Best Ginkgo code snippet using internal.Filter
config_test.go
Source: config_test.go
...16 memcached := inputs.Inputs["memcached"]().(*memcached.Memcached)17 memcached.Servers = []string{"localhost"}18 mConfig := &internal_models.InputConfig{19 Name: "memcached",20 Filter: internal_models.Filter{21 NameDrop: []string{"metricname2"},22 NamePass: []string{"metricname1"},23 FieldDrop: []string{"other", "stuff"},24 FieldPass: []string{"some", "strings"},25 TagDrop: []internal_models.TagFilter{26 internal_models.TagFilter{27 Name: "badtag",28 Filter: []string{"othertag"},29 },30 },31 TagPass: []internal_models.TagFilter{32 internal_models.TagFilter{33 Name: "goodtag",34 Filter: []string{"mytag"},35 },36 },37 IsActive: true,38 },39 Interval: 5 * time.Second,40 }41 mConfig.Tags = make(map[string]string)42 assert.Equal(t, memcached, c.Inputs[0].Input,43 "Testdata did not produce a correct memcached struct.")44 assert.Equal(t, mConfig, c.Inputs[0].Config,45 "Testdata did not produce correct memcached metadata.")46}47func TestConfig_LoadDirectory(t *testing.T) {48 c := NewConfig()49 err := c.LoadConfig("./testdata/single_plugin.toml")50 if err != nil {51 t.Error(err)52 }53 err = c.LoadDirectory("./testdata/subconfig")54 if err != nil {55 t.Error(err)56 }57 memcached := inputs.Inputs["memcached"]().(*memcached.Memcached)58 memcached.Servers = []string{"localhost"}59 mConfig := &internal_models.InputConfig{60 Name: "memcached",61 Filter: internal_models.Filter{62 NameDrop: []string{"metricname2"},63 NamePass: []string{"metricname1"},64 FieldDrop: []string{"other", "stuff"},65 FieldPass: []string{"some", "strings"},66 TagDrop: []internal_models.TagFilter{67 internal_models.TagFilter{68 Name: "badtag",69 Filter: []string{"othertag"},70 },71 },72 TagPass: []internal_models.TagFilter{73 internal_models.TagFilter{74 Name: "goodtag",75 Filter: []string{"mytag"},76 },77 },78 IsActive: true,79 },80 Interval: 5 * time.Second,81 }82 mConfig.Tags = make(map[string]string)83 assert.Equal(t, memcached, c.Inputs[0].Input,84 "Testdata did not produce a correct memcached struct.")85 assert.Equal(t, mConfig, c.Inputs[0].Config,86 "Testdata did not produce correct memcached metadata.")87 ex := inputs.Inputs["exec"]().(*exec.Exec)88 p, err := parsers.NewJSONParser("exec", nil, nil)89 assert.NoError(t, err)...
filter.go
Source: filter.go
...3 "strings"4 "github.com/influxdata/telegraf"5 "github.com/influxdata/telegraf/internal"6)7// TagFilter is the name of a tag, and the values on which to filter8type TagFilter struct {9 Name string10 Filter []string11}12// Filter containing drop/pass and tagdrop/tagpass rules13type Filter struct {14 NameDrop []string15 NamePass []string16 FieldDrop []string17 FieldPass []string18 TagDrop []TagFilter19 TagPass []TagFilter20 IsActive bool21}22func (f Filter) ShouldMetricPass(metric telegraf.Metric) bool {23 if f.ShouldNamePass(metric.Name()) && f.ShouldTagsPass(metric.Tags()) {24 return true25 }26 return false27}28// ShouldFieldsPass returns true if the metric should pass, false if should drop29// based on the drop/pass filter parameters30func (f Filter) ShouldNamePass(key string) bool {31 if f.NamePass != nil {32 for _, pat := range f.NamePass {33 // TODO remove HasPrefix check, leaving it for now for legacy support.34 // Cam, 2015-12-0735 if strings.HasPrefix(key, pat) || internal.Glob(pat, key) {36 return true37 }38 }39 return false40 }41 if f.NameDrop != nil {42 for _, pat := range f.NameDrop {43 // TODO remove HasPrefix check, leaving it for now for legacy support.44 // Cam, 2015-12-0745 if strings.HasPrefix(key, pat) || internal.Glob(pat, key) {46 return false47 }48 }49 return true50 }51 return true52}53// ShouldFieldsPass returns true if the metric should pass, false if should drop54// based on the drop/pass filter parameters55func (f Filter) ShouldFieldsPass(key string) bool {56 if f.FieldPass != nil {57 for _, pat := range f.FieldPass {58 // TODO remove HasPrefix check, leaving it for now for legacy support.59 // Cam, 2015-12-0760 if strings.HasPrefix(key, pat) || internal.Glob(pat, key) {61 return true62 }63 }64 return false65 }66 if f.FieldDrop != nil {67 for _, pat := range f.FieldDrop {68 // TODO remove HasPrefix check, leaving it for now for legacy support.69 // Cam, 2015-12-0770 if strings.HasPrefix(key, pat) || internal.Glob(pat, key) {71 return false72 }73 }74 return true75 }76 return true77}78// ShouldTagsPass returns true if the metric should pass, false if should drop79// based on the tagdrop/tagpass filter parameters80func (f Filter) ShouldTagsPass(tags map[string]string) bool {81 if f.TagPass != nil {82 for _, pat := range f.TagPass {83 if tagval, ok := tags[pat.Name]; ok {84 for _, filter := range pat.Filter {85 if internal.Glob(filter, tagval) {86 return true87 }88 }89 }90 }91 return false92 }93 if f.TagDrop != nil {94 for _, pat := range f.TagDrop {95 if tagval, ok := tags[pat.Name]; ok {96 for _, filter := range pat.Filter {97 if internal.Glob(filter, tagval) {98 return false99 }100 }101 }102 }103 return true104 }105 return true106}...
Filter
Using AI Code Generation
1import (2func main() {3 var names = []string{"Heisenberg", "Walter", "White", "Jesse", "Pinkman"}4 var r = filter(names, func(each string) bool {5 return strings.Contains(each, "e")6 })7 fmt.Println(r)8}9func filter(data []string, callback func(string) bool) []string {10 for _, each := range data {11 if filtered := callback(each); filtered {12 result = append(result, each)13 }14 }15}16import (17func main() {18 var names = []string{"Heisenberg", "Walter", "White", "Jesse", "Pinkman"}19 var r = mapFunc(names, func(each string) string {20 return strings.ToUpper(each)21 })22 fmt.Println(r)23}24func mapFunc(data []string, callback func(string) string) []string {25 for _, each := range data {26 result = append(result, callback(each))27 }28}29import (30func main() {31 var names = []string{"Heisenberg", "Walter", "White", "Jesse", "Pinkman"}32 var r = reduceFunc(names, func(result, each string) string {33 })34 fmt.Println(r)35}36func reduceFunc(data []string, callback func(string, string) string) string {37 for _, each := range data[1:] {38 result = callback(result, each)39 }40}41import (42func main() {43 var names = []string{"Heisenberg", "Walter", "White", "Jesse", "Pinkman"}44 var r = findFunc(names, func(each string) bool {45 return strings.Contains(each, "e")46 })47 fmt.Println(r)48}49func findFunc(data []string, callback func(string) bool) string {
Filter
Using AI Code Generation
1import (2func main() {3 slice := []string{"Apple", "Orange", "Plum", "Banana", "Grape"}4 tomatoSlice := make([]string, 0, 2)5 tomatoSlice = Filter(slice, func(v string) bool {6 return strings.Contains(v, "to")7 })8 fmt.Println(tomatoSlice)9}10func Filter(vs []string, f func(string) bool) []string {11 vsf := make([]string, 0, cap(vs))12 for _, v := range vs {13 if f(v) {14 vsf = append(vsf, v)15 }16 }17}
Filter
Using AI Code Generation
1import (2func main() {3 slice := []string{"Apple", "Orange", "Plum", "Banana", "Grape"}4 filteredSlice := Filter(slice, "a")5 fmt.Println(filteredSlice)6}7func Filter(slice []string, letter string) []string {8 for _, value := range slice {9 if strings.Contains(value, letter) {10 filteredSlice = append(filteredSlice, value)11 }12 }13}
Filter
Using AI Code Generation
1import (2func main() {3 var names = []string{"Einstein", "Tesla", "Shepard", "Newton"}4 var filter = func(name string) bool {5 return strings.Contains(name, "a")6 }7 var filtered = filterNames(names, filter)8 fmt.Println(filtered)9}10func filterNames(names []string, filter func(string) bool) []string {11 for _, name := range names {12 if filter(name) {13 r = append(r, name)14 }15 }16}17import (18func main() {19 var names = []string{"Einstein", "Tesla", "Shepard", "Newton"}20 var filtered = filterNames(names, func(name string) bool {21 return strings.Contains(name, "a")22 })23 fmt.Println(filtered)24}25func filterNames(names []string, filter func(string) bool) []string {26 for _, name := range names {27 if filter(name) {28 r = append(r, name)29 }30 }31}32import (33func main() {34 var names = []string{"Einstein", "Tesla", "Shepard", "Newton"}35 var filtered = filter(names, func(name string) bool {36 return strings.Contains(name, "a")37 })38 fmt.Println(filtered)39}40func filter(names []string, filter func(string) bool) []string {41 for _, name := range names {42 if filter(name) {43 r = append(r, name)44 }45 }46}47import (48func main() {49 var names = []string{"Einstein", "Tesla", "Shepard", "Newton"}50 var filtered = filter(names, func(name string) bool {51 return strings.Contains(name, "a")52 })53 fmt.Println(filtered)54}55func filter(names []string, filter func(string) bool) []string {56 for _, name := range names {57 if filter(name) {
Filter
Using AI Code Generation
1import (2func main() {3 fmt.Println("Enter a string: ")4 fmt.Scanln(&str)5 fmt.Println("Enter a character: ")6 fmt.Scanln(&c)7 fmt.Println("Filtered string: ")8 fmt.Println(strings.Filter(str, c))9}10import (11func main() {12 fmt.Println("Enter a string: ")13 fmt.Scanln(&str)14 fmt.Println("Enter a character: ")15 fmt.Scanln(&c)16 fmt.Println("Filtered string: ")17 fmt.Println(stringutil.Filter(str, c))18}19import (20func main() {21 fmt.Println("Enter a string: ")22 fmt.Scanln(&str)23 fmt.Println("Enter a character: ")24 fmt.Scanln(&c)25 fmt.Println("Filtered string: ")26 fmt.Println(stringutil.Filter(str, c))27}28import (29func Filter(str, c string) string {30 for _, v := range str {31 if string(v) != c {32 newstr = newstr + string(v)33 }34 }35}
Filter
Using AI Code Generation
1import (2func main() {3 var lowerStr string = strings.ToLower(str)4 var upperStr string = strings.ToUpper(str)5 fmt.Printf("Original String: %s\n", str)6 fmt.Printf("To Lowercase: %s\n", lowerStr)7 fmt.Printf("To Uppercase: %s\n", upperStr)8}
Filter
Using AI Code Generation
1import (2type Person struct {3}4func (a ByAge) Len() int { return len(a) }5func (a ByAge) Swap(i, j int) { a[i], a[j] = a[j], a[i] }6func (a ByAge) Less(i, j int) bool { return a[i].Age < a[j].Age }7func (n ByName) Len() int { return len(n) }8func (n ByName) Swap(i, j int) { n[i], n[j] = n[j], n[i] }9func (n ByName) Less(i, j int) bool { return n[i].Name < n[j].Name }10func main() {11 p := []Person{12 {"Raj", 30},13 {"Vijay", 20},14 {"Ajay", 40},15 {"Suresh", 50},16 {"Mukesh", 30},17 }18 fmt.Println("Before Sort:")19 for _, v := range p {20 fmt.Println(v.Name, v.Age)21 }22 sort.Sort(ByName(p))23 fmt.Println("\nAfter Sort By Name:")24 for _, v := range p {25 fmt.Println(v.Name, v.Age)26 }27 sort.Sort(ByAge(p))28 fmt.Println("\nAfter Sort By Age:")29 for _, v := range p {30 fmt.Println(v.Name, v.Age)31 }32}
Filter
Using AI Code Generation
1import (2func main() {3 var str = []string{"Hello", "World", "How", "are", "you"}4 var result = strings.FieldsFunc("Hello World How are you", func(r rune) bool {5 })6 fmt.Println(result)7 fmt.Println(str)8}
Filter
Using AI Code Generation
1import (2func main() {3 names := []string{"Steve", "Bill", "Mark", "Jeff", "Tim"}4 result := f(names, "i")5 fmt.Println(result)6}7type Filter func([]string, string) []string8func filter(names []string, criteria string) []string {9 for _, name := range names {10 if strings.Contains(name, criteria) {11 result = append(result, name)12 }13 }14}
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