open-consul/agent/structs/structs_test.go

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package structs
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import (
"encoding/json"
"fmt"
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"reflect"
"strings"
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"testing"
"time"
"github.com/stretchr/testify/assert"
"github.com/stretchr/testify/require"
fuzz "github.com/google/gofuzz"
"github.com/hashicorp/consul/acl"
"github.com/hashicorp/consul/agent/cache"
"github.com/hashicorp/consul/api"
"github.com/hashicorp/consul/lib"
"github.com/hashicorp/consul/sdk/testutil"
"github.com/hashicorp/consul/types"
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)
func TestEncodeDecode(t *testing.T) {
arg := &RegisterRequest{
Datacenter: "foo",
Node: "bar",
Address: "baz",
Service: &NodeService{
Service: "test",
Address: "127.0.0.2",
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},
}
buf, err := Encode(RegisterRequestType, arg)
if err != nil {
t.Fatalf("err: %v", err)
}
var out RegisterRequest
err = Decode(buf[1:], &out)
if err != nil {
t.Fatalf("err: %v", err)
}
if !reflect.DeepEqual(arg.Service, out.Service) {
t.Fatalf("bad: %#v %#v", arg.Service, out.Service)
}
if !reflect.DeepEqual(arg, &out) {
t.Fatalf("bad: %#v %#v", arg, out)
}
}
func TestStructs_Implements(t *testing.T) {
var (
_ RPCInfo = &RegisterRequest{}
_ RPCInfo = &DeregisterRequest{}
_ RPCInfo = &DCSpecificRequest{}
_ RPCInfo = &ServiceSpecificRequest{}
_ RPCInfo = &NodeSpecificRequest{}
_ RPCInfo = &ChecksInStateRequest{}
_ RPCInfo = &KVSRequest{}
_ RPCInfo = &KeyRequest{}
_ RPCInfo = &KeyListRequest{}
_ RPCInfo = &SessionRequest{}
_ RPCInfo = &SessionSpecificRequest{}
_ RPCInfo = &EventFireRequest{}
New ACLs (#4791) This PR is almost a complete rewrite of the ACL system within Consul. It brings the features more in line with other HashiCorp products. Obviously there is quite a bit left to do here but most of it is related docs, testing and finishing the last few commands in the CLI. I will update the PR description and check off the todos as I finish them over the next few days/week. Description At a high level this PR is mainly to split ACL tokens from Policies and to split the concepts of Authorization from Identities. A lot of this PR is mostly just to support CRUD operations on ACLTokens and ACLPolicies. These in and of themselves are not particularly interesting. The bigger conceptual changes are in how tokens get resolved, how backwards compatibility is handled and the separation of policy from identity which could lead the way to allowing for alternative identity providers. On the surface and with a new cluster the ACL system will look very similar to that of Nomads. Both have tokens and policies. Both have local tokens. The ACL management APIs for both are very similar. I even ripped off Nomad's ACL bootstrap resetting procedure. There are a few key differences though. Nomad requires token and policy replication where Consul only requires policy replication with token replication being opt-in. In Consul local tokens only work with token replication being enabled though. All policies in Nomad are globally applicable. In Consul all policies are stored and replicated globally but can be scoped to a subset of the datacenters. This allows for more granular access management. Unlike Nomad, Consul has legacy baggage in the form of the original ACL system. The ramifications of this are: A server running the new system must still support other clients using the legacy system. A client running the new system must be able to use the legacy RPCs when the servers in its datacenter are running the legacy system. The primary ACL DC's servers running in legacy mode needs to be a gate that keeps everything else in the entire multi-DC cluster running in legacy mode. So not only does this PR implement the new ACL system but has a legacy mode built in for when the cluster isn't ready for new ACLs. Also detecting that new ACLs can be used is automatic and requires no configuration on the part of administrators. This process is detailed more in the "Transitioning from Legacy to New ACL Mode" section below.
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_ RPCInfo = &ACLPolicyResolveLegacyRequest{}
_ RPCInfo = &ACLPolicyBatchGetRequest{}
_ RPCInfo = &ACLPolicyGetRequest{}
_ RPCInfo = &ACLTokenGetRequest{}
_ RPCInfo = &KeyringRequest{}
_ CompoundResponse = &KeyringResponses{}
)
}
func TestStructs_RegisterRequest_ChangesNode(t *testing.T) {
req := &RegisterRequest{
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ID: types.NodeID("40e4a748-2192-161a-0510-9bf59fe950b5"),
Node: "test",
Address: "127.0.0.1",
Datacenter: "dc1",
TaggedAddresses: make(map[string]string),
NodeMeta: map[string]string{
"role": "server",
},
}
node := &Node{
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ID: types.NodeID("40e4a748-2192-161a-0510-9bf59fe950b5"),
Node: "test",
Address: "127.0.0.1",
Datacenter: "dc1",
TaggedAddresses: make(map[string]string),
Meta: map[string]string{
"role": "server",
},
}
check := func(twiddle, restore func()) {
if req.ChangesNode(node) {
t.Fatalf("should not change")
}
twiddle()
if !req.ChangesNode(node) {
t.Fatalf("should change")
}
req.SkipNodeUpdate = true
if req.ChangesNode(node) {
t.Fatalf("should skip")
}
req.SkipNodeUpdate = false
if !req.ChangesNode(node) {
t.Fatalf("should change")
}
restore()
if req.ChangesNode(node) {
t.Fatalf("should not change")
}
}
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check(func() { req.ID = "nope" }, func() { req.ID = types.NodeID("40e4a748-2192-161a-0510-9bf59fe950b5") })
check(func() { req.Node = "nope" }, func() { req.Node = "test" })
check(func() { req.Address = "127.0.0.2" }, func() { req.Address = "127.0.0.1" })
check(func() { req.Datacenter = "dc2" }, func() { req.Datacenter = "dc1" })
check(func() { req.TaggedAddresses["wan"] = "nope" }, func() { delete(req.TaggedAddresses, "wan") })
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check(func() { req.NodeMeta["invalid"] = "nope" }, func() { delete(req.NodeMeta, "invalid") })
if !req.ChangesNode(nil) {
t.Fatalf("should change")
}
}
// testServiceNode gives a fully filled out ServiceNode instance.
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
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func testServiceNode(t *testing.T) *ServiceNode {
return &ServiceNode{
ID: types.NodeID("40e4a748-2192-161a-0510-9bf59fe950b5"),
Node: "node1",
Address: "127.0.0.1",
Datacenter: "dc1",
TaggedAddresses: map[string]string{
"hello": "world",
},
NodeMeta: map[string]string{
"tag": "value",
},
ServiceKind: ServiceKindTypical,
ServiceID: "service1",
ServiceName: "dogs",
ServiceTags: []string{"prod", "v1"},
ServiceAddress: "127.0.0.2",
ServiceTaggedAddresses: map[string]ServiceAddress{
"lan": {
Address: "127.0.0.2",
Port: 8080,
},
"wan": {
Address: "198.18.0.1",
Port: 80,
},
},
ServicePort: 8080,
ServiceMeta: map[string]string{
"service": "metadata",
},
ServiceEnableTagOverride: true,
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RaftIndex: RaftIndex{
CreateIndex: 1,
ModifyIndex: 2,
},
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
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ServiceProxy: TestConnectProxyConfig(t),
ServiceConnect: ServiceConnect{
Native: true,
},
}
}
func TestRegisterRequest_UnmarshalJSON_WithConnectNilDoesNotPanic(t *testing.T) {
in := `
{
"ID": "",
"Node": "k8s-sync",
"Address": "127.0.0.1",
"TaggedAddresses": null,
"NodeMeta": {
"external-source": "kubernetes"
},
"Datacenter": "",
"Service": {
"Kind": "",
"ID": "test-service-f8fd5f0f4e6c",
"Service": "test-service",
"Tags": [
"k8s"
],
"Meta": {
"external-k8s-ns": "",
"external-source": "kubernetes",
"port-stats": "18080"
},
"Port": 8080,
"Address": "192.0.2.10",
"EnableTagOverride": false,
"CreateIndex": 0,
"ModifyIndex": 0,
"Connect": null
},
"Check": null,
"SkipNodeUpdate": true
}
`
var req RegisterRequest
err := lib.DecodeJSON(strings.NewReader(in), &req)
require.NoError(t, err)
}
func TestNode_IsSame(t *testing.T) {
id := types.NodeID("e62f3b31-9284-4e26-ab14-2a59dea85b55")
node := "mynode1"
address := ""
datacenter := "dc1"
n := &Node{
ID: id,
Node: node,
Datacenter: datacenter,
Address: address,
TaggedAddresses: make(map[string]string),
Meta: make(map[string]string),
RaftIndex: RaftIndex{
CreateIndex: 1,
ModifyIndex: 2,
},
}
other := &Node{
ID: id,
Node: node,
Datacenter: datacenter,
Address: address,
TaggedAddresses: make(map[string]string),
Meta: make(map[string]string),
RaftIndex: RaftIndex{
CreateIndex: 1,
ModifyIndex: 3,
},
}
check := func(twiddle, restore func()) {
t.Helper()
if !n.IsSame(other) || !other.IsSame(n) {
t.Fatalf("should be the same")
}
twiddle()
if n.IsSame(other) || other.IsSame(n) {
t.Fatalf("should be different, was %#v VS %#v", n, other)
}
restore()
if !n.IsSame(other) || !other.IsSame(n) {
t.Fatalf("should be the same")
}
}
check(func() { other.ID = types.NodeID("") }, func() { other.ID = id })
check(func() { other.Node = "other" }, func() { other.Node = node })
check(func() { other.Datacenter = "dcX" }, func() { other.Datacenter = datacenter })
check(func() { other.Address = "127.0.0.1" }, func() { other.Address = address })
check(func() { other.TaggedAddresses = map[string]string{"my": "address"} }, func() { other.TaggedAddresses = map[string]string{} })
check(func() { other.Meta = map[string]string{"my": "meta"} }, func() { other.Meta = map[string]string{} })
if !n.IsSame(other) {
t.Fatalf("should be equal, was %#v VS %#v", n, other)
}
}
func TestStructs_ServiceNode_IsSameService(t *testing.T) {
sn := testServiceNode(t)
node := "node1"
serviceID := sn.ServiceID
serviceAddress := sn.ServiceAddress
serviceEnableTagOverride := sn.ServiceEnableTagOverride
serviceMeta := make(map[string]string)
for k, v := range sn.ServiceMeta {
serviceMeta[k] = v
}
serviceName := sn.ServiceName
servicePort := sn.ServicePort
serviceTags := sn.ServiceTags
serviceWeights := Weights{Passing: 2, Warning: 1}
sn.ServiceWeights = serviceWeights
serviceProxy := sn.ServiceProxy
serviceConnect := sn.ServiceConnect
serviceTaggedAddresses := sn.ServiceTaggedAddresses
n := sn.ToNodeService().ToServiceNode(node)
other := sn.ToNodeService().ToServiceNode(node)
check := func(twiddle, restore func()) {
t.Helper()
if !n.IsSameService(other) || !other.IsSameService(n) {
t.Fatalf("should be the same")
}
twiddle()
if n.IsSameService(other) || other.IsSameService(n) {
t.Fatalf("should be different, was %#v VS %#v", n, other)
}
restore()
if !n.IsSameService(other) || !other.IsSameService(n) {
t.Fatalf("should be the same after restore, was:\n %#v VS\n %#v", n, other)
}
}
check(func() { other.ServiceID = "66fb695a-c782-472f-8d36-4f3edd754b37" }, func() { other.ServiceID = serviceID })
check(func() { other.Node = "other" }, func() { other.Node = node })
check(func() { other.ServiceAddress = "1.2.3.4" }, func() { other.ServiceAddress = serviceAddress })
check(func() { other.ServiceEnableTagOverride = !serviceEnableTagOverride }, func() { other.ServiceEnableTagOverride = serviceEnableTagOverride })
check(func() { other.ServiceKind = "newKind" }, func() { other.ServiceKind = "" })
check(func() { other.ServiceMeta = map[string]string{"my": "meta"} }, func() { other.ServiceMeta = serviceMeta })
check(func() { other.ServiceName = "duck" }, func() { other.ServiceName = serviceName })
check(func() { other.ServicePort = 65534 }, func() { other.ServicePort = servicePort })
check(func() { other.ServiceTags = []string{"new", "tags"} }, func() { other.ServiceTags = serviceTags })
check(func() { other.ServiceWeights = Weights{Passing: 42, Warning: 41} }, func() { other.ServiceWeights = serviceWeights })
check(func() { other.ServiceProxy = ConnectProxyConfig{} }, func() { other.ServiceProxy = serviceProxy })
check(func() { other.ServiceConnect = ServiceConnect{} }, func() { other.ServiceConnect = serviceConnect })
check(func() { other.ServiceTaggedAddresses = nil }, func() { other.ServiceTaggedAddresses = serviceTaggedAddresses })
}
func TestStructs_ServiceNode_PartialClone(t *testing.T) {
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
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sn := testServiceNode(t)
clone := sn.PartialClone()
// Make sure the parts that weren't supposed to be cloned didn't get
// copied over, then zero-value them out so we can do a DeepEqual() on
// the rest of the contents.
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if clone.ID != "" ||
clone.Address != "" ||
clone.Datacenter != "" ||
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len(clone.TaggedAddresses) != 0 ||
len(clone.NodeMeta) != 0 {
t.Fatalf("bad: %v", clone)
}
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sn.ID = ""
sn.Address = ""
sn.Datacenter = ""
sn.TaggedAddresses = nil
sn.NodeMeta = nil
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
2018-09-12 16:07:47 +00:00
require.Equal(t, sn, clone)
sn.ServiceTags = append(sn.ServiceTags, "hello")
if reflect.DeepEqual(sn, clone) {
t.Fatalf("clone wasn't independent of the original")
}
revert := make([]string, len(sn.ServiceTags)-1)
copy(revert, sn.ServiceTags[0:len(sn.ServiceTags)-1])
sn.ServiceTags = revert
if !reflect.DeepEqual(sn, clone) {
t.Fatalf("bad: %v VS %v", clone, sn)
}
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oldPassingWeight := clone.ServiceWeights.Passing
sn.ServiceWeights.Passing = 1000
if reflect.DeepEqual(sn, clone) {
t.Fatalf("clone wasn't independent of the original for Meta")
}
sn.ServiceWeights.Passing = oldPassingWeight
sn.ServiceMeta["new_meta"] = "new_value"
if reflect.DeepEqual(sn, clone) {
t.Fatalf("clone wasn't independent of the original for Meta")
}
// ensure that the tagged addresses were copied and not just a pointer to the map
sn.ServiceTaggedAddresses["foo"] = ServiceAddress{Address: "consul.is.awesome", Port: 443}
require.NotEqual(t, sn, clone)
}
func TestStructs_ServiceNode_Conversions(t *testing.T) {
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
2018-09-12 16:07:47 +00:00
sn := testServiceNode(t)
sn2 := sn.ToNodeService().ToServiceNode("node1")
// These two fields get lost in the conversion, so we have to zero-value
// them out before we do the compare.
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sn.ID = ""
sn.Address = ""
sn.Datacenter = ""
sn.TaggedAddresses = nil
sn.NodeMeta = nil
2018-09-07 14:30:47 +00:00
sn.ServiceWeights = Weights{Passing: 1, Warning: 1}
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
2018-09-12 16:07:47 +00:00
require.Equal(t, sn, sn2)
if !sn.IsSameService(sn2) || !sn2.IsSameService(sn) {
t.Fatalf("bad: %#v, should be the same %#v", sn2, sn)
}
// Those fields are lost in conversion, so IsSameService() should not take them into account
sn.Address = "y"
sn.Datacenter = "z"
sn.TaggedAddresses = map[string]string{"one": "1", "two": "2"}
sn.NodeMeta = map[string]string{"meta": "data"}
if !sn.IsSameService(sn2) || !sn2.IsSameService(sn) {
t.Fatalf("bad: %#v, should be the same %#v", sn2, sn)
}
}
func TestStructs_NodeService_ValidateMeshGateway(t *testing.T) {
type testCase struct {
Modify func(*NodeService)
Err string
}
cases := map[string]testCase{
"valid": {
func(x *NodeService) {},
"",
},
"zero-port": {
func(x *NodeService) { x.Port = 0 },
"Port must be non-zero",
},
"sidecar-service": {
func(x *NodeService) { x.Connect.SidecarService = &ServiceDefinition{} },
"cannot have a sidecar service",
},
"proxy-destination-name": {
func(x *NodeService) { x.Proxy.DestinationServiceName = "foo" },
"Proxy.DestinationServiceName configuration is invalid",
},
"proxy-destination-id": {
func(x *NodeService) { x.Proxy.DestinationServiceID = "foo" },
"Proxy.DestinationServiceID configuration is invalid",
},
"proxy-local-address": {
func(x *NodeService) { x.Proxy.LocalServiceAddress = "127.0.0.1" },
"Proxy.LocalServiceAddress configuration is invalid",
},
"proxy-local-port": {
func(x *NodeService) { x.Proxy.LocalServicePort = 36 },
"Proxy.LocalServicePort configuration is invalid",
},
"proxy-upstreams": {
func(x *NodeService) { x.Proxy.Upstreams = []Upstream{{}} },
"Proxy.Upstreams configuration is invalid",
},
}
for name, tc := range cases {
t.Run(name, func(t *testing.T) {
ns := TestNodeServiceMeshGateway(t)
tc.Modify(ns)
err := ns.Validate()
if tc.Err == "" {
require.NoError(t, err)
} else {
require.Contains(t, strings.ToLower(err.Error()), strings.ToLower(tc.Err))
}
})
}
}
func TestStructs_NodeService_ValidateTerminatingGateway(t *testing.T) {
type testCase struct {
Modify func(*NodeService)
Err string
}
cases := map[string]testCase{
"valid": {
func(x *NodeService) {},
"",
},
"sidecar-service": {
func(x *NodeService) { x.Connect.SidecarService = &ServiceDefinition{} },
"cannot have a sidecar service",
},
"proxy-destination-name": {
func(x *NodeService) { x.Proxy.DestinationServiceName = "foo" },
"Proxy.DestinationServiceName configuration is invalid",
},
"proxy-destination-id": {
func(x *NodeService) { x.Proxy.DestinationServiceID = "foo" },
"Proxy.DestinationServiceID configuration is invalid",
},
"proxy-local-address": {
func(x *NodeService) { x.Proxy.LocalServiceAddress = "127.0.0.1" },
"Proxy.LocalServiceAddress configuration is invalid",
},
"proxy-local-port": {
func(x *NodeService) { x.Proxy.LocalServicePort = 36 },
"Proxy.LocalServicePort configuration is invalid",
},
"proxy-upstreams": {
func(x *NodeService) { x.Proxy.Upstreams = []Upstream{{}} },
"Proxy.Upstreams configuration is invalid",
},
}
for name, tc := range cases {
t.Run(name, func(t *testing.T) {
ns := TestNodeServiceTerminatingGateway(t, "10.0.0.5")
tc.Modify(ns)
err := ns.Validate()
if tc.Err == "" {
require.NoError(t, err)
} else {
require.Error(t, err)
require.Contains(t, strings.ToLower(err.Error()), strings.ToLower(tc.Err))
}
})
}
}
func TestStructs_NodeService_ValidateIngressGateway(t *testing.T) {
type testCase struct {
Modify func(*NodeService)
Err string
}
cases := map[string]testCase{
"valid": {
func(x *NodeService) {},
"",
},
"sidecar-service": {
func(x *NodeService) { x.Connect.SidecarService = &ServiceDefinition{} },
"cannot have a sidecar service",
},
"proxy-destination-name": {
func(x *NodeService) { x.Proxy.DestinationServiceName = "foo" },
"Proxy.DestinationServiceName configuration is invalid",
},
"proxy-destination-id": {
func(x *NodeService) { x.Proxy.DestinationServiceID = "foo" },
"Proxy.DestinationServiceID configuration is invalid",
},
"proxy-local-address": {
func(x *NodeService) { x.Proxy.LocalServiceAddress = "127.0.0.1" },
"Proxy.LocalServiceAddress configuration is invalid",
},
"proxy-local-port": {
func(x *NodeService) { x.Proxy.LocalServicePort = 36 },
"Proxy.LocalServicePort configuration is invalid",
},
"proxy-upstreams": {
func(x *NodeService) { x.Proxy.Upstreams = []Upstream{{}} },
"Proxy.Upstreams configuration is invalid",
},
}
for name, tc := range cases {
t.Run(name, func(t *testing.T) {
ns := TestNodeServiceIngressGateway(t, "10.0.0.5")
tc.Modify(ns)
err := ns.Validate()
if tc.Err == "" {
require.NoError(t, err)
} else {
require.Error(t, err)
require.Contains(t, strings.ToLower(err.Error()), strings.ToLower(tc.Err))
}
})
}
}
func TestStructs_NodeService_ValidateExposeConfig(t *testing.T) {
type testCase struct {
Modify func(*NodeService)
Err string
}
cases := map[string]testCase{
"valid": {
func(x *NodeService) {},
"",
},
"empty path": {
func(x *NodeService) { x.Proxy.Expose.Paths[0].Path = "" },
"empty path exposed",
},
"invalid port negative": {
func(x *NodeService) { x.Proxy.Expose.Paths[0].ListenerPort = -1 },
"invalid listener port",
},
"invalid port too large": {
func(x *NodeService) { x.Proxy.Expose.Paths[0].ListenerPort = 65536 },
"invalid listener port",
},
"duplicate paths": {
func(x *NodeService) {
x.Proxy.Expose.Paths[0].Path = "/metrics"
x.Proxy.Expose.Paths[1].Path = "/metrics"
},
"duplicate paths exposed",
},
"duplicate ports": {
func(x *NodeService) {
x.Proxy.Expose.Paths[0].ListenerPort = 21600
x.Proxy.Expose.Paths[1].ListenerPort = 21600
},
"duplicate listener ports exposed",
},
"protocol not supported": {
func(x *NodeService) { x.Proxy.Expose.Paths[0].Protocol = "foo" },
"protocol 'foo' not supported for path",
},
}
for name, tc := range cases {
t.Run(name, func(t *testing.T) {
ns := TestNodeServiceExpose(t)
tc.Modify(ns)
err := ns.Validate()
if tc.Err == "" {
require.NoError(t, err)
} else {
require.Contains(t, strings.ToLower(err.Error()), strings.ToLower(tc.Err))
}
})
}
}
func TestStructs_NodeService_ValidateConnectProxy(t *testing.T) {
cases := []struct {
Name string
Modify func(*NodeService)
Err string
}{
{
"valid",
func(x *NodeService) {},
"",
},
{
"connect-proxy: no Proxy.DestinationServiceName",
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
2018-09-12 16:07:47 +00:00
func(x *NodeService) { x.Proxy.DestinationServiceName = "" },
"Proxy.DestinationServiceName must be",
},
{
"connect-proxy: whitespace Proxy.DestinationServiceName",
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
2018-09-12 16:07:47 +00:00
func(x *NodeService) { x.Proxy.DestinationServiceName = " " },
"Proxy.DestinationServiceName must be",
},
{
"connect-proxy: valid Proxy.DestinationServiceName",
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
2018-09-12 16:07:47 +00:00
func(x *NodeService) { x.Proxy.DestinationServiceName = "hello" },
"",
},
{
"connect-proxy: no port set",
func(x *NodeService) { x.Port = 0 },
"Port must",
},
{
"connect-proxy: ConnectNative set",
func(x *NodeService) { x.Connect.Native = true },
"cannot also be",
},
{
"connect-proxy: upstream missing type (defaulted)",
func(x *NodeService) {
x.Proxy.Upstreams = Upstreams{{
DestinationName: "foo",
LocalBindPort: 5000,
}}
},
"",
},
{
"connect-proxy: upstream invalid type",
func(x *NodeService) {
x.Proxy.Upstreams = Upstreams{{
DestinationType: "garbage",
DestinationName: "foo",
LocalBindPort: 5000,
}}
},
"unknown upstream destination type",
},
{
"connect-proxy: upstream empty name",
func(x *NodeService) {
x.Proxy.Upstreams = Upstreams{{
DestinationType: UpstreamDestTypeService,
LocalBindPort: 5000,
}}
},
"upstream destination name cannot be empty",
},
{
"connect-proxy: upstream empty bind port",
func(x *NodeService) {
x.Proxy.Upstreams = Upstreams{{
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
LocalBindPort: 0,
}}
},
"upstream local bind port cannot be zero",
},
{
"connect-proxy: Upstreams almost-but-not-quite-duplicated in various ways",
func(x *NodeService) {
x.Proxy.Upstreams = Upstreams{
{ // baseline
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
LocalBindPort: 5000,
},
{ // different bind address
DestinationType: UpstreamDestTypeService,
DestinationName: "bar",
LocalBindAddress: "127.0.0.2",
LocalBindPort: 5000,
},
{ // different datacenter
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
Datacenter: "dc2",
LocalBindPort: 5001,
},
{ // explicit default namespace
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
DestinationNamespace: "default",
LocalBindPort: 5003,
},
{ // different namespace
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
DestinationNamespace: "alternate",
LocalBindPort: 5002,
},
{ // different type
DestinationType: UpstreamDestTypePreparedQuery,
DestinationName: "foo",
LocalBindPort: 5004,
},
}
},
"",
},
{
"connect-proxy: Upstreams duplicated by port",
func(x *NodeService) {
x.Proxy.Upstreams = Upstreams{
{
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
LocalBindPort: 5000,
},
{
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
LocalBindPort: 5000,
},
}
},
"upstreams cannot contain duplicates",
},
{
"connect-proxy: Upstreams duplicated by ip and port",
func(x *NodeService) {
x.Proxy.Upstreams = Upstreams{
{
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
LocalBindAddress: "127.0.0.2",
LocalBindPort: 5000,
},
{
DestinationType: UpstreamDestTypeService,
DestinationName: "bar",
LocalBindAddress: "127.0.0.2",
LocalBindPort: 5000,
},
}
},
"upstreams cannot contain duplicates",
},
{
"connect-proxy: Upstreams duplicated by ip and port with ip defaulted in one",
func(x *NodeService) {
x.Proxy.Upstreams = Upstreams{
{
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
LocalBindPort: 5000,
},
{
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
LocalBindAddress: "127.0.0.1",
LocalBindPort: 5000,
},
}
},
"upstreams cannot contain duplicates",
},
{
"connect-proxy: Upstreams duplicated by name",
func(x *NodeService) {
x.Proxy.Upstreams = Upstreams{
{
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
LocalBindPort: 5000,
},
{
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
LocalBindPort: 5001,
},
}
},
"upstreams cannot contain duplicates",
},
{
"connect-proxy: Upstreams duplicated by name and datacenter",
func(x *NodeService) {
x.Proxy.Upstreams = Upstreams{
{
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
Datacenter: "dc2",
LocalBindPort: 5000,
},
{
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
Datacenter: "dc2",
LocalBindPort: 5001,
},
}
},
"upstreams cannot contain duplicates",
},
{
"connect-proxy: Upstreams duplicated by name and namespace",
func(x *NodeService) {
x.Proxy.Upstreams = Upstreams{
{
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
DestinationNamespace: "alternate",
LocalBindPort: 5000,
},
{
DestinationType: UpstreamDestTypeService,
DestinationName: "foo",
DestinationNamespace: "alternate",
LocalBindPort: 5001,
},
}
},
"upstreams cannot contain duplicates",
},
}
for _, tc := range cases {
t.Run(tc.Name, func(t *testing.T) {
assert := assert.New(t)
ns := TestNodeServiceProxy(t)
tc.Modify(ns)
err := ns.Validate()
assert.Equal(err != nil, tc.Err != "", err)
if err == nil {
return
}
assert.Contains(strings.ToLower(err.Error()), strings.ToLower(tc.Err))
})
}
}
func TestStructs_NodeService_ValidateSidecarService(t *testing.T) {
cases := []struct {
Name string
Modify func(*NodeService)
Err string
}{
{
"valid",
func(x *NodeService) {},
"",
},
{
"ID can't be set",
func(x *NodeService) { x.Connect.SidecarService.ID = "foo" },
"SidecarService cannot specify an ID",
},
{
"Nested sidecar can't be set",
func(x *NodeService) {
x.Connect.SidecarService.Connect = &ServiceConnect{
SidecarService: &ServiceDefinition{},
}
},
"SidecarService cannot have a nested SidecarService",
},
}
for _, tc := range cases {
t.Run(tc.Name, func(t *testing.T) {
assert := assert.New(t)
ns := TestNodeServiceSidecar(t)
tc.Modify(ns)
err := ns.Validate()
assert.Equal(err != nil, tc.Err != "", err)
if err == nil {
return
}
assert.Contains(strings.ToLower(err.Error()), strings.ToLower(tc.Err))
})
}
}
func TestStructs_NodeService_IsSame(t *testing.T) {
ns := &NodeService{
ID: "node1",
Service: "theservice",
Tags: []string{"foo", "bar"},
Address: "127.0.0.1",
TaggedAddresses: map[string]ServiceAddress{
"lan": {
Address: "127.0.0.1",
Port: 3456,
},
"wan": {
Address: "198.18.0.1",
Port: 1234,
},
},
Meta: map[string]string{
"meta1": "value1",
"meta2": "value2",
},
Port: 1234,
EnableTagOverride: true,
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
2018-09-12 16:07:47 +00:00
Proxy: ConnectProxyConfig{
DestinationServiceName: "db",
Config: map[string]interface{}{
"foo": "bar",
},
},
Weights: &Weights{Passing: 1, Warning: 1},
}
if !ns.IsSame(ns) {
t.Fatalf("should be equal to itself")
}
other := &NodeService{
ID: "node1",
Service: "theservice",
Tags: []string{"foo", "bar"},
Address: "127.0.0.1",
Port: 1234,
EnableTagOverride: true,
TaggedAddresses: map[string]ServiceAddress{
"wan": {
Address: "198.18.0.1",
Port: 1234,
},
"lan": {
Address: "127.0.0.1",
Port: 3456,
},
},
Meta: map[string]string{
// We don't care about order
"meta2": "value2",
"meta1": "value1",
},
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
2018-09-12 16:07:47 +00:00
Proxy: ConnectProxyConfig{
DestinationServiceName: "db",
Config: map[string]interface{}{
"foo": "bar",
},
},
Weights: &Weights{Passing: 1, Warning: 1},
RaftIndex: RaftIndex{
CreateIndex: 1,
ModifyIndex: 2,
},
}
if !ns.IsSame(other) || !other.IsSame(ns) {
t.Fatalf("should not care about Raft fields")
}
check := func(twiddle, restore func()) {
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
2018-09-12 16:07:47 +00:00
t.Helper()
if !ns.IsSame(other) || !other.IsSame(ns) {
t.Fatalf("should be the same")
}
twiddle()
if ns.IsSame(other) || other.IsSame(ns) {
t.Fatalf("should not be the same")
}
restore()
if !ns.IsSame(other) || !other.IsSame(ns) {
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
2018-09-12 16:07:47 +00:00
t.Fatalf("should be the same again")
}
}
check(func() { other.ID = "XXX" }, func() { other.ID = "node1" })
check(func() { other.Service = "XXX" }, func() { other.Service = "theservice" })
check(func() { other.Tags = nil }, func() { other.Tags = []string{"foo", "bar"} })
check(func() { other.Tags = []string{"foo"} }, func() { other.Tags = []string{"foo", "bar"} })
check(func() { other.Address = "XXX" }, func() { other.Address = "127.0.0.1" })
check(func() { other.Port = 9999 }, func() { other.Port = 1234 })
check(func() { other.Meta["meta2"] = "wrongValue" }, func() { other.Meta["meta2"] = "value2" })
check(func() { other.EnableTagOverride = false }, func() { other.EnableTagOverride = true })
check(func() { other.Kind = ServiceKindConnectProxy }, func() { other.Kind = "" })
Add Proxy Upstreams to Service Definition (#4639) * Refactor Service Definition ProxyDestination. This includes: - Refactoring all internal structs used - Updated tests for both deprecated and new input for: - Agent Services endpoint response - Agent Service endpoint response - Agent Register endpoint - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Register - Unmanaged deprecated field - Unmanaged new fields - Managed deprecated upstreams - Managed new - Catalog Services endpoint response - Catalog Node endpoint response - Catalog Service endpoint response - Updated API tests for all of the above too (both deprecated and new forms of register) TODO: - config package changes for on-disk service definitions - proxy config endpoint - built-in proxy support for new fields * Agent proxy config endpoint updated with upstreams * Config file changes for upstreams. * Add upstream opaque config and update all tests to ensure it works everywhere. * Built in proxy working with new Upstreams config * Command fixes and deprecations * Fix key translation, upstream type defaults and a spate of other subtele bugs found with ned to end test scripts... TODO: tests still failing on one case that needs a fix. I think it's key translation for upstreams nested in Managed proxy struct. * Fix translated keys in API registration. ≈ * Fixes from docs - omit some empty undocumented fields in API - Bring back ServiceProxyDestination in Catalog responses to not break backwards compat - this was removed assuming it was only used internally. * Documentation updates for Upstreams in service definition * Fixes for tests broken by many refactors. * Enable travis on f-connect branch in this branch too. * Add consistent Deprecation comments to ProxyDestination uses * Update version number on deprecation notices, and correct upstream datacenter field with explanation in docs
2018-09-12 16:07:47 +00:00
check(func() { other.Proxy.DestinationServiceName = "" }, func() { other.Proxy.DestinationServiceName = "db" })
check(func() { other.Proxy.DestinationServiceID = "XXX" }, func() { other.Proxy.DestinationServiceID = "" })
check(func() { other.Proxy.LocalServiceAddress = "XXX" }, func() { other.Proxy.LocalServiceAddress = "" })
check(func() { other.Proxy.LocalServicePort = 9999 }, func() { other.Proxy.LocalServicePort = 0 })
check(func() { other.Proxy.Config["baz"] = "XXX" }, func() { delete(other.Proxy.Config, "baz") })
check(func() { other.Connect.Native = true }, func() { other.Connect.Native = false })
otherServiceNode := other.ToServiceNode("node1")
copyNodeService := otherServiceNode.ToNodeService()
if !copyNodeService.IsSame(other) {
t.Fatalf("copy should be the same, but was\n %#v\nVS\n %#v", copyNodeService, other)
}
otherServiceNodeCopy2 := copyNodeService.ToServiceNode("node1")
if !otherServiceNode.IsSameService(otherServiceNodeCopy2) {
t.Fatalf("copy should be the same, but was\n %#v\nVS\n %#v", otherServiceNode, otherServiceNodeCopy2)
}
check(func() { other.TaggedAddresses["lan"] = ServiceAddress{Address: "127.0.0.1", Port: 9999} }, func() { other.TaggedAddresses["lan"] = ServiceAddress{Address: "127.0.0.1", Port: 3456} })
}
func TestStructs_HealthCheck_IsSame(t *testing.T) {
hc := &HealthCheck{
Node: "node1",
CheckID: "check1",
Name: "thecheck",
Status: api.HealthPassing,
Notes: "it's all good",
Output: "lgtm",
ServiceID: "service1",
ServiceName: "theservice",
ServiceTags: []string{"foo"},
}
if !hc.IsSame(hc) {
t.Fatalf("should be equal to itself")
}
other := &HealthCheck{
Node: "node1",
CheckID: "check1",
Name: "thecheck",
Status: api.HealthPassing,
Notes: "it's all good",
Output: "lgtm",
ServiceID: "service1",
ServiceName: "theservice",
ServiceTags: []string{"foo"},
RaftIndex: RaftIndex{
CreateIndex: 1,
ModifyIndex: 2,
},
}
if !hc.IsSame(other) || !other.IsSame(hc) {
t.Fatalf("should not care about Raft fields")
}
checkCheckIDField := func(field *types.CheckID) {
if !hc.IsSame(other) || !other.IsSame(hc) {
t.Fatalf("should be the same")
}
old := *field
*field = "XXX"
if hc.IsSame(other) || other.IsSame(hc) {
t.Fatalf("should not be the same")
}
*field = old
if !hc.IsSame(other) || !other.IsSame(hc) {
t.Fatalf("should be the same")
}
}
checkStringField := func(field *string) {
if !hc.IsSame(other) || !other.IsSame(hc) {
t.Fatalf("should be the same")
}
old := *field
*field = "XXX"
if hc.IsSame(other) || other.IsSame(hc) {
t.Fatalf("should not be the same")
}
*field = old
if !hc.IsSame(other) || !other.IsSame(hc) {
t.Fatalf("should be the same")
}
}
checkStringField(&other.Node)
checkCheckIDField(&other.CheckID)
checkStringField(&other.Name)
checkStringField(&other.Status)
checkStringField(&other.Notes)
checkStringField(&other.Output)
checkStringField(&other.ServiceID)
checkStringField(&other.ServiceName)
}
2019-01-25 10:00:56 +00:00
func TestStructs_HealthCheck_Marshalling(t *testing.T) {
2019-01-24 15:45:54 +00:00
d := &HealthCheckDefinition{}
buf, err := d.MarshalJSON()
require.NoError(t, err)
require.NotContains(t, string(buf), `"Interval":""`)
require.NotContains(t, string(buf), `"Timeout":""`)
require.NotContains(t, string(buf), `"DeregisterCriticalServiceAfter":""`)
}
func TestStructs_HealthCheck_Clone(t *testing.T) {
hc := &HealthCheck{
Node: "node1",
CheckID: "check1",
Name: "thecheck",
Status: api.HealthPassing,
Notes: "it's all good",
Output: "lgtm",
ServiceID: "service1",
ServiceName: "theservice",
}
clone := hc.Clone()
if !hc.IsSame(clone) {
t.Fatalf("should be equal to its clone")
}
clone.Output = "different"
if hc.IsSame(clone) {
t.Fatalf("should not longer be equal to its clone")
}
}
func TestCheckServiceNodes_Shuffle(t *testing.T) {
// Make a huge list of nodes.
var nodes CheckServiceNodes
for i := 0; i < 100; i++ {
nodes = append(nodes, CheckServiceNode{
Node: &Node{
Node: fmt.Sprintf("node%d", i),
Address: fmt.Sprintf("127.0.0.%d", i+1),
},
})
}
// Keep track of how many unique shuffles we get.
uniques := make(map[string]struct{})
for i := 0; i < 100; i++ {
nodes.Shuffle()
var names []string
for _, node := range nodes {
names = append(names, node.Node.Node)
}
key := strings.Join(names, "|")
uniques[key] = struct{}{}
}
// We have to allow for the fact that there won't always be a unique
// shuffle each pass, so we just look for smell here without the test
// being flaky.
if len(uniques) < 50 {
t.Fatalf("unique shuffle ratio too low: %d/100", len(uniques))
}
}
func TestCheckServiceNodes_Filter(t *testing.T) {
nodes := CheckServiceNodes{
CheckServiceNode{
Node: &Node{
Node: "node1",
Address: "127.0.0.1",
},
Checks: HealthChecks{
&HealthCheck{
Status: api.HealthWarning,
},
},
},
CheckServiceNode{
Node: &Node{
Node: "node2",
Address: "127.0.0.2",
},
Checks: HealthChecks{
&HealthCheck{
Status: api.HealthPassing,
},
},
},
CheckServiceNode{
Node: &Node{
Node: "node3",
Address: "127.0.0.3",
},
Checks: HealthChecks{
&HealthCheck{
Status: api.HealthCritical,
},
},
},
CheckServiceNode{
Node: &Node{
Node: "node4",
Address: "127.0.0.4",
},
Checks: HealthChecks{
// This check has a different ID to the others to ensure it is not
// ignored by accident
&HealthCheck{
CheckID: "failing2",
Status: api.HealthCritical,
},
},
},
}
// Test the case where warnings are allowed.
{
twiddle := make(CheckServiceNodes, len(nodes))
if n := copy(twiddle, nodes); n != len(nodes) {
t.Fatalf("bad: %d", n)
}
filtered := twiddle.Filter(false)
expected := CheckServiceNodes{
nodes[0],
nodes[1],
}
if !reflect.DeepEqual(filtered, expected) {
t.Fatalf("bad: %v", filtered)
}
}
// Limit to only passing checks.
{
twiddle := make(CheckServiceNodes, len(nodes))
if n := copy(twiddle, nodes); n != len(nodes) {
t.Fatalf("bad: %d", n)
}
filtered := twiddle.Filter(true)
expected := CheckServiceNodes{
nodes[1],
}
if !reflect.DeepEqual(filtered, expected) {
t.Fatalf("bad: %v", filtered)
}
}
// Allow failing checks to be ignored (note that the test checks have empty
// CheckID which is valid).
{
twiddle := make(CheckServiceNodes, len(nodes))
if n := copy(twiddle, nodes); n != len(nodes) {
t.Fatalf("bad: %d", n)
}
filtered := twiddle.FilterIgnore(true, []types.CheckID{""})
expected := CheckServiceNodes{
nodes[0],
nodes[1],
nodes[2], // Node 3's critical check should be ignored.
// Node 4 should still be failing since it's got a critical check with a
// non-ignored ID.
}
if !reflect.DeepEqual(filtered, expected) {
t.Fatalf("bad: %v", filtered)
}
}
}
func TestCheckServiceNode_CanRead(t *testing.T) {
type testCase struct {
name string
csn CheckServiceNode
authz acl.Authorizer
expected acl.EnforcementDecision
}
fn := func(t *testing.T, tc testCase) {
actual := tc.csn.CanRead(tc.authz)
require.Equal(t, tc.expected, actual)
}
var testCases = []testCase{
{
name: "empty",
expected: acl.Deny,
},
{
name: "node read not authorized",
csn: CheckServiceNode{
Node: &Node{Node: "name"},
Service: &NodeService{Service: "service-name"},
},
authz: aclAuthorizerCheckServiceNode{allowService: true},
expected: acl.Deny,
},
{
name: "service read not authorized",
csn: CheckServiceNode{
Node: &Node{Node: "name"},
Service: &NodeService{Service: "service-name"},
},
authz: aclAuthorizerCheckServiceNode{allowNode: true},
expected: acl.Deny,
},
{
name: "read authorized",
csn: CheckServiceNode{
Node: &Node{Node: "name"},
Service: &NodeService{Service: "service-name"},
},
authz: acl.AllowAll(),
expected: acl.Allow,
},
}
for _, tc := range testCases {
t.Run(tc.name, func(t *testing.T) {
fn(t, tc)
})
}
}
type aclAuthorizerCheckServiceNode struct {
acl.Authorizer
allowNode bool
allowService bool
}
func (a aclAuthorizerCheckServiceNode) ServiceRead(string, *acl.AuthorizerContext) acl.EnforcementDecision {
if a.allowService {
return acl.Allow
}
return acl.Deny
}
func (a aclAuthorizerCheckServiceNode) NodeRead(string, *acl.AuthorizerContext) acl.EnforcementDecision {
if a.allowNode {
return acl.Allow
}
return acl.Deny
}
func TestStructs_DirEntry_Clone(t *testing.T) {
e := &DirEntry{
LockIndex: 5,
2015-10-14 20:46:01 +00:00
Key: "hello",
Flags: 23,
Value: []byte("this is a test"),
Session: "session1",
RaftIndex: RaftIndex{
CreateIndex: 1,
ModifyIndex: 2,
},
}
clone := e.Clone()
if !reflect.DeepEqual(e, clone) {
t.Fatalf("bad: %v", clone)
}
e.Value = []byte("a new value")
if reflect.DeepEqual(e, clone) {
t.Fatalf("clone wasn't independent of the original")
}
}
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
func TestStructs_ValidateServiceAndNodeMetadata(t *testing.T) {
tooMuchMeta := make(map[string]string)
for i := 0; i < metaMaxKeyPairs+1; i++ {
tooMuchMeta[fmt.Sprint(i)] = "value"
}
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
type testcase struct {
Meta map[string]string
AllowConsulPrefix bool
NodeError string
ServiceError string
GatewayError string
}
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
cases := map[string]testcase{
"should succeed": {
map[string]string{
"key1": "value1",
"key2": "value2",
},
false,
"",
"",
"",
},
"invalid key": {
map[string]string{
"": "value1",
},
false,
"Couldn't load metadata pair",
"Couldn't load metadata pair",
"Couldn't load metadata pair",
},
"too many keys": {
tooMuchMeta,
false,
"cannot contain more than",
"cannot contain more than",
"cannot contain more than",
},
"reserved key prefix denied": {
map[string]string{
metaKeyReservedPrefix + "key": "value1",
},
false,
"reserved for internal use",
"reserved for internal use",
"reserved for internal use",
},
"reserved key prefix allowed": {
map[string]string{
metaKeyReservedPrefix + "key": "value1",
},
true,
"",
"",
"",
},
"reserved key prefix allowed via an allowlist just for gateway - " + MetaWANFederationKey: {
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
map[string]string{
MetaWANFederationKey: "value1",
},
false,
"reserved for internal use",
"reserved for internal use",
"",
},
}
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
for name, tc := range cases {
tc := tc
t.Run(name, func(t *testing.T) {
t.Run("ValidateNodeMetadata", func(t *testing.T) {
err := ValidateNodeMetadata(tc.Meta, tc.AllowConsulPrefix)
if tc.NodeError == "" {
require.NoError(t, err)
} else {
testutil.RequireErrorContains(t, err, tc.NodeError)
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
}
})
t.Run("ValidateServiceMetadata - typical", func(t *testing.T) {
err := ValidateServiceMetadata(ServiceKindTypical, tc.Meta, tc.AllowConsulPrefix)
if tc.ServiceError == "" {
require.NoError(t, err)
} else {
testutil.RequireErrorContains(t, err, tc.ServiceError)
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
}
})
t.Run("ValidateServiceMetadata - mesh-gateway", func(t *testing.T) {
err := ValidateServiceMetadata(ServiceKindMeshGateway, tc.Meta, tc.AllowConsulPrefix)
if tc.GatewayError == "" {
require.NoError(t, err)
} else {
testutil.RequireErrorContains(t, err, tc.GatewayError)
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
}
})
})
}
}
func TestStructs_validateMetaPair(t *testing.T) {
longKey := strings.Repeat("a", metaKeyMaxLength+1)
longValue := strings.Repeat("b", metaValueMaxLength+1)
pairs := []struct {
Key string
Value string
Error string
AllowConsulPrefix bool
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
AllowConsulKeys map[string]struct{}
}{
// valid pair
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
{"key", "value", "", false, nil},
// invalid, blank key
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
{"", "value", "cannot be blank", false, nil},
// allowed special chars in key name
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
{"k_e-y", "value", "", false, nil},
// disallowed special chars in key name
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
{"(%key&)", "value", "invalid characters", false, nil},
// key too long
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
{longKey, "value", "Key is too long", false, nil},
// reserved prefix
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
{metaKeyReservedPrefix + "key", "value", "reserved for internal use", false, nil},
// reserved prefix, allowed
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
{metaKeyReservedPrefix + "key", "value", "", true, nil},
// reserved prefix, not allowed via an allowlist
{metaKeyReservedPrefix + "bad", "value", "reserved for internal use", false, map[string]struct{}{metaKeyReservedPrefix + "good": {}}},
// reserved prefix, allowed via an allowlist
{metaKeyReservedPrefix + "good", "value", "", true, map[string]struct{}{metaKeyReservedPrefix + "good": {}}},
// value too long
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
{"key", longValue, "Value is too long", false, nil},
}
for _, pair := range pairs {
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
err := validateMetaPair(pair.Key, pair.Value, pair.AllowConsulPrefix, pair.AllowConsulKeys)
if pair.Error == "" && err != nil {
t.Fatalf("should have succeeded: %v, %v", pair, err)
} else if pair.Error != "" && !strings.Contains(err.Error(), pair.Error) {
t.Fatalf("should have failed: %v, %v", pair, err)
}
}
}
func TestDCSpecificRequestCacheInfoKey(t *testing.T) {
assertCacheInfoKeyIsComplete(t, &DCSpecificRequest{}, nil)
}
func TestNodeSpecificRequestCacheInfoKey(t *testing.T) {
assertCacheInfoKeyIsComplete(t, &NodeSpecificRequest{}, nil)
}
func TestServiceSpecificRequestCacheInfoKey(t *testing.T) {
ignoredFields := map[string]bool{
// TODO: should this filed be included?
"ServiceKind": true,
}
assertCacheInfoKeyIsComplete(t, &ServiceSpecificRequest{}, ignoredFields)
}
func TestServiceDumpRequestCacheInfoKey(t *testing.T) {
ignoredFields := map[string]bool{
// ServiceKind is only included when UseServiceKind=true
"ServiceKind": true,
}
assertCacheInfoKeyIsComplete(t, &ServiceDumpRequest{}, ignoredFields)
}
// cacheInfoIgnoredFields are fields that can be ignored in all cache.Request types
// because the cache itself includes these values in the cache key, or because
// they are options used to specify the cache operation, and are not part of the
// cache entry value.
var cacheInfoIgnoredFields = map[string]bool{
// Datacenter is part of the cache key added by the cache itself.
"Datacenter": true,
// QuerySource is always the same for every request a single agent, so it
// is excluded from the key.
"Source": true,
// EnterpriseMeta is an empty struct, so can not be included.
enterpriseMetaField: true,
}
func assertCacheInfoKeyIsComplete(t *testing.T, request cache.Request, ignoredFields map[string]bool) {
fuzzer := fuzz.NewWithSeed(time.Now().UnixNano())
fuzzer.Funcs(randQueryOptions)
fuzzer.Fuzz(request)
requestValue := reflect.ValueOf(request).Elem()
for i := 0; i < requestValue.NumField(); i++ {
originalKey := request.CacheInfo().Key
field := requestValue.Field(i)
fieldName := requestValue.Type().Field(i).Name
originalValue := field.Interface()
if cacheInfoIgnoredFields[fieldName] || ignoredFields[fieldName] {
continue
}
for i := 0; reflect.DeepEqual(originalValue, field.Interface()) && i < 20; i++ {
fuzzer.Fuzz(field.Addr().Interface())
}
key := request.CacheInfo().Key
if originalKey == key {
t.Fatalf("expected field %v to be represented in the CacheInfo.Key, %v change to %v",
fieldName,
originalValue,
field.Interface())
}
}
}
func randQueryOptions(o *QueryOptions, c fuzz.Continue) {
c.Fuzz(&o.Filter)
}
func TestSpecificServiceRequest_CacheInfo(t *testing.T) {
tests := []struct {
name string
req ServiceSpecificRequest
mutate func(req *ServiceSpecificRequest)
want *cache.RequestInfo
wantSame bool
}{
{
name: "basic params",
req: ServiceSpecificRequest{
QueryOptions: QueryOptions{Token: "foo"},
Datacenter: "dc1",
},
want: &cache.RequestInfo{
Token: "foo",
Datacenter: "dc1",
},
wantSame: true,
},
{
name: "name should be considered",
req: ServiceSpecificRequest{
ServiceName: "web",
},
mutate: func(req *ServiceSpecificRequest) {
req.ServiceName = "db"
},
wantSame: false,
},
{
name: "node meta should be considered",
req: ServiceSpecificRequest{
NodeMetaFilters: map[string]string{
"foo": "bar",
},
},
mutate: func(req *ServiceSpecificRequest) {
req.NodeMetaFilters = map[string]string{
"foo": "qux",
}
},
wantSame: false,
},
{
name: "address should be considered",
req: ServiceSpecificRequest{
ServiceAddress: "1.2.3.4",
},
mutate: func(req *ServiceSpecificRequest) {
req.ServiceAddress = "4.3.2.1"
},
wantSame: false,
},
{
name: "tag filter should be considered",
req: ServiceSpecificRequest{
TagFilter: true,
},
mutate: func(req *ServiceSpecificRequest) {
req.TagFilter = false
},
wantSame: false,
},
{
name: "connect should be considered",
req: ServiceSpecificRequest{
Connect: true,
},
mutate: func(req *ServiceSpecificRequest) {
req.Connect = false
},
wantSame: false,
},
{
name: "tags should be different",
req: ServiceSpecificRequest{
ServiceName: "web",
ServiceTags: []string{"foo"},
},
mutate: func(req *ServiceSpecificRequest) {
req.ServiceTags = []string{"foo", "bar"}
},
wantSame: false,
},
{
name: "tags should not depend on order",
req: ServiceSpecificRequest{
ServiceName: "web",
ServiceTags: []string{"bar", "foo"},
},
mutate: func(req *ServiceSpecificRequest) {
req.ServiceTags = []string{"foo", "bar"}
},
wantSame: true,
},
// DEPRECATED (singular-service-tag) - remove this when upgrade RPC compat
// with 1.2.x is not required.
{
name: "legacy requests with singular tag should be different",
req: ServiceSpecificRequest{
ServiceName: "web",
ServiceTag: "foo",
},
mutate: func(req *ServiceSpecificRequest) {
req.ServiceTag = "bar"
},
wantSame: false,
},
{
name: "with integress=true",
req: ServiceSpecificRequest{
Datacenter: "dc1",
ServiceName: "my-service",
},
mutate: func(req *ServiceSpecificRequest) {
req.Ingress = true
},
},
}
for _, tc := range tests {
t.Run(tc.name, func(t *testing.T) {
info := tc.req.CacheInfo()
if tc.mutate != nil {
tc.mutate(&tc.req)
}
afterInfo := tc.req.CacheInfo()
// Check key matches or not
if tc.wantSame {
require.Equal(t, info, afterInfo)
} else {
require.NotEqual(t, info, afterInfo)
}
if tc.want != nil {
// Reset key since we don't care about the actual hash value as long as
// it does/doesn't change appropriately (asserted with wantSame above).
info.Key = ""
require.Equal(t, *tc.want, info)
}
})
}
}
func TestNodeService_JSON_OmitTaggedAdddresses(t *testing.T) {
cases := []struct {
name string
ns NodeService
}{
{
"nil",
NodeService{
TaggedAddresses: nil,
},
},
{
"empty",
NodeService{
TaggedAddresses: make(map[string]ServiceAddress),
},
},
}
for _, tc := range cases {
name := tc.name
ns := tc.ns
t.Run(name, func(t *testing.T) {
data, err := json.Marshal(ns)
require.NoError(t, err)
var raw map[string]interface{}
err = json.Unmarshal(data, &raw)
require.NoError(t, err)
require.NotContains(t, raw, "TaggedAddresses")
require.NotContains(t, raw, "tagged_addresses")
})
}
}
func TestServiceNode_JSON_OmitServiceTaggedAdddresses(t *testing.T) {
cases := []struct {
name string
sn ServiceNode
}{
{
"nil",
ServiceNode{
ServiceTaggedAddresses: nil,
},
},
{
"empty",
ServiceNode{
ServiceTaggedAddresses: make(map[string]ServiceAddress),
},
},
}
for _, tc := range cases {
name := tc.name
sn := tc.sn
t.Run(name, func(t *testing.T) {
data, err := json.Marshal(sn)
require.NoError(t, err)
var raw map[string]interface{}
err = json.Unmarshal(data, &raw)
require.NoError(t, err)
require.NotContains(t, raw, "ServiceTaggedAddresses")
require.NotContains(t, raw, "service_tagged_addresses")
})
}
}
func TestNode_BestAddress(t *testing.T) {
type testCase struct {
input Node
lanAddr string
wanAddr string
}
nodeAddr := "10.1.2.3"
nodeWANAddr := "198.18.19.20"
cases := map[string]testCase{
"address": {
input: Node{
Address: nodeAddr,
},
lanAddr: nodeAddr,
wanAddr: nodeAddr,
},
"wan-address": {
input: Node{
Address: nodeAddr,
TaggedAddresses: map[string]string{
"wan": nodeWANAddr,
},
},
lanAddr: nodeAddr,
wanAddr: nodeWANAddr,
},
}
for name, tc := range cases {
name := name
tc := tc
t.Run(name, func(t *testing.T) {
require.Equal(t, tc.lanAddr, tc.input.BestAddress(false))
require.Equal(t, tc.wanAddr, tc.input.BestAddress(true))
})
}
}
func TestNodeService_BestAddress(t *testing.T) {
type testCase struct {
input NodeService
lanAddr string
lanPort int
wanAddr string
wanPort int
}
serviceAddr := "10.2.3.4"
servicePort := 1234
serviceWANAddr := "198.19.20.21"
serviceWANPort := 987
cases := map[string]testCase{
"no-address": {
input: NodeService{
Port: servicePort,
},
lanAddr: "",
lanPort: servicePort,
wanAddr: "",
wanPort: servicePort,
},
"service-address": {
input: NodeService{
Address: serviceAddr,
Port: servicePort,
},
lanAddr: serviceAddr,
lanPort: servicePort,
wanAddr: serviceAddr,
wanPort: servicePort,
},
"service-wan-address": {
input: NodeService{
Address: serviceAddr,
Port: servicePort,
TaggedAddresses: map[string]ServiceAddress{
"wan": {
Address: serviceWANAddr,
Port: serviceWANPort,
},
},
},
lanAddr: serviceAddr,
lanPort: servicePort,
wanAddr: serviceWANAddr,
wanPort: serviceWANPort,
},
"service-wan-address-default-port": {
input: NodeService{
Address: serviceAddr,
Port: servicePort,
TaggedAddresses: map[string]ServiceAddress{
"wan": {
Address: serviceWANAddr,
Port: 0,
},
},
},
lanAddr: serviceAddr,
lanPort: servicePort,
wanAddr: serviceWANAddr,
wanPort: servicePort,
},
"service-wan-address-node-lan": {
input: NodeService{
Port: servicePort,
TaggedAddresses: map[string]ServiceAddress{
"wan": {
Address: serviceWANAddr,
Port: serviceWANPort,
},
},
},
lanAddr: "",
lanPort: servicePort,
wanAddr: serviceWANAddr,
wanPort: serviceWANPort,
},
}
for name, tc := range cases {
name := name
tc := tc
t.Run(name, func(t *testing.T) {
addr, port := tc.input.BestAddress(false)
require.Equal(t, tc.lanAddr, addr)
require.Equal(t, tc.lanPort, port)
addr, port = tc.input.BestAddress(true)
require.Equal(t, tc.wanAddr, addr)
require.Equal(t, tc.wanPort, port)
})
}
}
func TestCheckServiceNode_BestAddress(t *testing.T) {
type testCase struct {
input CheckServiceNode
lanAddr string
lanPort int
wanAddr string
wanPort int
}
nodeAddr := "10.1.2.3"
nodeWANAddr := "198.18.19.20"
serviceAddr := "10.2.3.4"
servicePort := 1234
serviceWANAddr := "198.19.20.21"
serviceWANPort := 987
cases := map[string]testCase{
"node-address": {
input: CheckServiceNode{
Node: &Node{
Address: nodeAddr,
},
Service: &NodeService{
Port: servicePort,
},
},
lanAddr: nodeAddr,
lanPort: servicePort,
wanAddr: nodeAddr,
wanPort: servicePort,
},
"node-wan-address": {
input: CheckServiceNode{
Node: &Node{
Address: nodeAddr,
TaggedAddresses: map[string]string{
"wan": nodeWANAddr,
},
},
Service: &NodeService{
Port: servicePort,
},
},
lanAddr: nodeAddr,
lanPort: servicePort,
wanAddr: nodeWANAddr,
wanPort: servicePort,
},
"service-address": {
input: CheckServiceNode{
Node: &Node{
Address: nodeAddr,
// this will be ignored
TaggedAddresses: map[string]string{
"wan": nodeWANAddr,
},
},
Service: &NodeService{
Address: serviceAddr,
Port: servicePort,
},
},
lanAddr: serviceAddr,
lanPort: servicePort,
wanAddr: serviceAddr,
wanPort: servicePort,
},
"service-wan-address": {
input: CheckServiceNode{
Node: &Node{
Address: nodeAddr,
// this will be ignored
TaggedAddresses: map[string]string{
"wan": nodeWANAddr,
},
},
Service: &NodeService{
Address: serviceAddr,
Port: servicePort,
TaggedAddresses: map[string]ServiceAddress{
"wan": {
Address: serviceWANAddr,
Port: serviceWANPort,
},
},
},
},
lanAddr: serviceAddr,
lanPort: servicePort,
wanAddr: serviceWANAddr,
wanPort: serviceWANPort,
},
"service-wan-address-default-port": {
input: CheckServiceNode{
Node: &Node{
Address: nodeAddr,
// this will be ignored
TaggedAddresses: map[string]string{
"wan": nodeWANAddr,
},
},
Service: &NodeService{
Address: serviceAddr,
Port: servicePort,
TaggedAddresses: map[string]ServiceAddress{
"wan": {
Address: serviceWANAddr,
Port: 0,
},
},
},
},
lanAddr: serviceAddr,
lanPort: servicePort,
wanAddr: serviceWANAddr,
wanPort: servicePort,
},
"service-wan-address-node-lan": {
input: CheckServiceNode{
Node: &Node{
Address: nodeAddr,
// this will be ignored
TaggedAddresses: map[string]string{
"wan": nodeWANAddr,
},
},
Service: &NodeService{
Port: servicePort,
TaggedAddresses: map[string]ServiceAddress{
"wan": {
Address: serviceWANAddr,
Port: serviceWANPort,
},
},
},
},
lanAddr: nodeAddr,
lanPort: servicePort,
wanAddr: serviceWANAddr,
wanPort: serviceWANPort,
},
}
for name, tc := range cases {
name := name
tc := tc
t.Run(name, func(t *testing.T) {
addr, port := tc.input.BestAddress(false)
require.Equal(t, tc.lanAddr, addr)
require.Equal(t, tc.lanPort, port)
addr, port = tc.input.BestAddress(true)
require.Equal(t, tc.wanAddr, addr)
require.Equal(t, tc.wanPort, port)
})
}
}
func TestNodeService_JSON_Marshal(t *testing.T) {
ns := &NodeService{
Service: "foo",
Proxy: ConnectProxyConfig{
Config: map[string]interface{}{
"bind_addresses": map[string]interface{}{
"default": map[string]interface{}{
"Address": "0.0.0.0",
"Port": "443",
},
},
},
},
}
buf, err := json.Marshal(ns)
require.NoError(t, err)
var out NodeService
require.NoError(t, json.Unmarshal(buf, &out))
require.Equal(t, *ns, out)
}
func TestServiceNode_JSON_Marshal(t *testing.T) {
sn := &ServiceNode{
Node: "foo",
ServiceName: "foo",
ServiceProxy: ConnectProxyConfig{
Config: map[string]interface{}{
"bind_addresses": map[string]interface{}{
"default": map[string]interface{}{
"Address": "0.0.0.0",
"Port": "443",
},
},
},
},
}
buf, err := json.Marshal(sn)
require.NoError(t, err)
var out ServiceNode
require.NoError(t, json.Unmarshal(buf, &out))
require.Equal(t, *sn, out)
}
// frankensteinStruct is an amalgamation of all of the different kinds of
// fields you could have on struct defined in the agent/structs package that we
// send through msgpack
type frankensteinStruct struct {
Child *monsterStruct
ChildSlice []*monsterStruct
ChildMap map[string]*monsterStruct
}
type monsterStruct struct {
Bool bool
Int int
Uint8 uint8
Uint64 uint64
Float32 float32
Float64 float64
String string
Hash []byte
Uint32Slice []uint32
Float64Slice []float64
StringSlice []string
MapInt map[string]int
MapString map[string]string
MapStringSlice map[string][]string
// We explicitly DO NOT try to test the following types that involve
// interface{} as the TestMsgpackEncodeDecode test WILL fail.
//
// These are tested elsewhere for the very specific scenario in question,
// which usually takes a secondary trip through mapstructure during decode
// which papers over some of the additional conversions necessary to finish
// decoding.
// MapIface map[string]interface{}
// MapMapIface map[string]map[string]interface{}
Dur time.Duration
DurPtr *time.Duration
Time time.Time
TimePtr *time.Time
RaftIndex
}
func makeFrank() *frankensteinStruct {
return &frankensteinStruct{
Child: makeMonster(),
ChildSlice: []*monsterStruct{
makeMonster(),
makeMonster(),
},
ChildMap: map[string]*monsterStruct{
"one": makeMonster(), // only put one key in here so the map order is fixed
},
}
}
func makeMonster() *monsterStruct {
var d time.Duration = 9 * time.Hour
var t time.Time = time.Date(2008, 1, 2, 3, 4, 5, 0, time.UTC)
return &monsterStruct{
Bool: true,
Int: -8,
Uint8: 5,
Uint64: 9,
Float32: 5.25,
Float64: 99.5,
String: "strval",
Hash: []byte("hello"),
Uint32Slice: []uint32{1, 2, 3, 4},
Float64Slice: []float64{9.2, 6.25},
StringSlice: []string{"foo", "bar"},
// // MapIface will hold an amalgam of what AuthMethods and
// // CAConfigurations use in 'Config'
// MapIface: map[string]interface{}{
// "Name": "inner",
// "Dur": "5s",
// "Bool": true,
// "Float": 15.25,
// "Int": int64(94),
// "Nested": map[string]string{ // this doesn't survive
// "foo": "bar",
// },
// },
// // MapMapIface map[string]map[string]interface{}
MapInt: map[string]int{
"int": 5,
},
MapString: map[string]string{
"aaa": "bbb",
},
MapStringSlice: map[string][]string{
"aaa": {"bbb"},
},
Dur: 5 * time.Second,
DurPtr: &d,
Time: t.Add(-5 * time.Hour),
TimePtr: &t,
RaftIndex: RaftIndex{
CreateIndex: 1,
ModifyIndex: 3,
},
}
}
func TestStructs_MsgpackEncodeDecode_Monolith(t *testing.T) {
t.Run("monster", func(t *testing.T) {
in := makeMonster()
TestMsgpackEncodeDecode(t, in, false)
})
t.Run("frankenstein", func(t *testing.T) {
in := makeFrank()
TestMsgpackEncodeDecode(t, in, false)
})
}
func TestSnapshotRequestResponse_MsgpackEncodeDecode(t *testing.T) {
t.Run("request", func(t *testing.T) {
in := &SnapshotRequest{
Datacenter: "foo",
Token: "blah",
AllowStale: true,
Op: SnapshotRestore,
}
TestMsgpackEncodeDecode(t, in, true)
})
t.Run("response", func(t *testing.T) {
in := &SnapshotResponse{
Error: "blah",
QueryMeta: QueryMeta{
Index: 3,
LastContact: 5 * time.Second,
KnownLeader: true,
ConsistencyLevel: "default",
},
}
TestMsgpackEncodeDecode(t, in, true)
})
}
wan federation via mesh gateways (#6884) This is like a Möbius strip of code due to the fact that low-level components (serf/memberlist) are connected to high-level components (the catalog and mesh-gateways) in a twisty maze of references which make it hard to dive into. With that in mind here's a high level summary of what you'll find in the patch: There are several distinct chunks of code that are affected: * new flags and config options for the server * retry join WAN is slightly different * retry join code is shared to discover primary mesh gateways from secondary datacenters * because retry join logic runs in the *agent* and the results of that operation for primary mesh gateways are needed in the *server* there are some methods like `RefreshPrimaryGatewayFallbackAddresses` that must occur at multiple layers of abstraction just to pass the data down to the right layer. * new cache type `FederationStateListMeshGatewaysName` for use in `proxycfg/xds` layers * the function signature for RPC dialing picked up a new required field (the node name of the destination) * several new RPCs for manipulating a FederationState object: `FederationState:{Apply,Get,List,ListMeshGateways}` * 3 read-only internal APIs for debugging use to invoke those RPCs from curl * raft and fsm changes to persist these FederationStates * replication for FederationStates as they are canonically stored in the Primary and replicated to the Secondaries. * a special derivative of anti-entropy that runs in secondaries to snapshot their local mesh gateway `CheckServiceNodes` and sync them into their upstream FederationState in the primary (this works in conjunction with the replication to distribute addresses for all mesh gateways in all DCs to all other DCs) * a "gateway locator" convenience object to make use of this data to choose the addresses of gateways to use for any given RPC or gossip operation to a remote DC. This gets data from the "retry join" logic in the agent and also directly calls into the FSM. * RPC (`:8300`) on the server sniffs the first byte of a new connection to determine if it's actually doing native TLS. If so it checks the ALPN header for protocol determination (just like how the existing system uses the type-byte marker). * 2 new kinds of protocols are exclusively decoded via this native TLS mechanism: one for ferrying "packet" operations (udp-like) from the gossip layer and one for "stream" operations (tcp-like). The packet operations re-use sockets (using length-prefixing) to cut down on TLS re-negotiation overhead. * the server instances specially wrap the `memberlist.NetTransport` when running with gateway federation enabled (in a `wanfed.Transport`). The general gist is that if it tries to dial a node in the SAME datacenter (deduced by looking at the suffix of the node name) there is no change. If dialing a DIFFERENT datacenter it is wrapped up in a TLS+ALPN blob and sent through some mesh gateways to eventually end up in a server's :8300 port. * a new flag when launching a mesh gateway via `consul connect envoy` to indicate that the servers are to be exposed. This sets a special service meta when registering the gateway into the catalog. * `proxycfg/xds` notice this metadata blob to activate additional watches for the FederationState objects as well as the location of all of the consul servers in that datacenter. * `xds:` if the extra metadata is in place additional clusters are defined in a DC to bulk sink all traffic to another DC's gateways. For the current datacenter we listen on a wildcard name (`server.<dc>.consul`) that load balances all servers as well as one mini-cluster per node (`<node>.server.<dc>.consul`) * the `consul tls cert create` command got a new flag (`-node`) to help create an additional SAN in certs that can be used with this flavor of federation.
2020-03-09 20:59:02 +00:00
func TestGatewayService_IsSame(t *testing.T) {
gateway := NewServiceName("gateway", nil)
svc := NewServiceName("web", nil)
kind := ServiceKindTerminatingGateway
ca := "ca.pem"
cert := "client.pem"
key := "tls.key"
sni := "mydomain"
wildcard := false
g := &GatewayService{
Gateway: gateway,
Service: svc,
GatewayKind: kind,
CAFile: ca,
CertFile: cert,
KeyFile: key,
SNI: sni,
FromWildcard: wildcard,
}
other := &GatewayService{
Gateway: gateway,
Service: svc,
GatewayKind: kind,
CAFile: ca,
CertFile: cert,
KeyFile: key,
SNI: sni,
FromWildcard: wildcard,
}
check := func(twiddle, restore func()) {
t.Helper()
if !g.IsSame(other) || !other.IsSame(g) {
t.Fatalf("should be the same")
}
twiddle()
if g.IsSame(other) || other.IsSame(g) {
t.Fatalf("should be different, was %#v VS %#v", g, other)
}
restore()
if !g.IsSame(other) || !other.IsSame(g) {
t.Fatalf("should be the same")
}
}
check(func() { other.Gateway = NewServiceName("other", nil) }, func() { other.Gateway = gateway })
check(func() { other.Service = NewServiceName("other", nil) }, func() { other.Service = svc })
check(func() { other.GatewayKind = ServiceKindIngressGateway }, func() { other.GatewayKind = kind })
check(func() { other.CAFile = "/certs/cert.pem" }, func() { other.CAFile = ca })
check(func() { other.CertFile = "/certs/cert.pem" }, func() { other.CertFile = cert })
check(func() { other.KeyFile = "/certs/cert.pem" }, func() { other.KeyFile = key })
check(func() { other.SNI = "alt-domain" }, func() { other.SNI = sni })
check(func() { other.FromWildcard = true }, func() { other.FromWildcard = wildcard })
if !g.IsSame(other) {
t.Fatalf("should be equal, was %#v VS %#v", g, other)
}
}