Best Gauge code snippet using parser.TestNestedConceptLooksUpArgsFromParent
conceptParser_test.go
Source: conceptParser_test.go
...284 _, parseRes := parser.Parse("# my concept \n |id|name|\n|1|vishnu|\n|2|prateek|\n", "")285 c.Assert(len(parseRes.ParseErrors), Not(Equals), 0)286 c.Assert(parseRes.ParseErrors[0].Message, Equals, "Table doesn't belong to any step")287}288func (s *MySuite) TestNestedConceptLooksUpArgsFromParent(c *C) {289 parser := new(SpecParser)290 specText := SpecBuilder().specHeading("A spec heading").291 scenarioHeading("First flow").292 step("create user \"foo\" \"doo\"").293 step("another step").String()294 dictionary := gauge.NewConceptDictionary()295 path, _ := filepath.Abs(filepath.Join("testdata", "param_nested_concept.cpt"))296 AddConcepts(path, dictionary)297 tokens, _ := parser.GenerateTokens(specText, "")298 spec, parseResult := parser.CreateSpecification(tokens, dictionary, "")299 c.Assert(parseResult.Ok, Equals, true)300 firstStepInSpec := spec.Scenarios[0].Steps[0]301 nestedConcept := firstStepInSpec.ConceptSteps[0]302 nestedConceptArg1 := nestedConcept.GetArg("baz")...
TestNestedConceptLooksUpArgsFromParent
Using AI Code Generation
1path, err := filepath.Abs(filepath.Dir(os.Args[0]))2if err != nil {3 log.Fatal(err)4}5path, err := filepath.Abs(filepath.Dir(os.Args[0]))6if err != nil {7 log.Fatal(err)8}9path, err := filepath.Abs(filepath.Dir(os.Args[1]))10if err != nil {
TestNestedConceptLooksUpArgsFromParent
Using AI Code Generation
1import (2func TestNestedConceptLooksUpArgsFromParent(t *testing.T) {3 suite := godog.TestSuite{4 TestSuiteInitializer: func(s *godog.Suite) {5 s.Step(`^a nested concept "([^"]*)" with a parameter "([^"]*)"$`, aNestedConceptWithAParameter)6 s.Step(`^a step that uses the "([^"]*)" parameter$`, aStepThatUsesTheParameter)7 },8 ScenarioInitializer: func(s *godog.ScenarioContext) {9 s.BeforeScenario(func(interface{}) {10 })11 },12 }13 status := suite.Run()14 if status > 0 {15 t.Fail()16 }17}18func aNestedConceptWithAParameter(arg1, arg2 string) error {19}20func aStepThatUsesTheParameter(arg1 string) error {21}22import (23func TestNestedConceptLooksUpArgsFromParent(t *testing.T) {24 suite := godog.TestSuite{25 TestSuiteInitializer: func(s *godog.Suite) {26 s.Step(`^a nested concept "([^"]*)" with a parameter "([^"]*)"$`, aNestedConceptWithAParameter)27 s.Step(`^a step that uses the "([^"]*)" parameter$`, aStepThatUsesTheParameter)28 },29 ScenarioInitializer: func(s *godog.ScenarioContext) {30 s.BeforeScenario(func(interface{}) {31 })32 },33 }34 status := suite.Run()35 if status > 0 {36 t.Fail()37 }38}39func aNestedConceptWithAParameter(arg1, arg2 string) error {40}41func aStepThatUsesTheParameter(arg1 string) error {42}43import (44func TestNestedConceptLooksUpArgsFromParent(t *testing
TestNestedConceptLooksUpArgsFromParent
Using AI Code Generation
1import (2func main() {3 input, err := antlr.NewFileStream(os.Args[1])4 if err != nil {5 fmt.Println(err)6 }7 lexer := parser.NewTestNestedConceptLexer(input)8 stream := antlr.NewCommonTokenStream(lexer, 0)9 p := parser.NewTestNestedConceptParser(stream)10 tree := p.TestNestedConceptLooksUpArgsFromParent()11 fmt.Println(tree.ToStringTree(nil, p))12}13import (14func main() {15 input, err := antlr.NewFileStream(os.Args[1])16 if err != nil {17 fmt.Println(err)18 }19 lexer := parser.NewTestNestedConceptLexer(input)20 stream := antlr.NewCommonTokenStream(lexer, 0)21 p := parser.NewTestNestedConceptParser(stream)22 tree := p.TestNestedConceptLooksUpArgsFromParent()23 fmt.Println(tree.ToStringTree(nil, p))24}25The generated code is a bit tricky to understand. I'm not sure why the generated code has two different methods called TestNestedConceptLooksUpArgsFromParent() , but I think that's a
TestNestedConceptLooksUpArgsFromParent
Using AI Code Generation
1import (2func main() {3 input := antlr.NewInputStream("1+1")4 lexer := parser.NewTestLexer(input)5 stream := antlr.NewCommonTokenStream(lexer, 0)6 p := parser.NewTestParser(stream)7 p.AddErrorListener(antlr.NewDiagnosticErrorListener(true))8 tree := p.TestNestedConceptLooksUpArgsFromParent()9 fmt.Println(tree.ToStringTree([]string{}, p))10}11import (12func main() {13 input := antlr.NewInputStream("1+1")14 lexer := parser.NewTestLexer(input)15 stream := antlr.NewCommonTokenStream(lexer, 0)16 p := parser.NewTestParser(stream)17 p.AddErrorListener(antlr.NewDiagnosticErrorListener(true))18 tree := p.TestNestedConceptLooksUpArgsFromParent()19 fmt.Println(tree.ToStringTree([]string{}, p))20}21import (22func main() {23 input := antlr.NewInputStream("1+1")24 lexer := parser.NewTestLexer(input)25 stream := antlr.NewCommonTokenStream(lexer, 0)26 p := parser.NewTestParser(stream)27 p.AddErrorListener(antlr.NewDiagnosticErrorListener(true))
TestNestedConceptLooksUpArgsFromParent
Using AI Code Generation
1func TestNestedConceptLooksUpArgsFromParent(t *testing.T) {2 p := new(parser)3 p.concepts = []*concept{{"concept1", []string{"arg1", "arg2"}, []string{"* nested", "* nested"}, nil, nil, nil}}4 p.specs = []string{"* concept1 arg1 arg2", "* nested arg1 arg2"}5 p.parse()6 assert.Equal(t, 2, len(p.specItems))7 assert.Equal(t, "* nested arg1 arg2", p.specItems[1].value)8}9func (p *parser) parse() {10 p.specItems = make([]*specItem, 0)11 for _, s := range p.specs {12 p.specItems = append(p.specItems, p.parseSpec(s))13 }14}15func (p *parser) parseSpec(s string) *specItem {16 specItem := new(specItem)17}18type parser struct {19}20type concept struct {21}22type specItem struct {23}24func (p *parser) parse() {25 p.specItems = make([]*specItem, 0)26 for _, s := range p.specs {27 p.specItems = append(p.specItems, p.parseSpec(s))28 }29}30func (p *parser) parseSpec(s string) *specItem {31 specItem := new(specItem)32}33type parser struct {34}35type concept struct {36}37type specItem struct {38}39func (p *parser) parse() {
TestNestedConceptLooksUpArgsFromParent
Using AI Code Generation
1func TestNestedConceptLooksUpArgsFromParent(t *testing.T) {2 parser := new(parser)3 parser.New()4 parser.AddConcept("A concept", []string{"A", "B"}, []string{"* A", "* B"})5 parser.AddConcept("A nested concept", []string{"C", "D"}, []string{"* C", "* D"})6 parser.AddConcept("An inner concept", []string{"E", "F"}, []string{"* E", "* F"})7 parser.AddStep("A step", []string{"* A", "* C", "* E"})8 parser.Parse("A step", []string{"A", "C", "E"})9}10func (p *parser) AddConcept(arg0 string, arg1 []string, arg2 []string) {11 p.concepts = append(p.concepts, &concept{arg0, arg1, arg2})12}13func (p *parser) Parse(arg0 string, arg1 []string) []string {14 for _, c := range p.concepts {15 if c.name == arg0 {16 }17 }18 if concept == nil {19 return []string{arg0}20 }21 for _, step := range concept.steps {22 steps = append(steps, p.Parse(step, arg1)...)23 }24}25func (p *parser) New() {26 p.concepts = make([]*concept, 0)27}
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