Files
dynamix-golang-sdk/internal/validators/custom.go
2026-06-05 17:30:36 +03:00

487 lines
13 KiB
Go
Raw Blame History

This file contains ambiguous Unicode characters

This file contains Unicode characters that might be confused with other characters. If you think that this is intentional, you can safely ignore this warning. Use the Escape button to reveal them.

package validators
import (
"errors"
"fmt"
"net/url"
"reflect"
"regexp"
"strconv"
"strings"
"github.com/go-playground/validator/v10"
"repository.basistech.ru/BASIS/dynamix-golang-sdk/v15/interfaces"
"repository.basistech.ru/BASIS/dynamix-golang-sdk/v15/internal/multierror"
)
// protoValidator is used to validate Proto fields.
func protoValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, protoValues)
}
// apiGroupValidator is used to validate APIGroup fields
func apiGroupValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, apiGroupValues)
}
// accessTypeValidator is used to validate AccessType fields.
func accessTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, accessTypeValues)
}
// resTypesValidator is used to validate ResTypes fields.
func resTypesValidator(fe validator.FieldLevel) bool {
fieldSlice, ok := fe.Field().Interface().([]string)
if !ok {
return false
}
for _, value := range fieldSlice {
if !IsInSlice(value, resTypesValues) {
return false
}
}
return true
}
// accountCUTypeValidator is used to validate CUType field.
func accountCUTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, accountCUTypeValues)
}
// bserviceModeValidator is used to validate Mode field.
func bserviceModeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, bserviceModeValues)
}
// computeTopologyValidator is used to validate Topology field.
func computeTopologyValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, computeTopologyValues)
}
// computePolicyValidator is used to validate Policy field.
func computePolicyValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, computePolicyValues)
}
// computeModeValidator is used to validate Mode field.
func computeModeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, computeModeValues)
}
// computeNetTypeValidator is used to validate NetType field.
func computeNetTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, computeNetTypeValues)
}
// computex86NetTypeValidator is used to validate NetType field.
func computex86NetTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, computex86NetTypeValues)
}
// securityGroupDirectionValidator is used to validate Direction field
func securityGroupDirectionValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, securityGroupDirectionValues)
}
// securityGroupEthertypeValidator is used to validate Ethertype field
func securityGroupEthertypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, securityGroupEthertypeValues)
}
// securityGroupProtocolValidator is used to validate Protocol field
func securityGroupProtocolValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, securityGroupProtocolValues)
}
// computeOrderValidator is used to validate Order field.
func computeOrderValidator(fe validator.FieldLevel) bool {
fieldSlice, ok := fe.Field().Interface().([]string)
if !ok {
return false
}
for _, value := range fieldSlice {
if !IsInSlice(value, computeOrderValues) {
return false
}
}
return true
}
// computeDataDisksValidator is used to validate DataDisks field.
func computeDataDisksValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, computeDataDisksValues)
}
// flipgroupClientTypeValidator is used to validate ClientType field.
func flipgroupClientTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, flipgroupClientTypeValues)
}
// massCreateTypeValidator is used to validate net type field when mass creating kvm
func massCreateTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, massCreateNetTypeValues)
}
// lbAlgorithmValidator is used to validate Algorithm field.
func lbAlgorithmValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, lbAlgorithmValues)
}
// rgDefNetValidator is used to validate DefNet field.
func rgDefNetValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, rgDefNetValues)
}
// rgNetTypeValidator is used to validate NetType field.
func rgNetTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, rgNetTypeValues)
}
// vinsTypeValidator is used to validate Type field.
func vinsTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, vinsTypeValues)
}
// imageBootTypeValidator is used to validate BootType field.
func imageBootTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, imageBootTypeValues)
}
// imageTypeValidator is used to validate ImageType field.
func imageTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, imageTypeValues)
}
// imageArchitectureValidator is used to validate Architecture field.
func imageArchitectureValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, imageArchitectureValues)
}
// sepFieldTypeValidator is used to validate FieldType field.
func sepFieldTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, sepFieldTypeValues)
}
// hwPathValidator is used to validate HWPath field.
func hwPathValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
ok, _ := regexp.MatchString(`^\b[0-9a-f]{4}:[0-9a-fA-F]{2}:[0-9a-fA-F]{2}.\d{1}$`, fieldValue)
return ok
}
// networkPluginValidator is used to validate NetworkPlugin field
func networkPluginValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
fieldValue = strings.ToLower(fieldValue)
return IsInSlice(fieldValue, networkPluginValues)
}
// networkPluginsValidator is used to validate NetworkPlugins field
func networkPluginsValidator(fe validator.FieldLevel) bool {
fieldSlice, ok := fe.Field().Interface().([]string)
if !ok {
return false
}
for _, item := range fieldSlice {
item = strings.ToLower(item)
if !IsInSlice(item, networkPluginValues) {
return false
}
}
return true
}
func interfaceStateValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
fieldValue = strings.ToLower(fieldValue)
return IsInSlice(fieldValue, interfaceStateValues)
}
func interfaceTXModelValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
fieldValue = strings.ToLower(fieldValue)
return IsInSlice(fieldValue, txModelValues)
}
func interfaceIOEventFDValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
fieldValue = strings.ToLower(fieldValue)
return IsInSlice(fieldValue, ioEventFDValues)
}
func interfaceEventIDxValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
fieldValue = strings.ToLower(fieldValue)
return IsInSlice(fieldValue, eventIDxValues)
}
func strictLooseValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
fieldValue = strings.ToLower(fieldValue)
return IsInSlice(fieldValue, strictLooseValues)
}
// name workerGroup must be more 3 symbol
func workerGroupNameValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
fieldValue = strings.Trim(fieldValue, " ")
return len(fieldValue) >= 3
}
func sortByValidator(fe validator.FieldLevel) bool {
sortByRegexp := regexp.MustCompile(`^[+-][a-zA-Z_]+`)
return sortByRegexp.MatchString(fe.Field().String())
}
func actionValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, actionValues)
}
func vmActionValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, vmActionValues)
}
func mtuValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().Uint()
return fieldValue >= uint64(mtuMin) && fieldValue <= uint64(mtuMax)
}
func computeFeaturesValidator(fe validator.FieldLevel) bool {
field := fe.Field()
slice, ok := field.Interface().([]string)
if !ok {
return false
}
return IsSubSlice(slice, computeFeaturesValues)
}
func networkInterfaceNamingValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, networkInterfaceNamingValues)
}
func numaAffinityValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, numaAffinityValues)
}
// kvmx86NetTypeValidator is used to validate NetType field for x86 compute.
func kvmx86NetTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, kvmx86NetTypeValues)
}
func isBoolTypeValidator(fe validator.FieldLevel) bool {
return fe.Field().CanConvert(reflect.TypeOf(true))
}
func urlValidartor(fl validator.FieldLevel) bool {
fieldValues := fl.Field().String()
_, err := url.ParseRequestURI(fieldValues)
return err == nil
}
func chipsetValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, chipsetValues)
}
func preferredCPUValidator(fe validator.FieldLevel) bool {
fieldSlice, ok := fe.Field().Interface().([]int64)
if !ok {
return false
}
for _, value := range fieldSlice {
if value < -1 {
return false
}
}
return true
}
// loaderTypeValidator is used to validate loaderType fields
func loaderTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, loaderTypeValues)
}
// languageValidator is used to validate language fields
func languageValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, languageValues)
}
func userProviderValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, userProviders)
}
// sepTypeValidator is used to validate sepType fields
func sepTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, sepTypeValues)
}
// deviceValidator is used to validate extnet device fields
func deviceValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, deviceValues)
}
// ipTypesValidator is used to validate ip types version fields
func ipTypesValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, ipTypeValues)
}
// ValidateRAM checks if request contains RAM value that is positive integer divisible by divisibility passed.
// It is recommended to pass constants.RAM_DIVISIBILITY as divisility arguement
func ValidateRAM(r interfaces.RequestWithRAM, divisibility uint64) error {
if divisibility == 0 {
return errors.New("second argument of ValidateRAM should be greater than 0")
}
mapRAM := r.GetRAM()
errs := make([]error, 0, len(mapRAM))
for k, v := range mapRAM {
if v%divisibility != 0 {
errs = append(errs, fmt.Errorf("expected value of %s: \"%d\" should be divisible by %d", k, v, divisibility))
}
}
return multierror.Join(errs...)
}
// trunkTagsValidator checks if trunk_tags is in range from 1 to 4095
func trunkTagsValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
numFieldValue, err := strconv.ParseInt(fieldValue, 10, 64)
if err != nil {
return false
}
return uint64(numFieldValue) >= uint64(trunkTagsMin) && uint64(numFieldValue) <= uint64(trunkTagsMax)
}
// addressPoolNetTypeValidator is used to validate NetAddressType fields
func addressPoolNetTypeValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, addressPoolNetTypeValues)
}
// sepTechStatusValidator is used to validate SepTechStatus fields
func sepTechStatusValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
return IsInSlice(fieldValue, sepTechStatusValues)
}
// pciDeviceHWPathValidator is used to validate PCI device hardware path fields (e.g. 0000:81:00.0)
func pciDeviceHWPathValidator(fe validator.FieldLevel) bool {
fieldValue := fe.Field().String()
ok, _ := regexp.MatchString(`^[0-9a-fA-F]{4}:[0-9a-fA-F]{2}:[0-9a-fA-F]{2}\.[0-7]$`, fieldValue)
return ok
}
// sepNameValidator is used to validate SEP name fields
func sepNameValidator(fe validator.FieldLevel) bool {
ok, _ := regexp.MatchString(`^[a-zA-Zа-яА-ЯёЁ0-9][a-zA-Zа-яА-ЯёЁ0-9_.\[\]()\-]*$`, fe.Field().String())
return ok
}
// sepDescriptionValidator is used to validate SEP description fields
func sepDescriptionValidator(fe validator.FieldLevel) bool {
ok, _ := regexp.MatchString(`^[a-zA-Zа-яА-ЯёЁ0-9_.\[\]()\-]*$`, fe.Field().String())
return ok
}