedsPurge = True

    def processModuleBeginMatch(self, moduleBeginMatch):
        super(H90toF90Converter, self).processModuleBeginMatch(moduleBeginMatch)
        self.implementation.processModuleBegin(self.currModuleName)
        self.currModule = Module(
            self.currModuleName,
            self.moduleNodesByName[self.currModuleName]
        )
        self.prepareLine(moduleBeginMatch.group(0), self.tab_outsideSub)

    def processModuleEndMatch(self, moduleEndMatch):
        self.prepareLine(moduleEndMatch.group(0), self.tab_outsideSub)
        self.outputStream.write(self.codeSanitizer.sanitizeLines(self.currModule.implemented() + "\n\n"))
        self.currModule = None
        self.implementation.processModuleEnd()
        super(H90toF90Converter, self).processModuleEndMatch(moduleEndMatch)

    def processProcBeginMatch(self, subProcBeginMatch):
        super(H90toF90Converter, self).processProcBeginMatch(subProcBeginMatch)
        self.currRoutine = self.currModule.createRoutine(
            self.currSubprocName,
            self.routineNodesByProcName.get(self.currSubprocName),
            self.parallelRegionTemplatesByProcName.get(self.currSubprocName),
            self.implementation
        )
        self.currRoutine.loadSymbolsByName(self.currSymbolsByName)
        self.currRoutine.loadArguments(self.currArguments)
        self.currRoutine.loadGlobalContext(
            self.moduleNodesByName,
            self.symbolAnalysisByRoutineNameAndSymbolName,
            self.symbolsByModuleNameAndSymbolName
        )
        self.currRegion = self.currRoutine.currRegion
        self.prepareLine("", self.tab_insideSub)

    def processProcExitPoint(self, line, isSubroutineEnd):
        if isSubroutineEnd:
            self.prepareLine("", self.tab_outsideSub)
        else:
            self.switchToNewRegion("RoutineEarlyExitRegion")
            self.prepareLine(line, self.tab_insideSub)
            self.switchToNewRegion()

    def processProcEndMatch(self, subProcEndMatch):
        self.currRoutine.loadAllImports(self.currRoutineImportsDict)
        self.endRegion()
        self.processProcExitPoint(subProcEndMatch.group(0), isSubroutineEnd=True)
        self.currSubroutineImplementationNeedsToBeCommented = False
        self.currRoutine = None
        super(H90toF90Converter, self).processProcEndMatch(subProcEndMatch)

    def processParallelRegionMatch(self, parallelRegionMatch):
        super(H90toF90Converter, self).processParallelRegionMatch(parallelRegionMatch)
        logging.debug(
            "...parallel region starts on line %i with active symbols %s" %(self.lineNo, str(self.currSymbolsByName.values())),
            extra={"hfLineNo":currLineNo, "hfFile":currFile}
        )
        self.switchToNewRegion("ParallelRegion")
        self.currParallelRegion = self.currRegion
        self.currParallelRegion.loadActiveParallelRegionTemplate(self.currParallelRegionTemplateNode)
        self.prepareLine("", self.tab_insideSub)

    def processParallelRegionEndMatch(self, parallelRegionEndMatch):
        super(H90toF90Converter, self).processParallelRegionEndMatch(parallelRegionEndMatch)
        self.prepareLine("", self.tab_insideSub)
        self.switchToNewRegion(oldRegion=self.currParallelRegion)
        self.currParallelRegion = None
        self.currParallelIterators = []
        self.currParallelRegionTemplateNode = None
        self.currParallelRegionRelationNode = None

    def processDomainDependantMatch(self, domainDependantMatch):
        super(H90toF90Converter, self).processDomainDependantMatch(domainDependantMatch)
        self.prepareLine("", "")

    def processDomainDependantEndMatch(self, domainDependantEndMatch):
        super(H90toF90Converter, self).processDomainDependantEndMatch(domainDependantEndMatch)
        self.prepareLine("", "")

    def processContainsMatch(self, containsMatch):
        super(H90toF90Converter, self).processContainsMatch(containsMatch)
        self.prepareLine(containsMatch.group(0), self.tab_outsideSub)

    def processDataStatementMatch(self, dataStatementMatch):
        if not self.currRegion or not isinstance(self.currRegion, RoutineSpecificationRegion):
            raise Exception("invalid place for a data statement")
        self.currRegion.loadDataSpecificationLine(dataStatementMatch.group(0))
        self.prepareLine("", "")

    def processInterfaceMatch(self, interfaceMatch):
        super(H90toF90Converter, self).processInterfaceMatch(interfaceMatch)
        self.prepareLine(interfaceMatch.group(0), self.tab_outsideSub)

    def processInterfaceEndMatch(self, interfaceEndMatch):
        super(H90toF90Converter, self).processInterfaceEndMatch(interfaceEndMatch)
        self.prepareLine(interfaceEndMatch.group(0), self.tab_outsideSub)

    def processTypeMatch(self, typeMatch):
        super(H90toF90Converter, self).processTypeMatch(typeMatch)
        self.prepareLine(typeMatch.group(0), self.tab_outsideSub)

    def processTypeEndMatch(self, typeEndMatch):
        super(H90toF90Converter, self).processTypeEndMatch(typeEndMatch)
        self.prepareLine(typeEndMatch.group(0), self.tab_outsideSub)

    def processNoMatch(self, line):
        super(H90toF90Converter, self).processNoMatch(line)
        self.prepareLine(line, "")

    def processInsideModuleState(self, line):
        super(H90toF90Converter, self).processInsideModuleState(line)
        if self.state not in ['inside_module', 'inside_branch'] \
        or (self.state == 'inside_branch' and self.stateBeforeBranch != 'inside_module'):
            return
        if not self.prepareLineCalledForCurrentLine:
            self.prepareLine(self.processModuleDeclarationLineAndGetAdjustedLine(line), self.tab_outsideSub)

    def processInsideDeclarationsState(self, line):
        '''process everything that happens per h90 declaration line'''
        subProcCallMatch = self.patterns.subprocCallPattern.match(line)
        parallelRegionMatch = self.patterns.parallelRegionPattern.match(line)
        domainDependantMatch = self.patterns.domainDependantPattern.match(line)
        subProcEndMatch = self.patterns.subprocEndPattern.match(line)
        templateMatch = self.patterns.templatePattern.match(line)
        templateEndMatch = self.patterns.templateEndPattern.match(line)
        branchMatch = self.patterns.branchPattern.match(line)
        dataStatementMatch = self.patterns.dataStatementPattern.match(line)

        if dataStatementMatch:
            self.processDataStatementMatch(dataStatementMatch)
            return
        if branchMatch:
            self.processBranchMatch(branchMatch)
            return
        if subProcCallMatch:
            self.switchToNewRegion("CallRegion")
            self.processCallMatch(subProcCallMatch)
            self.switchToNewRegion()
            return
        if subProcEndMatch:
            self.processProcEndMatch(subProcEndMatch)
            if self.state == "inside_branch":
                self.stateBeforeBranch = 'inside_module_body'
            else:
                self.state = 'inside_module_body'
            return
        if parallelRegionMatch:
            raise UsageError("parallel region without parallel dependants")
        if self.patterns.subprocBeginPattern.match(line):
            raise UsageError("subprocedure within subprocedure not allowed")
        if templateMatch:
            raise UsageError("template directives are only allowed outside of subroutines")
        if templateEndMatch:
            raise UsageError("template directives are only allowed outside of subroutines")

        if domainDependantMatch:
            if self.state == "inside_branch":
                self.stateBeforeBranch = 'inside_domainDependantRegion'
            else:
                self.state = 'inside_domainDependantRegion'
            self.switchToNewRegion()
            self.processDomainDependantMatch(domainDependantMatch)
            return

        importMatch1 = self.patterns.importPattern.match(line)
        importMatch2 = self.patterns.singleMappedImportPattern.match(line)
        importMatch3 = self.patterns.importAllPattern.match(line)
        specTuple = parseSpecification(line)
        specificationStatementMatch = self.patterns.specificationStatementPattern.match(line)
        if not ( \
            line.strip() == "" \
            or importMatch1 \
            or importMatch2 \
            or importMatch3 \
            or specTuple[0] \
            or specificationStatementMatch \
        ):
            if self.state == "inside_branch":
                self.stateBeforeBranch = "inside_subroutine_body"
            else:
                self.state = "inside_subroutine_body"
            self.switchToNewRegion()
            self.processInsideSubroutineBodyState(line)
            return

        self.analyseSymbolInformationOnCurrentLine(line)
        #we are never calling super and every match that would have prepared a line, would already have been covered
        #with a return -> safe to call prepareLine here.
        self.prepareLine(line, self.tab_insideSub)

    def processInsideSubroutineBodyState(self, line):
        '''process everything that happens per h90 subroutine body line'''
        branchMatch = self.patterns.branchPattern.match(line)
        if branchMatch:
            self.processBranchMatch(branchMatch)
            return

        if self.patterns.branchEndPattern.match(line):
            self.prepareLine("","")
            return

        subProcCallMatch = self.patterns.subprocCallPattern.match(line)
        if subProcCallMatch:
            self.switchToNewRegion("CallRegion")
            self.processCallMatch(subProcCallMatch)
            self.switchToNewRegion()
            return

        subProcEndMatch = self.patterns.subprocEndPattern.match(line)
        if subProcEndMatch:
            self.processProcEndMatch(subProcEndMatch)
            if self.state == "inside_branch":
                self.stateBeforeBranch = "inside_module_body"
            else:
                self.state = 'inside_module_body'
            return

        if self.patterns.earlyReturnPattern.match(line):
            self.processProcExitPoint(line, isSubroutineEnd=False)
            return

        if self.currSubroutineImplementationNeedsToBeCommented:
            self.prepareLine("! " + line, "")
            return

        parallelRegionMatch = self.patterns.parallelRegionPattern.match(line)
        if (parallelRegionMatch) \
        and self.currRoutine.node.getAttribute('parallelRegionPosition') == "within":
            templateRelations = self.parallelRegionTemplateRelationsByProcName.get(self.currRoutine.name)
            if templateRelations == None or len(templateRelations) == 0:
                raise Exception("No parallel region template relation found for this region.")
            for templateRelation in templateRelations:
                startLine = templateRelation.getAttribute("startLine")
                if startLine in [None, '']:
                    continue
                startLineInt = 0
                try:
                    startLineInt = int(startLine)
                except ValueError:
                    raise Exception("Invalid startLine definition for parallel region template relation: %s\n. All active template relations: %s\nRoutine node: %s" %(
                        templateRelation.toxml(),
                        [templateRelation.toxml() for templateRelation in templateRelations],
                        self.currRoutine.node.toprettyxml()
                    ))
                if startLineInt == self.lineNo:
                    self.currParallelRegionRelationNode = templateRelation
                    break
            else:
                raise Exception("No parallel region template relation was matched for the current linenumber.")
            logging.debug(
                "parallel region detected on line %i with template relation %s" %(self.lineNo, self.currParallelRegionRelationNode.toxml()),
                extra={"hfLineNo":currLineNo, "hfFile":currFile}
            )
            templates = self.parallelRegionTemplatesByProcName.get(self.currRoutine.name)
            if templates == None or len(templates) == 0:
                raise Exception("No parallel region template found for this region.")
            activeTemplateID = self.currParallelRegionRelationNode.getAttribute("id")
            for template in templates:
                if template.getAttribute("id") == activeTemplateID:
                    self.currParallelRegionTemplateNode = template
                    break
            else:
                raise Exception("No parallel region template has matched the active template ID.")
            self.currParallelIterators = self.implementation.getIterators(self.currParallelRegionTemplateNode)
            if len(self.currParallelIterators) > 0:
                self.processParallelRegionMatch(parallelRegionMatch)
                if self.state == "inside_branch":
                    self.stateBeforeBranch = "inside_parallelRegion"
                else:
                    self.state = 'inside_parallelRegion'
            else:
                self.prepareLine("","")
            return
        elif parallelRegionMatch:
            #this parallel region does not apply to us
            self.prepareLine("","")
            return

        if (self.patterns.parallelRegionEndPattern.match(line)):
            #note: this may occur when a parallel region is discarded because it doesn't apply
            #-> state stays within body and the region end line will trap here
            self.prepareLine("","")
            return

        domainDependantMatch = self.patterns.domainDependantPattern.match(line)
        if (domainDependantMatch):
            if self.state == "inside_branch":
                self.stateBeforeBranch = "inside_domainDependantRegion"
            else:
                self.state = 'inside_domainDependantRegion'
            self.processDomainDependantMatch(domainDependantMatch)
            return

        if (self.patterns.subprocBeginPattern.match(line)):
            raise Exception("subprocedure within subprocedure not allowed")

        self.analyseSymbolInformationOnCurrentLine(line, isInSubroutineBody=True)
        self.prepareLine(line, self.tab_insideSub)

    def processInsideParallelRegionState(self, line):
        branchMatch = self.patterns.branchPattern.match(line)
        if branchMatch:
            self.processBranchMatch(branchMatch)
            return

        subProcCallMatch = self.patterns.subprocCallPattern.match(line)
        if subProcCallMatch:
            if subProcCallMatch.group(1) not in self.routineNodesByProcName.keys():
                message = self.implementation.warningOnUnrecognizedSubroutineCallInParallelRegion(
                    self.currRoutine.name,
                    subProcCallMatch.group(1)
                )
                if message != "":
                    logging.warning(message, extra={"hfLineNo":currLineNo, "hfFile":currFile})
            self.switchToNewRegion("CallRegion")
            self.processCallMatch(subProcCallMatch)
            self.switchToNewRegion()
            return

        parallelRegionEndMatch = self.patterns.parallelRegionEndPattern.match(line)
        if (parallelRegionEndMatch):
            self.processParallelRegionEndMatch(parallelRegionEndMatch)
            self.state = "inside_subroutine_body"
            if self.state == "inside_branch":
                self.stateBeforeBranch = "inside_subroutine_body"
            else:
                self.state = 'inside_subroutine_body'
            return

        if (self.patterns.parallelRegionPattern.match(line)):
            raise Exception("parallelRegion within parallelRegion not allowed")
        if (self.patterns.subprocEndPattern.match(line)):
            raise Exception("subprocedure end before @end parallelRegion")
        if (self.patterns.subprocBeginPattern.match(line)):
            raise Exception("subprocedure within subprocedure not allowed")

        adjustedLine = ""
        whileLoopMatch = self.patterns.whileLoopPattern.match(line)
        loopMatch = self.patterns.loopPattern.match(line)
        if whileLoopMatch == None and loopMatch != None:
            adjustedLine += self.implementation.loopPreparation().strip() + '\n'
        adjustedLine += line
        self.analyseSymbolInformationOnCurrentLine(line, isInSubroutineBody=True)
        self.prepareLine(adjustedLine, self.tab_insideSub)

    def processInsideDomainDependantRegionState(self, line):
        super(H90toF90Converter, self).processInsideDomainDependantRegionState(line)
        if self.state == "inside_domainDependantRegion":
            self.prepareLine("", "")

    def processInsideModuleDomainDependantRegionState(self, line):
        super(H90toF90Converter, self).processInsideModuleDomainDependantRegionState(line)
        if self.state == "inside_moduleDomainDependantRegion":
            self.prepareLine("", "")

    def processInsideBranch(self, line):
        super(H90toF90Converter, self).processInsideBranch(line)
        if self.state != "inside_branch":
            self.prepareLine("", "")

    def processInsideIgnore(self, line):
        super(H90toF90Converter, self).processInsideIgnore(line)
        self.prepareLine("", "")

    def processLine(self, line):
        self.currentLineNeedsPurge = False
        self.prepareLineCalledForCurrentLine = False
        super(H90toF90Converter, self).processLine(line)
        if not self.prepareLineCalledForCurrentLine:
            raise Exception(
                "Line has never been prepared - there is an error in the transpiler logic. Please contact the Hybrid Fortran maintainers. Parser state: %s; before branch: %s" %(
                    self.state,
                    self.stateBeforeBranch
                )
            )

    def processFile(self, fileName):
        self.outputStream.write(self.implementation.filePreparation(fileName))
        super(H90toF90Converter, self).processFile(fileName)

    def putLine(self, line):
        if line == "":
            return
        if self.currRegion:
            self.currRegion.loadLine(line, self.symbolsOnCurrentLine + self.importsOnCurrentLine)
        elif self.currRoutine:
            self.currRoutine.loadLine(line, self.symbolsOnCurrentLine + self.importsOnCurrentLine)
        elif self.currModule:
            self.currModule.loadLine(line)
        else:
            self.outputStream.write(self.codeSanitizer.sanitizeLines(line))

    #TODO: remove tab argument everywhere
    def prepareLine(self, line, tab):
        if self.prepareLineCalledForCurrentLine:
            raise Exception(
                "Line has already been prepared by %s - there is an error in the transpiler logic. Please contact the Hybrid Fortran maintainers. Parser state: %s; before branch: %s" %(
                    self.preparedBy,
                    self.state,
                    self.stateBeforeBranch
                )
            )
        self.preparedBy = ""
        if ConversionOptions.Instance().debugPrint:
            import inspect
            self.preparedBy = inspect.getouterframes(inspect.currentframe(), 2)[1][3]
        self.prepareLineCalledForCurrentLine = True
        self.putLine(line)
예제 #11
0
    def makeDummyModule(self, cgDoc):
        from models.module import Module

        moduleNode = cgDoc.firstChild.childNodes[1].firstChild
        self.assertEqual(moduleNode.tagName, "module")
        return Module("foo", moduleNode)
예제 #12
0
bot_access_modules = [name for name in bot.module_access.keys()]
diff_list = list(set(bot_directory_modules).difference(bot_access_modules))
if len(diff_list) > 0:
    writeout = True
    for each in diff_list:
        bot.module_access[each] = []
else:
    writeout = False

# Create module objects for each module and its corresponding cogs
# Module format is Name, Path, Cog List, Accesses
bot.modules = {}
for extension in ext_dict.keys():
    if extension == "base":
        continue
    bot.modules[extension] = Module(extension, extension, ext_dict[extension])

if writeout is True:
    module_access_dict = {}
    for module in bot.modules.values():
        module_access_dict[module.name] = []
        for guild_id in module.access:
            module_access_dict[module.name].append(guild_id)
    path_to_file = f"tokens/module_access.json"
    with open(path_to_file, "w+") as file:
        json.dump(module_access_dict, file, indent=4)


@bot.event
async def on_ready():
    print("Logged in as")