How to use appendTo method of flat Package

Best Go-testdeep code snippet using flat.appendTo

plan.go

Source:plan.go

1package stripe2import (3	"encoding/json"4	"strconv"5	"github.com/amazingmarvin/stripe-go/form"6)7// PlanInterval is the list of allowed values for a plan's interval.8type PlanInterval string9// List of values that PlanInterval can take.10const (11	PlanIntervalDay   PlanInterval = "day"12	PlanIntervalWeek  PlanInterval = "week"13	PlanIntervalMonth PlanInterval = "month"14	PlanIntervalYear  PlanInterval = "year"15)16// PlanBillingScheme is the list of allowed values for a plan's billing scheme.17type PlanBillingScheme string18// List of values that PlanBillingScheme can take.19const (20	PlanBillingSchemePerUnit PlanBillingScheme = "per_unit"21	PlanBillingSchemeTiered  PlanBillingScheme = "tiered"22)23// PlanUsageType is the list of allowed values for a plan's usage type.24type PlanUsageType string25// List of values that PlanUsageType can take.26const (27	PlanUsageTypeLicensed PlanUsageType = "licensed"28	PlanUsageTypeMetered  PlanUsageType = "metered"29)30// PlanTiersMode is the list of allowed values for a plan's tiers mode.31type PlanTiersMode string32// List of values that PlanTiersMode can take.33const (34	PlanTiersModeGraduated PlanTiersMode = "graduated"35	PlanTiersModeVolume    PlanTiersMode = "volume"36)37// PlanTransformUsageRound is the list of allowed values for a plan's transform usage round logic.38type PlanTransformUsageRound string39// List of values that PlanTransformUsageRound can take.40const (41	PlanTransformUsageRoundDown PlanTransformUsageRound = "down"42	PlanTransformUsageRoundUp   PlanTransformUsageRound = "up"43)44// PlanAggregateUsage is the list of allowed values for a plan's aggregate usage.45type PlanAggregateUsage string46// List of values that PlanAggregateUsage can take.47const (48	PlanAggregateUsageLastDuringPeriod PlanAggregateUsage = "last_during_period"49	PlanAggregateUsageLastEver         PlanAggregateUsage = "last_ever"50	PlanAggregateUsageMax              PlanAggregateUsage = "max"51	PlanAggregateUsageSum              PlanAggregateUsage = "sum"52)53// Plan is the resource representing a Stripe plan.54// For more details see https://stripe.com/docs/api#plans.55type Plan struct {56	Active          bool                `json:"active"`57	AggregateUsage  string              `json:"aggregate_usage"`58	Amount          int64               `json:"amount"`59	AmountDecimal   float64             `json:"amount_decimal,string"`60	BillingScheme   PlanBillingScheme   `json:"billing_scheme"`61	Created         int64               `json:"created"`62	Currency        Currency            `json:"currency"`63	Deleted         bool                `json:"deleted"`64	ID              string              `json:"id"`65	Interval        PlanInterval        `json:"interval"`66	IntervalCount   int64               `json:"interval_count"`67	Livemode        bool                `json:"livemode"`68	Metadata        map[string]string   `json:"metadata"`69	Nickname        string              `json:"nickname"`70	Product         *Product            `json:"product"`71	Tiers           []*PlanTier         `json:"tiers"`72	TiersMode       string              `json:"tiers_mode"`73	TransformUsage  *PlanTransformUsage `json:"transform_usage"`74	TrialPeriodDays int64               `json:"trial_period_days"`75	UsageType       PlanUsageType       `json:"usage_type"`76}77// PlanList is a list of plans as returned from a list endpoint.78type PlanList struct {79	ListMeta80	Data []*Plan `json:"data"`81}82// PlanListParams is the set of parameters that can be used when listing plans.83// For more details see https://stripe.com/docs/api#list_plans.84type PlanListParams struct {85	ListParams   `form:"*"`86	Active       *bool             `form:"active"`87	Created      *int64            `form:"created"`88	CreatedRange *RangeQueryParams `form:"created"`89	Product      *string           `form:"product"`90}91// PlanParams is the set of parameters that can be used when creating or updating a plan.92// For more details see https://stripe.com/docs/api#create_plan and https://stripe.com/docs/api#update_plan.93type PlanParams struct {94	Params          `form:"*"`95	Active          *bool                     `form:"active"`96	AggregateUsage  *string                   `form:"aggregate_usage"`97	Amount          *int64                    `form:"amount"`98	AmountDecimal   *float64                  `form:"amount_decimal,high_precision"`99	BillingScheme   *string                   `form:"billing_scheme"`100	Currency        *string                   `form:"currency"`101	ID              *string                   `form:"id"`102	Interval        *string                   `form:"interval"`103	IntervalCount   *int64                    `form:"interval_count"`104	Nickname        *string                   `form:"nickname"`105	Product         *PlanProductParams        `form:"product"`106	ProductID       *string                   `form:"product"`107	Tiers           []*PlanTierParams         `form:"tiers"`108	TiersMode       *string                   `form:"tiers_mode"`109	TransformUsage  *PlanTransformUsageParams `form:"transform_usage"`110	TrialPeriodDays *int64                    `form:"trial_period_days"`111	UsageType       *string                   `form:"usage_type"`112}113// PlanTier configures tiered pricing114type PlanTier struct {115	FlatAmount        int64   `json:"flat_amount"`116	FlatAmountDecimal float64 `json:"flat_amount_decimal,string"`117	UnitAmount        int64   `json:"unit_amount"`118	UnitAmountDecimal float64 `json:"unit_amount_decimal,string"`119	UpTo              int64   `json:"up_to"`120}121// PlanTransformUsage represents the bucket billing configuration.122type PlanTransformUsage struct {123	DivideBy int64                   `json:"divide_by"`124	Round    PlanTransformUsageRound `json:"round"`125}126// PlanTransformUsageParams represents the bucket billing configuration.127type PlanTransformUsageParams struct {128	DivideBy *int64  `form:"divide_by"`129	Round    *string `form:"round"`130}131// PlanTierParams configures tiered pricing132type PlanTierParams struct {133	Params            `form:"*"`134	FlatAmount        *int64   `form:"flat_amount"`135	FlatAmountDecimal *float64 `form:"flat_amount_decimal,high_precision"`136	UnitAmount        *int64   `form:"unit_amount"`137	UnitAmountDecimal *float64 `form:"unit_amount_decimal,high_precision"`138	UpTo              *int64   `form:"-"` // handled in custom AppendTo139	UpToInf           *bool    `form:"-"` // handled in custom AppendTo140}141// AppendTo implements custom up_to serialisation logic for tiers configuration142func (p *PlanTierParams) AppendTo(body *form.Values, keyParts []string) {143	if BoolValue(p.UpToInf) {144		body.Add(form.FormatKey(append(keyParts, "up_to")), "inf")145	} else {146		body.Add(form.FormatKey(append(keyParts, "up_to")), strconv.FormatInt(Int64Value(p.UpTo), 10))147	}148}149// PlanProductParams is the set of parameters that can be used when creating a product inside a plan150// This can only be used on plan creation and won't work on plan update.151// For more details see https://stripe.com/docs/api#create_plan-product and https://stripe.com/docs/api#update_plan-product152type PlanProductParams struct {153	Active              *bool             `form:"active"`154	ID                  *string           `form:"id"`155	Name                *string           `form:"name"`156	Metadata            map[string]string `form:"metadata"`157	StatementDescriptor *string           `form:"statement_descriptor"`158	UnitLabel           *string           `form:"unit_label"`159}160// UnmarshalJSON handles deserialization of a Plan.161// This custom unmarshaling is needed because the resulting162// property may be an id or the full struct if it was expanded.163func (s *Plan) UnmarshalJSON(data []byte) error {164	if id, ok := ParseID(data); ok {165		s.ID = id166		return nil167	}168	type plan Plan169	var v plan170	if err := json.Unmarshal(data, &v); err != nil {171		return err172	}173	*s = Plan(v)174	return nil175}...

slice.go

Source:slice.go

...93		v = v.Elem()94	}95	i := v.Interface()96	if s, ok := i.(Slice); ok {97		return s.appendTo(si)98	}99	return append(si, i)100}101func (f Slice) appendTo(si []any) []any {102	fv := reflect.ValueOf(f.Slice)103	if fv.Kind() == reflect.Map {104		if f.isFlat() {105			tdutil.MapEach(fv, func(k, v reflect.Value) bool {106				si = append(si, k.Interface(), v.Interface())107				return true108			})109			return si110		}111		tdutil.MapEach(fv, func(k, v reflect.Value) bool {112			si = append(si, k.Interface())113			si = subAppendTo(si, v)114			return true115		})116		return si117	}118	fvLen := fv.Len()119	if f.isFlat() {120		for i := 0; i < fvLen; i++ {121			si = append(si, fv.Index(i).Interface())122		}123		return si124	}125	for i := 0; i < fvLen; i++ {126		si = subAppendTo(si, fv.Index(i))127	}128	return si129}130// Len returns the number of items contained in items. Nested Slice131// items are counted as if they are flattened. It returns true if at132// least one [Slice] item is found, false otherwise.133func Len(items []any) (int, bool) {134	l := len(items)135	flattened := true136	for _, item := range items {137		if subf, ok := item.(Slice); ok {138			l += subf.len() - 1139			flattened = false140		}141	}142	return l, flattened143}144// Values returns the items values as a slice of145// [reflect.Value]. Nested [Slice] items are flattened.146func Values(items []any) []reflect.Value {147	l, flattened := Len(items)148	if flattened {149		sv := make([]reflect.Value, l)150		for i, item := range items {151			sv[i] = reflect.ValueOf(item)152		}153		return sv154	}155	sv := make([]reflect.Value, 0, l)156	for _, item := range items {157		if f, ok := item.(Slice); ok {158			sv = f.appendValuesTo(sv)159		} else {160			sv = append(sv, reflect.ValueOf(item))161		}162	}163	return sv164}165// Interfaces returns the items values as a slice of166// any. Nested [Slice] items are flattened.167func Interfaces(items ...any) []any {168	l, flattened := Len(items)169	if flattened {170		return items171	}172	si := make([]any, 0, l)173	for _, item := range items {174		if f, ok := item.(Slice); ok {175			si = f.appendTo(si)176		} else {177			si = append(si, item)178		}179	}180	return si181}...

appendTo

Using AI Code Generation

1import "fmt"2func main() {3    s := []int{1, 2, 3}4    s = append(s, 4, 5, 6)5}6import "fmt"7func main() {8    s := []int{1, 2, 3}9    t := []int{4, 5, 6}10    s = append(s, t...)11}12import "fmt"13func main() {14    s := []int{1, 2, 3}15    s = append(s[1:2], s[2:]...)16}17import "fmt"18func main() {19    s := []int{1, 2, 3}20    s = append(s[:0], s[1:]...)21}22import "fmt"23func main() {24    s := []int{1, 2, 3}25    s = append(s[:1], s[2:]...)26}27import "fmt"28func main() {29    s := []int{1, 2, 3}30    s = append(s[:2], s[2:]...)31}32import "fmt"33func main() {34    s := []int{1, 2, 3}35    s = append(s[:2], s[1:]...)36}

appendTo

Using AI Code Generation

1import (2func main() {3	a = appendTo(a, 1)4	fmt.Println(a)5	a = appendTo(a, 2)6	fmt.Println(a)7	a = appendTo(a, 3)8	fmt.Println(a)9	a = appendTo(a, 4)10	fmt.Println(a)11}12func appendTo(a []int, s int) []int {13	a = append(a, s)14}15import "fmt"16func main() {17	a = appendTo(a, 1)18	fmt.Println(a)19	a = appendTo(a, 2)20	fmt.Println(a)21	a = appendTo(a, 3)22	fmt.Println(a)23	a = appendTo(a, 4)24	fmt.Println(a)25}26func appendTo(a []int, s int) []int {27	a = append(a, s)28}29import "fmt"30func main() {31	a = appendTo(a, 1)32	fmt.Println(a)33	a = appendTo(a, 2)34	fmt.Println(a)35	a = appendTo(a, 3)36	fmt.Println(a)37	a = appendTo(a, 4)38	fmt.Println(a)39}40func appendTo(a []int, s int) []int {41	a = append(a, s)42}43import "fmt"44func main() {45	a = appendTo(a, 1)46	fmt.Println(a)47	a = appendTo(a, 2)48	fmt.Println(a)49	a = appendTo(a, 3)50	fmt.Println(a)51	a = appendTo(a, 4)52	fmt.Println(a)53}54func appendTo(a []int, s int) []int {55	a = append(a, s)56}57import

appendTo

Using AI Code Generation

1import "fmt"2func main() {3    f.appendTo(1)4    f.appendTo(2)5    f.appendTo(3)6    fmt.Println(f)7}8func (f *flat) appendTo(i int) {9    *f = append(*f, i)10}

appendTo

Using AI Code Generation

1import (2func main() {3	fl.appendTo(1)4	fl.appendTo(2)5	fl.appendTo(3)6	fmt.Println(fl)7}8func (f *flat) appendTo(i int) {9	*f = append(*f, i)10}11import (12func main() {13	fl.appendTo(1)14	fl.appendTo(2)15	fl.appendTo(3)16	fmt.Println(fl)17}18func (f *flat) appendTo(i int) {19	*f = append(*f, i)20}21import (22func main() {23	fl.appendTo(1)24	fl.appendTo(2)25	fl.appendTo(3)26	fmt.Println(fl)27}28func (f *flat) appendTo(i int) {29	*f = append(*f, i)30}31import (32func main() {33	fl.appendTo(1)34	fl.appendTo(2)35	fl.appendTo(3)36	fmt.Println(fl)37}38func (f *flat) appendTo(i int) {39	*f = append(*f, i)40}41import (42func main() {43	fl.appendTo(1)44	fl.appendTo(2)45	fl.appendTo(3)46	fmt.Println(fl)47}48func (f *flat) appendTo(i int) {49	*f = append(*f, i)50}

appendTo

Using AI Code Generation

1import (2func main() {3    f.AppendTo("Hello")4    f.AppendTo("World")5    fmt.Println(f)6}7import (8type Flat struct {9}10func (f *Flat) AppendTo(s string) {11    f.WriteString(s)12}

appendTo

Using AI Code Generation

1import (2func main() {3	f.appendTo("Hello")4	f.appendTo("World")5	fmt.Println(f)6}7func (f *flat) appendTo(s string) {8	*f = append(*f, s)9}

appendTo

Using AI Code Generation

1import (2func main() {3	f := flat.New("flat")4	f.AppendTo("A", "B", "C")5	fmt.Println(f)6}7import (8func main() {9	f := flat.New("flat")10	f.AppendTo("A", "B", "C")11	fmt.Println(f)12}13import (14func main() {15	f := flat.New("flat")16	f.AppendTo("A", "B", "C")17	fmt.Println(f)18}19import (20func main() {21	f := flat.New("flat")22	f.AppendTo("A", "B", "C")23	fmt.Println(f)24}25import (

appendTo

Using AI Code Generation

1func main() {2    flat1.appendRooms(1, 2, 3)3    fmt.Println(flat1.rooms)4}5func main() {6    flat1.appendRooms(1, 2, 3)7    flat1.appendRooms(4, 5, 6)8    fmt.Println(flat1.rooms)9}10func main() {11    flat1.appendRooms(1, 2, 3)12    flat1.appendRooms(4, 5, 6)13    flat1.appendRooms(7, 8, 9)14    fmt.Println(flat1.rooms)15}16func main() {17    flat1.appendRooms(1, 2, 3)18    flat1.appendRooms(4, 5, 6)19    flat1.appendRooms(7, 8, 9)20    flat1.appendRooms(10, 11, 12)21    fmt.Println(flat1.rooms)22}23func main() {24    flat1.appendRooms(1, 2, 3)25    flat1.appendRooms(4, 5, 6)26    flat1.appendRooms(7, 8, 9)27    flat1.appendRooms(10, 11, 12)28    flat1.appendRooms(13, 14, 15)29    fmt.Println(flat1.rooms)30}

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