}

	cache := store.rlock()
	defer store.runlock()

	v, ok := cache.iamPolicyDocsMap[name]
	if !ok {
		return r, errNoSuchPolicy
	}
	return v, nil
}

// SetPolicy - creates a policy with name.
func (store *IAMStoreSys) SetPolicy(ctx context.Context, name string, policy policy.Policy) (time.Time, error) {
	if policy.IsEmpty() || name == "" {
		return time.Time{}, errInvalidArgument
	}

	sys.usersSysType = t
}

// GetUsersSysType - returns the users system type for this IAM
func (sys *IAMSys) GetUsersSysType() UsersSysType {
	return sys.usersSysType
}

// NewIAMSys - creates new config system object.
func NewIAMSys() *IAMSys {
	return &IAMSys{
		usersSysType: MinIOUsersSysType,
		configLoaded: make(chan struct{}),
	}

			knownTypes:      sets.NewString(string("Webhook")),
			repeatableTypes: sets.NewString(string("Webhook")),
		},
		{
			name: "timeout shouldn't be greater than 30seconds",
			configuration: api.AuthorizationConfiguration{
				Authorizers: []api.AuthorizerConfiguration{
					{
						Type: "Webhook",
						Name: "default",
						Webhook: &api.WebhookConfiguration{

	// should be allowed by the policy. This field cannot be defined if the port field
	// is not defined or if the port field is defined as a named (string) port.
	// The endPort must be equal or greater than port.
	// +optional
	EndPort *int32 `json:"endPort,omitempty" protobuf:"bytes,3,opt,name=endPort"`
}

// DEPRECATED 1.9 - This group version of IPBlock is deprecated by networking/v1/IPBlock.

func getCostErrorMessage(costName string, expressionCost, costLimit uint64) string {
	exceedFactor := float64(expressionCost) / float64(costLimit)
	var factor string
	if exceedFactor > 100.0 {
		// if exceedFactor is greater than 2 orders of magnitude, the rule is likely O(n^2) or worse
		// and will probably never validate without some set limits
		// also in such cases the cost estimation is generally large enough to not add any value

			// will affect the addresses), and so we cannot write
			// the Elf64_Rela.r_offset now. Instead we delay it
			// until after the 'address' phase of the linker is
			// complete. We do this via Addaddrplus, which creates
			// a new R_ADDR relocation which will be resolved in
			// the 'reloc' phase.
			//
			// These synthetic static R_ADDR relocs must be skipped
			// now, or else we will be caught in an infinite loop

        Task finalizer = createTask("finalizer")
        Task finalizerDep = task("finalizerDep", type: Async)
        Task a = task("a", type: Async, finalizedBy: [finalizer])
        // Note: this task must be "ordered" greater than the finalizer to trigger the issue
        Task b = task("zz", type: Async, dependsOn: [finalizerDep])
        relationships(finalizer, dependsOn: [finalizerDep, b])

        when:

		print("system huge page size (", physHugePageSize, ") must be a power of 2\n")
		throw("bad system huge page size")
	}
	if physHugePageSize > maxPhysHugePageSize {
		// physHugePageSize is greater than the maximum supported huge page size.
		// Don't throw here, like in the other cases, since a system configured
		// in this way isn't wrong, we just don't have the code to support them.

		return ObjectInfo{}, toObjectErr(err, minioMetaBucket, key)
	}

	return fi.ToObjectInfo(minioMetaBucket, key, opts.Versioned || opts.VersionSuspended), nil
}

// PutObject - creates an object upon reading from the input stream
// until EOF, erasure codes the data across all disk and additionally
// writes `xl.meta` which carries the necessary metadata for future
// object operations.

	case updateCloser <- ch:
		<-ch
	case <-ctx.Done():
		mu.Lock()
		if firstErr == nil {
			firstErr = ctx.Err()
		}
		defer mu.Unlock()
	}
	return firstErr
}

// MakeBucket - creates a new bucket across all serverPools simultaneously
// even if one of the sets fail to create buckets, we proceed all the successful
// operations.