Best Venom code snippet using venom.processVariableAssigments
process_testcase.go
Source: process_testcase.go
...299 v.printTestStepResult(tc, tsResult, tsIn, ranged, stepNumber, false)300 allVars := tc.Vars.Clone()301 allVars.AddAll(tc.computedVars.Clone())302 tsResult.ComputedVars = tc.computedVars.Clone()303 assign, _, err := processVariableAssigments(ctx, tc.Name, allVars, rawStep)304 if err != nil {305 tsResult.appendError(err)306 Error(ctx, "unable to process variable assignments: %v", err)307 break308 }309 tc.computedVars.AddAll(assign)310 previousStepVars.AddAll(assign)311 }312 }313}314// Set test step name (defaults to executor name, excepted if it got a "name" attribute. in range, also print key)315func (v *Venom) setTestStepName(ts *TestStepResult, e ExecutorRunner, step TestStep, ranged *Range, rangedData *RangeData, rangedIndex int, print bool) {316 name := e.Name()317 if value, ok := step["name"]; ok {318 switch value := value.(type) {319 case string:320 name = value321 }322 }323 if ranged.Enabled {324 if rangedIndex == 0 {325 v.Print("\n")326 }327 name = fmt.Sprintf("%s (range=%s)", name, rangedData.Key)328 }329 ts.Name = name330 if print || ranged.Enabled {331 v.Print(" \t\t⢠%s", ts.Name)332 }333}334// Print a single step result (if verbosity is enabled)335func (v *Venom) printTestStepResult(tc *TestCase, ts *TestStepResult, tsIn *TestStepResult, ranged Range, stepNumber int, mustAssertionFailed bool) {336 fromUserExecutor := tsIn != nil337 if fromUserExecutor {338 tsIn.appendFailure(ts.Errors...)339 }340 if ranged.Enabled || v.Verbose >= 1 {341 if !fromUserExecutor { //Else print step status342 if len(ts.Errors) > 0 {343 v.Println(" %s", Red(StatusFail))344 for _, f := range ts.Errors {345 v.Println(" \t\t %s", Yellow(f.Value))346 }347 if mustAssertionFailed {348 skipped := len(tc.RawTestSteps) - stepNumber - 1349 if skipped == 1 {350 v.Println(" \t\t %s", Gray(fmt.Sprintf("%d other step was skipped", skipped)))351 } else {352 v.Println(" \t\t %s", Gray(fmt.Sprintf("%d other steps were skipped", skipped)))353 }354 }355 } else {356 v.Println(" %s", Green(StatusPass))357 }358 }359 }360}361// Parse and format range data to allow iterations over user data362func parseRanged(ctx context.Context, rawStep []byte, stepVars H) (Range, error) {363 //Load "range" attribute and perform actions depending on its typing364 var ranged Range365 if err := json.Unmarshal(rawStep, &ranged); err != nil {366 return ranged, fmt.Errorf("unable to parse range expression: %v", err)367 }368 switch ranged.RawContent.(type) {369 //Nil means this is not a ranged data, append an empty item to force at least one iteration and exit370 case nil:371 ranged.Items = append(ranged.Items, RangeData{})372 return ranged, nil373 //String needs to be parsed and possibly templated374 case string:375 Debug(ctx, "attempting to parse range expression")376 rawString := ranged.RawContent.(string)377 if len(rawString) == 0 {378 return ranged, fmt.Errorf("range expression has been specified without any data")379 }380 // Try parsing already templated data381 err := json.Unmarshal([]byte("{\"range\":"+rawString+"}"), &ranged)382 // ... or fallback383 if err != nil {384 //Try templating and escaping data385 Debug(ctx, "attempting to template range expression and parse it again")386 vars, err := DumpStringPreserveCase(stepVars)387 if err != nil {388 Warn(ctx, "failed to parse range expression when loading step variables: %v", err)389 break390 }391 for i := range vars {392 vars[i] = strings.ReplaceAll(vars[i], "\"", "\\\"")393 }394 content, err := interpolate.Do(string(rawStep), vars)395 if err != nil {396 Warn(ctx, "failed to parse range expression when templating variables: %v", err)397 break398 }399 //Try parsing data400 err = json.Unmarshal([]byte(content), &ranged)401 if err != nil {402 Warn(ctx, "failed to parse range expression when parsing data into raw string: %v", err)403 break404 }405 switch ranged.RawContent.(type) {406 case string:407 rawString = ranged.RawContent.(string)408 err := json.Unmarshal([]byte("{\"range\":"+rawString+"}"), &ranged)409 if err != nil {410 Warn(ctx, "failed to parse range expression when parsing raw string into data: %v", err)411 return ranged, fmt.Errorf("unable to parse range expression: unable to transform string data into a supported range expression type")412 }413 }414 }415 }416 //Format data417 switch t := ranged.RawContent.(type) {418 //Array-like data419 case []interface{}:420 Debug(ctx, "\"range\" data is array-like")421 for index, value := range ranged.RawContent.([]interface{}) {422 key := strconv.Itoa(index)423 ranged.Items = append(ranged.Items, RangeData{key, value})424 }425 //Number data426 case float64:427 Debug(ctx, "\"range\" data is number-like")428 upperBound := int(ranged.RawContent.(float64))429 for i := 0; i < upperBound; i++ {430 key := strconv.Itoa(i)431 ranged.Items = append(ranged.Items, RangeData{key, i})432 }433 //Map-like data434 case map[string]interface{}:435 Debug(ctx, "\"range\" data is map-like")436 for key, value := range ranged.RawContent.(map[string]interface{}) {437 ranged.Items = append(ranged.Items, RangeData{key, value})438 }439 //Unsupported data format440 default:441 return ranged, fmt.Errorf("\"range\" was provided an unsupported type %T", t)442 }443 ranged.Enabled = true444 ranged.RawContent = nil445 return ranged, nil446}447func processVariableAssigments(ctx context.Context, tcName string, tcVars H, rawStep json.RawMessage) (H, bool, error) {448 var stepAssignment AssignStep449 var result = make(H)450 if err := yaml.Unmarshal(rawStep, &stepAssignment); err != nil {451 Error(ctx, "unable to parse assignements (%s): %v", string(rawStep), err)452 return nil, false, err453 }454 if len(stepAssignment.Assignments) == 0 {455 return nil, false, nil456 }457 var tcVarsKeys []string458 for k := range tcVars {459 tcVarsKeys = append(tcVarsKeys, k)460 }461 for varname, assigment := range stepAssignment.Assignments {...
process_testcase_test.go
Source: process_testcase_test.go
...19 }20 b, _ := yaml.Marshal(assign)21 t.Log("\n" + string(b))22 tcVars := H{"here.some.value": "this is the \nvalue"}23 result, is, err := processVariableAssigments(context.TODO(), "", tcVars, b)24 assert.True(t, is)25 assert.NoError(t, err)26 assert.NotNil(t, result)27 t.Log(result)28 assert.Equal(t, "map[assignVar:this is the \nvalue assignVarWithRegex:the \nvalue]", fmt.Sprint(result))29 var wrongStepIn TestStep30 b = []byte(`type: exec31script: echo 'foo'32`)33 assert.NoError(t, yaml.Unmarshal(b, &wrongStepIn))34 result, is, err = processVariableAssigments(context.TODO(), "", tcVars, b)35 assert.False(t, is)36 assert.NoError(t, err)37 assert.Nil(t, result)38 assert.Empty(t, result)39}...
processVariableAssigments
Using AI Code Generation
1venom.processVariableAssigments("1.go");2venom.processVariableAssigments("2.go");3venom.processVariableAssigments("3.go");4venom.processVariableAssigments("4.go");5venom.processVariableAssigments("5.go");6venom.processVariableAssigments("6.go");7venom.processVariableAssigments("7.go");8venom.processVariableAssigments("8.go");9venom.processVariableAssigments("9.go");10venom.processVariableAssigments("10.go");11venom.processVariableAssigments("11.go");12venom.processVariableAssigments("12.go");13venom.processVariableAssigments("13.go");14venom.processVariableAssigments("14.go");15venom.processVariableAssigments("15.go");16venom.processVariableAssigments("16.go");
processVariableAssigments
Using AI Code Generation
1import (2func main() {3 variables := map[string]string{4 }5 step := venom.Step{6 Script: `var foo = "foo";`,7 }8 step.ProcessVariableAssigments(variables)9 fmt.Println(step.Script)10}11import (12func main() {13 variables := map[string]string{14 }15 step := venom.Step{16 Script: `var foo = "foo";`,17 }18 step.ProcessVariableAssigments(variables)19 fmt.Println(step.Script)20}21import (22func main() {23 variables := map[string]string{24 }25 step := venom.Step{26 Script: `var foo = "foo";`,27 }28 step.ProcessVariableAssigments(variables)29 fmt.Println(step.Script)30}31import (32func main() {33 variables := map[string]string{34 }35 step := venom.Step{36 Script: `var foo = "foo";`,37 }38 step.ProcessVariableAssigments(variables)39 fmt.Println(step.Script)40}41import (42func main() {43 variables := map[string]string{
processVariableAssigments
Using AI Code Generation
1import (2func main() {3 venomObj := venom.Venom{}4 venomObj.ProcessVariableAssigments("1.txt")5}6import (7func main() {8 venomObj := venom.Venom{}9 venomObj.ProcessVariableAssigments("2.txt")10}11import (12func main() {13 venomObj := venom.Venom{}14 venomObj.ProcessVariableAssigments("3.txt")15}16import (17func main() {18 venomObj := venom.Venom{}19 venomObj.ProcessVariableAssigments("4.txt")20}21import (22func main() {23 venomObj := venom.Venom{}24 venomObj.ProcessVariableAssigments("5.txt")25}26import (27func main() {28 venomObj := venom.Venom{}29 venomObj.ProcessVariableAssigments("6.txt")30}31import (32func main() {33 venomObj := venom.Venom{}34 venomObj.ProcessVariableAssigments("7.txt")35}36import (37func main() {38 venomObj := venom.Venom{}39 venomObj.ProcessVariableAssigments("8.txt")40}41import (42func main() {
processVariableAssigments
Using AI Code Generation
1import (2func main() {3 v := venom.Venom{}4 vars := make(map[string]string)5 v.ProcessTest(test, vars)6 fmt.Println(v.Test)7}8import (9func main() {10 v := venom.Venom{}11 vars := make(map[string]string)12 v.ProcessTest(test, vars)13 v.ProcessVariableAssigments()14 fmt.Println(v.Test)15}
processVariableAssigments
Using AI Code Generation
1import (2func main() {3 venom.Init()4 testCase, err := os.Open("testcase.json")5 if err != nil {6 fmt.Println(err)7 }8 testSuite, err := os.Open("testsuite.json")9 if err != nil {10 fmt.Println(err)11 }12 v := venom.New()13 v.AddTestCase(testCase)14 v.AddTestSuite(testSuite)15 executor := executors.New()16 v.AddExecutor(executor)17 err = v.ProcessVariableAssigments()18 if err != nil {19 fmt.Println(err)20 }21 fmt.Println(v.TestCases[0].Variables["var1"].Value)22 fmt.Println(v.TestCases[0].Variables["var2"].Value)23 fmt.Println(v.TestCases[1].Variables["var1"].Value)24 fmt.Println(v.TestCases[1].Variables["var2"].Value)25 fmt.Println(v.TestSuites[0].Variables["var1"].Value)26 fmt.Println(v.TestSuites[0].Variables["var2"].Value)27 fmt.Println(v.TestSuites[1].Variables["var1"].Value)28 fmt.Println(v.TestSuites[1].Variables["var2"].Value)29}30{31 {32 {33 },34 {
processVariableAssigments
Using AI Code Generation
1import (2func main() {3 variables := map[string]string{4 }5 venom.ProcessVariableAssignments(variables, "var1=value1\nvar2=value2\nvar3=value3")6 fmt.Println(variables)7}
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