open-consul/agent/consul/leader_connect_test.go
Daniel Nephin 3173582b75 ca: return an error when secondary fails to initialize
Previously secondaryInitialize would return nil in this case, which prevented the
deferred initialize from happening, and left the CA in an uninitialized state until a config
update or root rotation.

To fix this I extracted the common parts into the delegate implementation. However looking at this
again, it seems like the handling in secondaryUpdateRoots is impossible, because that function
should never be called before the secondary is initialzied. I beleive we can remove some of that
logic in a follow up.
2021-11-05 18:02:51 -04:00

1691 lines
48 KiB
Go

package consul
import (
"context"
"crypto/x509"
"fmt"
"io/ioutil"
"os"
"path/filepath"
"reflect"
"strings"
"testing"
"time"
uuid "github.com/hashicorp/go-uuid"
msgpackrpc "github.com/hashicorp/net-rpc-msgpackrpc"
"github.com/stretchr/testify/require"
"github.com/hashicorp/consul/agent/connect"
"github.com/hashicorp/consul/agent/connect/ca"
"github.com/hashicorp/consul/agent/structs"
"github.com/hashicorp/consul/agent/token"
"github.com/hashicorp/consul/sdk/testutil/retry"
"github.com/hashicorp/consul/testrpc"
)
func TestLeader_Builtin_PrimaryCA_ChangeKeyConfig(t *testing.T) {
if testing.Short() {
t.Skip("too slow for testing.Short")
}
types := []struct {
keyType string
keyBits int
}{
{connect.DefaultPrivateKeyType, connect.DefaultPrivateKeyBits},
{"ec", 256},
{"ec", 384},
{"rsa", 2048},
{"rsa", 4096},
}
for _, src := range types {
for _, dst := range types {
if src == dst {
continue // skip
}
src := src
dst := dst
t.Run(fmt.Sprintf("%s-%d to %s-%d", src.keyType, src.keyBits, dst.keyType, dst.keyBits), func(t *testing.T) {
t.Parallel()
providerState := map[string]string{"foo": "dc1-value"}
// Initialize primary as the primary DC
dir1, srv := testServerWithConfig(t, func(c *Config) {
c.Datacenter = "dc1"
c.PrimaryDatacenter = "dc1"
c.Build = "1.6.0"
c.CAConfig.Config["PrivateKeyType"] = src.keyType
c.CAConfig.Config["PrivateKeyBits"] = src.keyBits
c.CAConfig.Config["test_state"] = providerState
})
defer os.RemoveAll(dir1)
defer srv.Shutdown()
codec := rpcClient(t, srv)
defer codec.Close()
testrpc.WaitForLeader(t, srv.RPC, "dc1")
testrpc.WaitForActiveCARoot(t, srv.RPC, "dc1", nil)
var (
provider ca.Provider
caRoot *structs.CARoot
)
retry.Run(t, func(r *retry.R) {
provider, caRoot = getCAProviderWithLock(srv)
require.NotNil(r, caRoot)
// Sanity check CA is using the correct key type
require.Equal(r, src.keyType, caRoot.PrivateKeyType)
require.Equal(r, src.keyBits, caRoot.PrivateKeyBits)
})
runStep(t, "sign leaf cert and make sure chain is correct", func(t *testing.T) {
spiffeService := &connect.SpiffeIDService{
Host: "node1",
Namespace: "default",
Datacenter: "dc1",
Service: "foo",
}
raw, _ := connect.TestCSR(t, spiffeService)
leafCsr, err := connect.ParseCSR(raw)
require.NoError(t, err)
leafPEM, err := provider.Sign(leafCsr)
require.NoError(t, err)
// Check that the leaf signed by the new cert can be verified using the
// returned cert chain
require.NoError(t, connect.ValidateLeaf(caRoot.RootCert, leafPEM, []string{}))
})
runStep(t, "verify persisted state is correct", func(t *testing.T) {
state := srv.fsm.State()
_, caConfig, err := state.CAConfig(nil)
require.NoError(t, err)
require.Equal(t, providerState, caConfig.State)
})
runStep(t, "change roots", func(t *testing.T) {
// Update a config value
newConfig := &structs.CAConfiguration{
Provider: "consul",
Config: map[string]interface{}{
"PrivateKey": "",
"RootCert": "",
"PrivateKeyType": dst.keyType,
"PrivateKeyBits": dst.keyBits,
// This verifies the state persistence for providers although Consul
// provider doesn't actually use that mechanism outside of tests.
"test_state": providerState,
},
}
args := &structs.CARequest{
Datacenter: "dc1",
Config: newConfig,
}
var reply interface{}
require.NoError(t, msgpackrpc.CallWithCodec(codec, "ConnectCA.ConfigurationSet", args, &reply))
})
var (
newProvider ca.Provider
newCaRoot *structs.CARoot
)
retry.Run(t, func(r *retry.R) {
newProvider, newCaRoot = getCAProviderWithLock(srv)
require.NotNil(r, newCaRoot)
// Sanity check CA is using the correct key type
require.Equal(r, dst.keyType, newCaRoot.PrivateKeyType)
require.Equal(r, dst.keyBits, newCaRoot.PrivateKeyBits)
})
runStep(t, "sign leaf cert and make sure NEW chain is correct", func(t *testing.T) {
spiffeService := &connect.SpiffeIDService{
Host: "node1",
Namespace: "default",
Datacenter: "dc1",
Service: "foo",
}
raw, _ := connect.TestCSR(t, spiffeService)
leafCsr, err := connect.ParseCSR(raw)
require.NoError(t, err)
leafPEM, err := newProvider.Sign(leafCsr)
require.NoError(t, err)
// Check that the leaf signed by the new cert can be verified using the
// returned cert chain
require.NoError(t, connect.ValidateLeaf(newCaRoot.RootCert, leafPEM, []string{}))
})
runStep(t, "verify persisted state is still correct", func(t *testing.T) {
state := srv.fsm.State()
_, caConfig, err := state.CAConfig(nil)
require.NoError(t, err)
require.Equal(t, providerState, caConfig.State)
})
})
}
}
}
func TestLeader_SecondaryCA_Initialize(t *testing.T) {
if testing.Short() {
t.Skip("too slow for testing.Short")
}
t.Parallel()
tests := []struct {
keyType string
keyBits int
}{
{connect.DefaultPrivateKeyType, connect.DefaultPrivateKeyBits},
{"rsa", 2048},
}
dc1State := map[string]string{"foo": "dc1-value"}
dc2State := map[string]string{"foo": "dc2-value"}
for _, tc := range tests {
tc := tc
t.Run(fmt.Sprintf("%s-%d", tc.keyType, tc.keyBits), func(t *testing.T) {
masterToken := "8a85f086-dd95-4178-b128-e10902767c5c"
// Initialize primary as the primary DC
dir1, s1 := testServerWithConfig(t, func(c *Config) {
c.Datacenter = "primary"
c.PrimaryDatacenter = "primary"
c.Build = "1.6.0"
c.ACLsEnabled = true
c.ACLMasterToken = masterToken
c.ACLResolverSettings.ACLDefaultPolicy = "deny"
c.CAConfig.Config["PrivateKeyType"] = tc.keyType
c.CAConfig.Config["PrivateKeyBits"] = tc.keyBits
c.CAConfig.Config["test_state"] = dc1State
})
defer os.RemoveAll(dir1)
defer s1.Shutdown()
s1.tokens.UpdateAgentToken(masterToken, token.TokenSourceConfig)
testrpc.WaitForLeader(t, s1.RPC, "primary")
// secondary as a secondary DC
dir2, s2 := testServerWithConfig(t, func(c *Config) {
c.Datacenter = "secondary"
c.PrimaryDatacenter = "primary"
c.Build = "1.6.0"
c.ACLsEnabled = true
c.ACLResolverSettings.ACLDefaultPolicy = "deny"
c.ACLTokenReplication = true
c.CAConfig.Config["PrivateKeyType"] = tc.keyType
c.CAConfig.Config["PrivateKeyBits"] = tc.keyBits
c.CAConfig.Config["test_state"] = dc2State
})
defer os.RemoveAll(dir2)
defer s2.Shutdown()
s2.tokens.UpdateAgentToken(masterToken, token.TokenSourceConfig)
s2.tokens.UpdateReplicationToken(masterToken, token.TokenSourceConfig)
// Create the WAN link
joinWAN(t, s2, s1)
testrpc.WaitForLeader(t, s2.RPC, "secondary")
// Ensure s2 is authoritative.
waitForNewACLReplication(t, s2, structs.ACLReplicateTokens, 1, 1, 0)
// Wait until the providers are fully bootstrapped.
var (
caRoot *structs.CARoot
secondaryProvider ca.Provider
intermediatePEM string
err error
)
retry.Run(t, func(r *retry.R) {
_, caRoot = getCAProviderWithLock(s1)
secondaryProvider, _ = getCAProviderWithLock(s2)
intermediatePEM, err = secondaryProvider.ActiveIntermediate()
require.NoError(r, err)
// Sanity check CA is using the correct key type
require.Equal(r, tc.keyType, caRoot.PrivateKeyType)
require.Equal(r, tc.keyBits, caRoot.PrivateKeyBits)
// Verify the root lists are equal in each DC's state store.
state1 := s1.fsm.State()
_, roots1, err := state1.CARoots(nil)
require.NoError(r, err)
state2 := s2.fsm.State()
_, roots2, err := state2.CARoots(nil)
require.NoError(r, err)
require.Len(r, roots1, 1)
require.Len(r, roots2, 1)
require.Equal(r, roots1[0].ID, roots2[0].ID)
require.Equal(r, roots1[0].RootCert, roots2[0].RootCert)
require.Empty(r, roots1[0].IntermediateCerts)
require.NotEmpty(r, roots2[0].IntermediateCerts)
})
// Have secondary sign a leaf cert and make sure the chain is correct.
spiffeService := &connect.SpiffeIDService{
Host: "node1",
Namespace: "default",
Datacenter: "primary",
Service: "foo",
}
raw, _ := connect.TestCSR(t, spiffeService)
leafCsr, err := connect.ParseCSR(raw)
require.NoError(t, err)
leafPEM, err := secondaryProvider.Sign(leafCsr)
require.NoError(t, err)
// Check that the leaf signed by the new cert can be verified using the
// returned cert chain (signed intermediate + remote root).
require.NoError(t, connect.ValidateLeaf(caRoot.RootCert, leafPEM, []string{intermediatePEM}))
// Verify that both primary and secondary persisted state as expected -
// pass through from the config.
{
state := s1.fsm.State()
_, caConfig, err := state.CAConfig(nil)
require.NoError(t, err)
require.Equal(t, dc1State, caConfig.State)
}
{
state := s2.fsm.State()
_, caConfig, err := state.CAConfig(nil)
require.NoError(t, err)
require.Equal(t, dc2State, caConfig.State)
}
})
}
}
func waitForActiveCARoot(t *testing.T, srv *Server, expect *structs.CARoot) {
retry.Run(t, func(r *retry.R) {
_, root := getCAProviderWithLock(srv)
if root == nil {
r.Fatal("no root")
}
if root.ID != expect.ID {
r.Fatalf("current active root is %s; waiting for %s", root.ID, expect.ID)
}
})
}
func getCAProviderWithLock(s *Server) (ca.Provider, *structs.CARoot) {
return s.caManager.getCAProvider()
}
func TestLeader_Vault_PrimaryCA_IntermediateRenew(t *testing.T) {
if testing.Short() {
t.Skip("too slow for testing.Short")
}
ca.SkipIfVaultNotPresent(t)
// no parallel execution because we change globals
origInterval := structs.IntermediateCertRenewInterval
origMinTTL := structs.MinLeafCertTTL
origDriftBuffer := ca.CertificateTimeDriftBuffer
defer func() {
structs.IntermediateCertRenewInterval = origInterval
structs.MinLeafCertTTL = origMinTTL
ca.CertificateTimeDriftBuffer = origDriftBuffer
}()
// Vault backdates certs by 30s by default.
ca.CertificateTimeDriftBuffer = 30 * time.Second
structs.IntermediateCertRenewInterval = time.Millisecond
structs.MinLeafCertTTL = time.Second
require := require.New(t)
testVault := ca.NewTestVaultServer(t)
defer testVault.Stop()
dir1, s1 := testServerWithConfig(t, func(c *Config) {
c.Build = "1.6.0"
c.PrimaryDatacenter = "dc1"
c.CAConfig = &structs.CAConfiguration{
Provider: "vault",
Config: map[string]interface{}{
"Address": testVault.Addr,
"Token": testVault.RootToken,
"RootPKIPath": "pki-root/",
"IntermediatePKIPath": "pki-intermediate/",
"LeafCertTTL": "1s",
// The retry loop only retries for 7sec max and
// the ttl needs to be below so that it
// triggers definitely.
"IntermediateCertTTL": "5s",
},
}
})
defer os.RemoveAll(dir1)
defer func() {
s1.Shutdown()
s1.leaderRoutineManager.Wait()
}()
testrpc.WaitForLeader(t, s1.RPC, "dc1")
// Capture the current root.
var originalRoot *structs.CARoot
{
rootList, activeRoot, err := getTestRoots(s1, "dc1")
require.NoError(err)
require.Len(rootList.Roots, 1)
originalRoot = activeRoot
}
// Get the original intermediate.
waitForActiveCARoot(t, s1, originalRoot)
provider, _ := getCAProviderWithLock(s1)
intermediatePEM, err := provider.ActiveIntermediate()
require.NoError(err)
_, err = connect.ParseCert(intermediatePEM)
require.NoError(err)
// Wait for dc1's intermediate to be refreshed.
// It is possible that test fails when the blocking query doesn't return.
retry.Run(t, func(r *retry.R) {
provider, _ = getCAProviderWithLock(s1)
newIntermediatePEM, err := provider.ActiveIntermediate()
r.Check(err)
_, err = connect.ParseCert(intermediatePEM)
r.Check(err)
if newIntermediatePEM == intermediatePEM {
r.Fatal("not a renewed intermediate")
}
intermediatePEM = newIntermediatePEM
})
require.NoError(err)
// Get the root from dc1 and validate a chain of:
// dc1 leaf -> dc1 intermediate -> dc1 root
provider, caRoot := getCAProviderWithLock(s1)
// Have the new intermediate sign a leaf cert and make sure the chain is correct.
spiffeService := &connect.SpiffeIDService{
Host: "node1",
Namespace: "default",
Datacenter: "dc1",
Service: "foo",
}
raw, _ := connect.TestCSR(t, spiffeService)
leafCsr, err := connect.ParseCSR(raw)
require.NoError(err)
leafPEM, err := provider.Sign(leafCsr)
require.NoError(err)
cert, err := connect.ParseCert(leafPEM)
require.NoError(err)
// Check that the leaf signed by the new intermediate can be verified using the
// returned cert chain (signed intermediate + remote root).
intermediatePool := x509.NewCertPool()
intermediatePool.AppendCertsFromPEM([]byte(intermediatePEM))
rootPool := x509.NewCertPool()
rootPool.AppendCertsFromPEM([]byte(caRoot.RootCert))
_, err = cert.Verify(x509.VerifyOptions{
Intermediates: intermediatePool,
Roots: rootPool,
})
require.NoError(err)
}
func TestLeader_SecondaryCA_IntermediateRenew(t *testing.T) {
if testing.Short() {
t.Skip("too slow for testing.Short")
}
// no parallel execution because we change globals
origInterval := structs.IntermediateCertRenewInterval
origMinTTL := structs.MinLeafCertTTL
defer func() {
structs.IntermediateCertRenewInterval = origInterval
structs.MinLeafCertTTL = origMinTTL
}()
structs.IntermediateCertRenewInterval = time.Millisecond
structs.MinLeafCertTTL = time.Second
require := require.New(t)
dir1, s1 := testServerWithConfig(t, func(c *Config) {
c.Build = "1.6.0"
c.CAConfig = &structs.CAConfiguration{
Provider: "consul",
Config: map[string]interface{}{
"PrivateKey": "",
"RootCert": "",
"LeafCertTTL": "5s",
// The retry loop only retries for 7sec max and
// the ttl needs to be below so that it
// triggers definitely.
// Since certs are created so that they are
// valid from 1minute in the past, we need to
// account for that, otherwise it will be
// expired immediately.
"IntermediateCertTTL": time.Minute + (5 * time.Second),
},
}
})
defer os.RemoveAll(dir1)
defer func() {
s1.Shutdown()
s1.leaderRoutineManager.Wait()
}()
testrpc.WaitForLeader(t, s1.RPC, "dc1")
// dc2 as a secondary DC
dir2, s2 := testServerWithConfig(t, func(c *Config) {
c.Datacenter = "dc2"
c.PrimaryDatacenter = "dc1"
c.Build = "1.6.0"
})
defer os.RemoveAll(dir2)
defer func() {
s2.Shutdown()
s2.leaderRoutineManager.Wait()
}()
// Create the WAN link
joinWAN(t, s2, s1)
testrpc.WaitForLeader(t, s2.RPC, "dc2")
// Get the original intermediate
// TODO: Wait for intermediate instead of wait for leader
secondaryProvider, _ := getCAProviderWithLock(s2)
intermediatePEM, err := secondaryProvider.ActiveIntermediate()
require.NoError(err)
cert, err := connect.ParseCert(intermediatePEM)
require.NoError(err)
currentCertSerialNumber := cert.SerialNumber
currentCertAuthorityKeyId := cert.AuthorityKeyId
// Capture the current root
var originalRoot *structs.CARoot
{
rootList, activeRoot, err := getTestRoots(s1, "dc1")
require.NoError(err)
require.Len(rootList.Roots, 1)
originalRoot = activeRoot
}
waitForActiveCARoot(t, s1, originalRoot)
waitForActiveCARoot(t, s2, originalRoot)
// Wait for dc2's intermediate to be refreshed.
// It is possible that test fails when the blocking query doesn't return.
// When https://github.com/hashicorp/consul/pull/3777 is merged
// however, defaultQueryTime will be configurable and we con lower it
// so that it returns for sure.
retry.Run(t, func(r *retry.R) {
secondaryProvider, _ = getCAProviderWithLock(s2)
intermediatePEM, err = secondaryProvider.ActiveIntermediate()
r.Check(err)
cert, err := connect.ParseCert(intermediatePEM)
r.Check(err)
if cert.SerialNumber.Cmp(currentCertSerialNumber) == 0 || !reflect.DeepEqual(cert.AuthorityKeyId, currentCertAuthorityKeyId) {
currentCertSerialNumber = cert.SerialNumber
currentCertAuthorityKeyId = cert.AuthorityKeyId
r.Fatal("not a renewed intermediate")
}
})
require.NoError(err)
// Get the root from dc1 and validate a chain of:
// dc2 leaf -> dc2 intermediate -> dc1 root
_, caRoot := getCAProviderWithLock(s1)
// Have dc2 sign a leaf cert and make sure the chain is correct.
spiffeService := &connect.SpiffeIDService{
Host: "node1",
Namespace: "default",
Datacenter: "dc1",
Service: "foo",
}
raw, _ := connect.TestCSR(t, spiffeService)
leafCsr, err := connect.ParseCSR(raw)
require.NoError(err)
leafPEM, err := secondaryProvider.Sign(leafCsr)
require.NoError(err)
cert, err = connect.ParseCert(leafPEM)
require.NoError(err)
// Check that the leaf signed by the new intermediate can be verified using the
// returned cert chain (signed intermediate + remote root).
intermediatePool := x509.NewCertPool()
intermediatePool.AppendCertsFromPEM([]byte(intermediatePEM))
rootPool := x509.NewCertPool()
rootPool.AppendCertsFromPEM([]byte(caRoot.RootCert))
_, err = cert.Verify(x509.VerifyOptions{
Intermediates: intermediatePool,
Roots: rootPool,
})
require.NoError(err)
}
func TestLeader_SecondaryCA_IntermediateRefresh(t *testing.T) {
if testing.Short() {
t.Skip("too slow for testing.Short")
}
t.Parallel()
require := require.New(t)
dir1, s1 := testServerWithConfig(t, func(c *Config) {
c.Build = "1.6.0"
c.PrimaryDatacenter = "dc1"
})
defer os.RemoveAll(dir1)
defer s1.Shutdown()
testrpc.WaitForLeader(t, s1.RPC, "dc1")
// dc2 as a secondary DC
dir2, s2 := testServerWithConfig(t, func(c *Config) {
c.Datacenter = "dc2"
c.PrimaryDatacenter = "dc1"
c.Build = "1.6.0"
})
defer os.RemoveAll(dir2)
defer s2.Shutdown()
// Create the WAN link
joinWAN(t, s2, s1)
testrpc.WaitForLeader(t, s2.RPC, "dc2")
// Get the original intermediate
secondaryProvider, _ := getCAProviderWithLock(s2)
oldIntermediatePEM, err := secondaryProvider.ActiveIntermediate()
require.NoError(err)
require.NotEmpty(oldIntermediatePEM)
// Capture the current root
var originalRoot *structs.CARoot
{
rootList, activeRoot, err := getTestRoots(s1, "dc1")
require.NoError(err)
require.Len(rootList.Roots, 1)
originalRoot = activeRoot
}
// Wait for current state to be reflected in both datacenters.
testrpc.WaitForActiveCARoot(t, s1.RPC, "dc1", originalRoot)
testrpc.WaitForActiveCARoot(t, s2.RPC, "dc2", originalRoot)
// Update the provider config to use a new private key, which should
// cause a rotation.
_, newKey, err := connect.GeneratePrivateKey()
require.NoError(err)
newConfig := &structs.CAConfiguration{
Provider: "consul",
Config: map[string]interface{}{
"PrivateKey": newKey,
"RootCert": "",
"IntermediateCertTTL": 72 * 24 * time.Hour,
},
}
{
args := &structs.CARequest{
Datacenter: "dc1",
Config: newConfig,
}
var reply interface{}
require.NoError(s1.RPC("ConnectCA.ConfigurationSet", args, &reply))
}
var updatedRoot *structs.CARoot
{
rootList, activeRoot, err := getTestRoots(s1, "dc1")
require.NoError(err)
require.Len(rootList.Roots, 2)
updatedRoot = activeRoot
}
testrpc.WaitForActiveCARoot(t, s1.RPC, "dc1", updatedRoot)
testrpc.WaitForActiveCARoot(t, s2.RPC, "dc2", updatedRoot)
// Wait for dc2's intermediate to be refreshed.
var intermediatePEM string
retry.Run(t, func(r *retry.R) {
intermediatePEM, err = secondaryProvider.ActiveIntermediate()
r.Check(err)
if intermediatePEM == oldIntermediatePEM {
r.Fatal("not a new intermediate")
}
})
require.NoError(err)
// Verify the root lists have been rotated in each DC's state store.
state1 := s1.fsm.State()
_, primaryRoot, err := state1.CARootActive(nil)
require.NoError(err)
state2 := s2.fsm.State()
_, roots2, err := state2.CARoots(nil)
require.NoError(err)
require.Equal(2, len(roots2))
newRoot := roots2[0]
oldRoot := roots2[1]
if roots2[1].Active {
newRoot = roots2[1]
oldRoot = roots2[0]
}
require.False(oldRoot.Active)
require.True(newRoot.Active)
require.Equal(primaryRoot.ID, newRoot.ID)
require.Equal(primaryRoot.RootCert, newRoot.RootCert)
// Get the new root from dc1 and validate a chain of:
// dc2 leaf -> dc2 intermediate -> dc1 root
_, caRoot := getCAProviderWithLock(s1)
// Have dc2 sign a leaf cert and make sure the chain is correct.
spiffeService := &connect.SpiffeIDService{
Host: "node1",
Namespace: "default",
Datacenter: "dc1",
Service: "foo",
}
raw, _ := connect.TestCSR(t, spiffeService)
leafCsr, err := connect.ParseCSR(raw)
require.NoError(err)
leafPEM, err := secondaryProvider.Sign(leafCsr)
require.NoError(err)
cert, err := connect.ParseCert(leafPEM)
require.NoError(err)
// Check that the leaf signed by the new intermediate can be verified using the
// returned cert chain (signed intermediate + remote root).
intermediatePool := x509.NewCertPool()
intermediatePool.AppendCertsFromPEM([]byte(intermediatePEM))
rootPool := x509.NewCertPool()
rootPool.AppendCertsFromPEM([]byte(caRoot.RootCert))
_, err = cert.Verify(x509.VerifyOptions{
Intermediates: intermediatePool,
Roots: rootPool,
})
require.NoError(err)
}
func TestLeader_Vault_PrimaryCA_FixSigningKeyID_OnRestart(t *testing.T) {
ca.SkipIfVaultNotPresent(t)
if testing.Short() {
t.Skip("too slow for testing.Short")
}
t.Parallel()
testVault := ca.NewTestVaultServer(t)
defer testVault.Stop()
dir1pre, s1pre := testServerWithConfig(t, func(c *Config) {
c.Build = "1.6.0"
c.PrimaryDatacenter = "dc1"
c.CAConfig = &structs.CAConfiguration{
Provider: "vault",
Config: map[string]interface{}{
"Address": testVault.Addr,
"Token": testVault.RootToken,
"RootPKIPath": "pki-root/",
"IntermediatePKIPath": "pki-intermediate/",
},
}
})
defer os.RemoveAll(dir1pre)
defer s1pre.Shutdown()
testrpc.WaitForLeader(t, s1pre.RPC, "dc1")
// Restore the pre-1.9.3/1.8.8/1.7.12 behavior of the SigningKeyID not being derived
// from the intermediates in the primary (which only matters for provider=vault).
var primaryRootSigningKeyID string
{
state := s1pre.fsm.State()
// Get the highest index
idx, activePrimaryRoot, err := state.CARootActive(nil)
require.NoError(t, err)
require.NotNil(t, activePrimaryRoot)
rootCert, err := connect.ParseCert(activePrimaryRoot.RootCert)
require.NoError(t, err)
// Force this to be derived just from the root, not the intermediate.
primaryRootSigningKeyID = connect.EncodeSigningKeyID(rootCert.SubjectKeyId)
activePrimaryRoot.SigningKeyID = primaryRootSigningKeyID
// Store the root cert in raft
_, err = s1pre.raftApply(structs.ConnectCARequestType, &structs.CARequest{
Op: structs.CAOpSetRoots,
Index: idx,
Roots: []*structs.CARoot{activePrimaryRoot},
})
require.NoError(t, err)
}
// Shutdown s1pre and restart it to trigger the secondary CA init to correct
// the SigningKeyID.
s1pre.Shutdown()
dir1, s1 := testServerWithConfig(t, func(c *Config) {
c.DataDir = s1pre.config.DataDir
c.Datacenter = "dc1"
c.PrimaryDatacenter = "dc1"
c.NodeName = s1pre.config.NodeName
c.NodeID = s1pre.config.NodeID
})
defer os.RemoveAll(dir1)
defer s1.Shutdown()
testrpc.WaitForLeader(t, s1.RPC, "dc1")
// Retry since it will take some time to init the primary CA fully and there
// isn't a super clean way to watch specifically until it's done than polling
// the CA provider anyway.
retry.Run(t, func(r *retry.R) {
// verify that the root is now corrected
provider, activeRoot := getCAProviderWithLock(s1)
require.NotNil(r, provider)
require.NotNil(r, activeRoot)
activeIntermediate, err := provider.ActiveIntermediate()
require.NoError(r, err)
intermediateCert, err := connect.ParseCert(activeIntermediate)
require.NoError(r, err)
// Force this to be derived just from the root, not the intermediate.
expect := connect.EncodeSigningKeyID(intermediateCert.SubjectKeyId)
// The in-memory representation was saw the correction via a setCAProvider call.
require.Equal(r, expect, activeRoot.SigningKeyID)
// The state store saw the correction, too.
_, activePrimaryRoot, err := s1.fsm.State().CARootActive(nil)
require.NoError(r, err)
require.NotNil(r, activePrimaryRoot)
require.Equal(r, expect, activePrimaryRoot.SigningKeyID)
})
}
func TestLeader_SecondaryCA_FixSigningKeyID_via_IntermediateRefresh(t *testing.T) {
if testing.Short() {
t.Skip("too slow for testing.Short")
}
t.Parallel()
dir1, s1 := testServerWithConfig(t, func(c *Config) {
c.Build = "1.6.0"
c.PrimaryDatacenter = "dc1"
})
defer os.RemoveAll(dir1)
defer s1.Shutdown()
testrpc.WaitForLeader(t, s1.RPC, "dc1")
// dc2 as a secondary DC
dir2pre, s2pre := testServerWithConfig(t, func(c *Config) {
c.Datacenter = "dc2"
c.PrimaryDatacenter = "dc1"
c.Build = "1.6.0"
})
defer os.RemoveAll(dir2pre)
defer s2pre.Shutdown()
// Create the WAN link
joinWAN(t, s2pre, s1)
testrpc.WaitForLeader(t, s2pre.RPC, "dc2")
// Restore the pre-1.6.1 behavior of the SigningKeyID not being derived
// from the intermediates.
var secondaryRootSigningKeyID string
{
state := s2pre.fsm.State()
// Get the highest index
idx, activeSecondaryRoot, err := state.CARootActive(nil)
require.NoError(t, err)
require.NotNil(t, activeSecondaryRoot)
rootCert, err := connect.ParseCert(activeSecondaryRoot.RootCert)
require.NoError(t, err)
// Force this to be derived just from the root, not the intermediate.
secondaryRootSigningKeyID = connect.EncodeSigningKeyID(rootCert.SubjectKeyId)
activeSecondaryRoot.SigningKeyID = secondaryRootSigningKeyID
// Store the root cert in raft
_, err = s2pre.raftApply(structs.ConnectCARequestType, &structs.CARequest{
Op: structs.CAOpSetRoots,
Index: idx,
Roots: []*structs.CARoot{activeSecondaryRoot},
})
require.NoError(t, err)
}
// Shutdown s2pre and restart it to trigger the secondary CA init to correct
// the SigningKeyID.
s2pre.Shutdown()
dir2, s2 := testServerWithConfig(t, func(c *Config) {
c.DataDir = s2pre.config.DataDir
c.Datacenter = "dc2"
c.PrimaryDatacenter = "dc1"
c.NodeName = s2pre.config.NodeName
c.NodeID = s2pre.config.NodeID
})
defer os.RemoveAll(dir2)
defer s2.Shutdown()
testrpc.WaitForLeader(t, s2.RPC, "dc2")
// Retry since it will take some time to init the secondary CA fully and there
// isn't a super clean way to watch specifically until it's done than polling
// the CA provider anyway.
retry.Run(t, func(r *retry.R) {
// verify that the root is now corrected
provider, activeRoot := getCAProviderWithLock(s2)
require.NotNil(r, provider)
require.NotNil(r, activeRoot)
activeIntermediate, err := provider.ActiveIntermediate()
require.NoError(r, err)
intermediateCert, err := connect.ParseCert(activeIntermediate)
require.NoError(r, err)
// Force this to be derived just from the root, not the intermediate.
expect := connect.EncodeSigningKeyID(intermediateCert.SubjectKeyId)
// The in-memory representation was saw the correction via a setCAProvider call.
require.Equal(r, expect, activeRoot.SigningKeyID)
// The state store saw the correction, too.
_, activeSecondaryRoot, err := s2.fsm.State().CARootActive(nil)
require.NoError(r, err)
require.NotNil(r, activeSecondaryRoot)
require.Equal(r, expect, activeSecondaryRoot.SigningKeyID)
})
}
func TestLeader_SecondaryCA_TransitionFromPrimary(t *testing.T) {
if testing.Short() {
t.Skip("too slow for testing.Short")
}
t.Parallel()
// Initialize dc1 as the primary DC
id1, err := uuid.GenerateUUID()
require.NoError(t, err)
dir1, s1 := testServerWithConfig(t, func(c *Config) {
c.PrimaryDatacenter = "dc1"
c.CAConfig.ClusterID = id1
c.Build = "1.6.0"
})
defer os.RemoveAll(dir1)
defer s1.Shutdown()
testrpc.WaitForLeader(t, s1.RPC, "dc1")
// dc2 as a primary DC initially
id2, err := uuid.GenerateUUID()
require.NoError(t, err)
dir2, s2 := testServerWithConfig(t, func(c *Config) {
c.Datacenter = "dc2"
c.PrimaryDatacenter = "dc2"
c.CAConfig.ClusterID = id2
c.Build = "1.6.0"
})
defer os.RemoveAll(dir2)
defer s2.Shutdown()
// Get the initial (primary) roots state for the secondary
testrpc.WaitForLeader(t, s2.RPC, "dc2")
args := structs.DCSpecificRequest{Datacenter: "dc2"}
var dc2PrimaryRoots structs.IndexedCARoots
require.NoError(t, s2.RPC("ConnectCA.Roots", &args, &dc2PrimaryRoots))
require.Len(t, dc2PrimaryRoots.Roots, 1)
// Shutdown s2 and restart it with the dc1 as the primary
s2.Shutdown()
dir3, s3 := testServerWithConfig(t, func(c *Config) {
c.DataDir = s2.config.DataDir
c.Datacenter = "dc2"
c.PrimaryDatacenter = "dc1"
c.NodeName = s2.config.NodeName
c.NodeID = s2.config.NodeID
})
defer os.RemoveAll(dir3)
defer s3.Shutdown()
// Create the WAN link
joinWAN(t, s3, s1)
testrpc.WaitForLeader(t, s3.RPC, "dc2")
// Verify the secondary has migrated its TrustDomain and added the new primary's root.
retry.Run(t, func(r *retry.R) {
args = structs.DCSpecificRequest{Datacenter: "dc1"}
var dc1Roots structs.IndexedCARoots
require.NoError(r, s1.RPC("ConnectCA.Roots", &args, &dc1Roots))
require.Len(r, dc1Roots.Roots, 1)
args = structs.DCSpecificRequest{Datacenter: "dc2"}
var dc2SecondaryRoots structs.IndexedCARoots
require.NoError(r, s3.RPC("ConnectCA.Roots", &args, &dc2SecondaryRoots))
// dc2's TrustDomain should have changed to the primary's
require.Equal(r, dc2SecondaryRoots.TrustDomain, dc1Roots.TrustDomain)
require.NotEqual(r, dc2SecondaryRoots.TrustDomain, dc2PrimaryRoots.TrustDomain)
// Both roots should be present and correct
require.Len(r, dc2SecondaryRoots.Roots, 2)
var oldSecondaryRoot *structs.CARoot
var newSecondaryRoot *structs.CARoot
if dc2SecondaryRoots.Roots[0].ID == dc2PrimaryRoots.Roots[0].ID {
oldSecondaryRoot = dc2SecondaryRoots.Roots[0]
newSecondaryRoot = dc2SecondaryRoots.Roots[1]
} else {
oldSecondaryRoot = dc2SecondaryRoots.Roots[1]
newSecondaryRoot = dc2SecondaryRoots.Roots[0]
}
// The old root should have its TrustDomain filled in as the old domain.
require.Equal(r, oldSecondaryRoot.ExternalTrustDomain, strings.TrimSuffix(dc2PrimaryRoots.TrustDomain, ".consul"))
require.Equal(r, oldSecondaryRoot.ID, dc2PrimaryRoots.Roots[0].ID)
require.Equal(r, oldSecondaryRoot.RootCert, dc2PrimaryRoots.Roots[0].RootCert)
require.Equal(r, newSecondaryRoot.ID, dc1Roots.Roots[0].ID)
require.Equal(r, newSecondaryRoot.RootCert, dc1Roots.Roots[0].RootCert)
})
}
func TestLeader_SecondaryCA_UpgradeBeforePrimary(t *testing.T) {
if testing.Short() {
t.Skip("too slow for testing.Short")
}
t.Parallel()
// Initialize dc1 as the primary DC
dir1, s1 := testServerWithConfig(t, func(c *Config) {
c.PrimaryDatacenter = "dc1"
c.Build = "1.3.0"
c.MaxQueryTime = 500 * time.Millisecond
})
defer os.RemoveAll(dir1)
defer s1.Shutdown()
testrpc.WaitForLeader(t, s1.RPC, "dc1")
// dc2 as a secondary DC
dir2, s2 := testServerWithConfig(t, func(c *Config) {
c.Datacenter = "dc2"
c.PrimaryDatacenter = "dc1"
c.Build = "1.6.0"
c.MaxQueryTime = 500 * time.Millisecond
})
defer os.RemoveAll(dir2)
defer s2.Shutdown()
// Create the WAN link
joinWAN(t, s2, s1)
testrpc.WaitForLeader(t, s2.RPC, "dc2")
// ensure all the CA initialization stuff would have already been done
// this is necessary to ensure that not only has a leader been elected
// but that it has also finished its establishLeadership call
retry.Run(t, func(r *retry.R) {
require.True(r, s1.isReadyForConsistentReads())
require.True(r, s2.isReadyForConsistentReads())
})
// Verify the primary has a root (we faked its version too low but since its the primary it ignores any version checks)
retry.Run(t, func(r *retry.R) {
state1 := s1.fsm.State()
_, roots1, err := state1.CARoots(nil)
require.NoError(r, err)
require.Len(r, roots1, 1)
})
// Verify the secondary does not have a root - defers initialization until the primary has been upgraded.
state2 := s2.fsm.State()
_, roots2, err := state2.CARoots(nil)
require.NoError(t, err)
require.Empty(t, roots2)
// Update the version on the fly so s2 kicks off the secondary DC transition.
tags := s1.config.SerfWANConfig.Tags
tags["build"] = "1.6.0"
s1.serfWAN.SetTags(tags)
// Wait for the secondary transition to happen and then verify the secondary DC
// has both roots present.
retry.Run(t, func(r *retry.R) {
state1 := s1.fsm.State()
_, roots1, err := state1.CARoots(nil)
require.NoError(r, err)
require.Len(r, roots1, 1)
state2 := s2.fsm.State()
_, roots2, err := state2.CARoots(nil)
require.NoError(r, err)
require.Len(r, roots2, 1)
// ensure the roots are the same
require.Equal(r, roots1[0].ID, roots2[0].ID)
require.Equal(r, roots1[0].RootCert, roots2[0].RootCert)
secondaryProvider, _ := getCAProviderWithLock(s2)
inter, err := secondaryProvider.ActiveIntermediate()
require.NoError(r, err)
require.NotEmpty(r, inter, "should have valid intermediate")
})
secondaryProvider, _ := getCAProviderWithLock(s2)
intermediatePEM, err := secondaryProvider.ActiveIntermediate()
require.NoError(t, err)
_, caRoot := getCAProviderWithLock(s1)
// Have dc2 sign a leaf cert and make sure the chain is correct.
spiffeService := &connect.SpiffeIDService{
Host: "node1",
Namespace: "default",
Datacenter: "dc1",
Service: "foo",
}
raw, _ := connect.TestCSR(t, spiffeService)
leafCsr, err := connect.ParseCSR(raw)
require.NoError(t, err)
leafPEM, err := secondaryProvider.Sign(leafCsr)
require.NoError(t, err)
cert, err := connect.ParseCert(leafPEM)
require.NoError(t, err)
// Check that the leaf signed by the new cert can be verified using the
// returned cert chain (signed intermediate + remote root).
intermediatePool := x509.NewCertPool()
intermediatePool.AppendCertsFromPEM([]byte(intermediatePEM))
rootPool := x509.NewCertPool()
rootPool.AppendCertsFromPEM([]byte(caRoot.RootCert))
_, err = cert.Verify(x509.VerifyOptions{
Intermediates: intermediatePool,
Roots: rootPool,
})
require.NoError(t, err)
}
func getTestRoots(s *Server, datacenter string) (*structs.IndexedCARoots, *structs.CARoot, error) {
rootReq := &structs.DCSpecificRequest{
Datacenter: datacenter,
}
var rootList structs.IndexedCARoots
if err := s.RPC("ConnectCA.Roots", rootReq, &rootList); err != nil {
return nil, nil, err
}
var active *structs.CARoot
for _, root := range rootList.Roots {
if root.Active {
active = root
break
}
}
return &rootList, active, nil
}
func TestLeader_CARootPruning(t *testing.T) {
if testing.Short() {
t.Skip("too slow for testing.Short")
}
// Can not use t.Parallel(), because this modifies a global.
origPruneInterval := caRootPruneInterval
caRootPruneInterval = 200 * time.Millisecond
t.Cleanup(func() {
// Reset the value of the global prune interval so that it doesn't affect other tests
caRootPruneInterval = origPruneInterval
})
require := require.New(t)
dir1, s1 := testServer(t)
defer os.RemoveAll(dir1)
defer s1.Shutdown()
codec := rpcClient(t, s1)
defer codec.Close()
testrpc.WaitForTestAgent(t, s1.RPC, "dc1")
// Get the current root
rootReq := &structs.DCSpecificRequest{
Datacenter: "dc1",
}
var rootList structs.IndexedCARoots
require.Nil(msgpackrpc.CallWithCodec(codec, "ConnectCA.Roots", rootReq, &rootList))
require.Len(rootList.Roots, 1)
oldRoot := rootList.Roots[0]
// Update the provider config to use a new private key, which should
// cause a rotation.
_, newKey, err := connect.GeneratePrivateKey()
require.NoError(err)
newConfig := &structs.CAConfiguration{
Provider: "consul",
Config: map[string]interface{}{
"LeafCertTTL": "500ms",
"PrivateKey": newKey,
"RootCert": "",
"SkipValidate": true,
},
}
{
args := &structs.CARequest{
Datacenter: "dc1",
Config: newConfig,
}
var reply interface{}
require.NoError(msgpackrpc.CallWithCodec(codec, "ConnectCA.ConfigurationSet", args, &reply))
}
// Should have 2 roots now.
_, roots, err := s1.fsm.State().CARoots(nil)
require.NoError(err)
require.Len(roots, 2)
time.Sleep(2 * time.Second)
// Now the old root should be pruned.
_, roots, err = s1.fsm.State().CARoots(nil)
require.NoError(err)
require.Len(roots, 1)
require.True(roots[0].Active)
require.NotEqual(roots[0].ID, oldRoot.ID)
}
func TestLeader_PersistIntermediateCAs(t *testing.T) {
if testing.Short() {
t.Skip("too slow for testing.Short")
}
t.Parallel()
require := require.New(t)
dir1, s1 := testServer(t)
defer os.RemoveAll(dir1)
defer s1.Shutdown()
codec := rpcClient(t, s1)
defer codec.Close()
dir2, s2 := testServerDCBootstrap(t, "dc1", false)
defer os.RemoveAll(dir2)
defer s2.Shutdown()
dir3, s3 := testServerDCBootstrap(t, "dc1", false)
defer os.RemoveAll(dir3)
defer s3.Shutdown()
joinLAN(t, s2, s1)
joinLAN(t, s3, s1)
testrpc.WaitForLeader(t, s1.RPC, "dc1")
// Get the current root
rootReq := &structs.DCSpecificRequest{
Datacenter: "dc1",
}
var rootList structs.IndexedCARoots
require.Nil(msgpackrpc.CallWithCodec(codec, "ConnectCA.Roots", rootReq, &rootList))
require.Len(rootList.Roots, 1)
// Update the provider config to use a new private key, which should
// cause a rotation.
_, newKey, err := connect.GeneratePrivateKey()
require.NoError(err)
newConfig := &structs.CAConfiguration{
Provider: "consul",
Config: map[string]interface{}{
"PrivateKey": newKey,
"RootCert": "",
},
}
{
args := &structs.CARequest{
Datacenter: "dc1",
Config: newConfig,
}
var reply interface{}
require.NoError(msgpackrpc.CallWithCodec(codec, "ConnectCA.ConfigurationSet", args, &reply))
}
// Get the active root before leader change.
_, root := getCAProviderWithLock(s1)
require.Len(root.IntermediateCerts, 1)
// Force a leader change and make sure the root CA values are preserved.
s1.Leave()
s1.Shutdown()
retry.Run(t, func(r *retry.R) {
var leader *Server
for _, s := range []*Server{s2, s3} {
if s.IsLeader() {
leader = s
break
}
}
if leader == nil {
r.Fatal("no leader")
}
_, newLeaderRoot := getCAProviderWithLock(leader)
if !reflect.DeepEqual(newLeaderRoot, root) {
r.Fatalf("got %v, want %v", newLeaderRoot, root)
}
})
}
func TestLeader_ParseCARoot(t *testing.T) {
type test struct {
name string
pem string
wantSerial uint64
wantSigningKeyID string
wantKeyType string
wantKeyBits int
wantErr bool
}
// Test certs generated with
// go run connect/certgen/certgen.go -out-dir /tmp/connect-certs -key-type ec -key-bits 384
// for various key types. This does limit the exposure to formats that might
// exist in external certificates which can be used as Connect CAs.
// Specifically many other certs will have serial numbers that don't fit into
// 64 bits but for reasons we truncate down to 64 bits which means our
// `SerialNumber` will not match the one reported by openssl. We should
// probably fix that at some point as it seems like a big footgun but it would
// be a breaking API change to change the type to not be a JSON number and
// JSON numbers don't even support the full range of a uint64...
tests := []test{
{"no cert", "", 0, "", "", 0, true},
{
name: "default cert",
// Watchout for indentations they will break PEM format
pem: readTestData(t, "cert-with-ec-256-key.pem"),
// Based on `openssl x509 -noout -text` report from the cert
wantSerial: 8341954965092507701,
wantSigningKeyID: "97:4D:17:81:64:F8:B4:AF:05:E8:6C:79:C5:40:3B:0E:3E:8B:C0:AE:38:51:54:8A:2F:05:DB:E3:E8:E4:24:EC",
wantKeyType: "ec",
wantKeyBits: 256,
wantErr: false,
},
{
name: "ec 384 cert",
// Watchout for indentations they will break PEM format
pem: readTestData(t, "cert-with-ec-384-key.pem"),
// Based on `openssl x509 -noout -text` report from the cert
wantSerial: 2935109425518279965,
wantSigningKeyID: "0B:A0:88:9B:DC:95:31:51:2E:3D:D4:F9:42:D0:6A:A0:62:46:82:D2:7C:22:E7:29:A9:AA:E8:A5:8C:CF:C7:42",
wantKeyType: "ec",
wantKeyBits: 384,
wantErr: false,
},
{
name: "rsa 4096 cert",
// Watchout for indentations they will break PEM format
pem: readTestData(t, "cert-with-rsa-4096-key.pem"),
// Based on `openssl x509 -noout -text` report from the cert
wantSerial: 5186695743100577491,
wantSigningKeyID: "92:FA:CC:97:57:1E:31:84:A2:33:DD:9B:6A:A8:7C:FC:BE:E2:94:CA:AC:B3:33:17:39:3B:B8:67:9B:DC:C1:08",
wantKeyType: "rsa",
wantKeyBits: 4096,
wantErr: false,
},
}
for _, tt := range tests {
t.Run(tt.name, func(t *testing.T) {
require := require.New(t)
root, err := parseCARoot(tt.pem, "consul", "cluster")
if tt.wantErr {
require.Error(err)
return
}
require.NoError(err)
require.Equal(tt.wantSerial, root.SerialNumber)
require.Equal(strings.ToLower(tt.wantSigningKeyID), root.SigningKeyID)
require.Equal(tt.wantKeyType, root.PrivateKeyType)
require.Equal(tt.wantKeyBits, root.PrivateKeyBits)
})
}
}
func readTestData(t *testing.T, name string) string {
t.Helper()
path := filepath.Join("testdata", name)
bs, err := ioutil.ReadFile(path)
if err != nil {
t.Fatalf("failed reading fixture file %s: %s", name, err)
}
return string(bs)
}
func TestLeader_lessThanHalfTimePassed(t *testing.T) {
now := time.Now()
require.False(t, lessThanHalfTimePassed(now, now.Add(-10*time.Second), now.Add(-5*time.Second)))
require.False(t, lessThanHalfTimePassed(now, now.Add(-10*time.Second), now))
require.False(t, lessThanHalfTimePassed(now, now.Add(-10*time.Second), now.Add(5*time.Second)))
require.False(t, lessThanHalfTimePassed(now, now.Add(-10*time.Second), now.Add(10*time.Second)))
require.True(t, lessThanHalfTimePassed(now, now.Add(-10*time.Second), now.Add(20*time.Second)))
}
func TestLeader_retryLoopBackoffHandleSuccess(t *testing.T) {
if testing.Short() {
t.Skip("too slow for testing.Short")
}
type test struct {
desc string
loopFn func() error
abort bool
timedOut bool
}
success := func() error {
return nil
}
failure := func() error {
return fmt.Errorf("test error")
}
tests := []test{
{"loop without error and no abortOnSuccess keeps running", success, false, true},
{"loop with error and no abortOnSuccess keeps running", failure, false, true},
{"loop without error and abortOnSuccess is stopped", success, true, false},
{"loop with error and abortOnSuccess keeps running", failure, true, true},
}
for _, tc := range tests {
tc := tc
t.Run(tc.desc, func(t *testing.T) {
ctx, cancel := context.WithTimeout(context.Background(), 50*time.Millisecond)
defer cancel()
retryLoopBackoffHandleSuccess(ctx, tc.loopFn, func(_ error) {}, tc.abort)
select {
case <-ctx.Done():
if !tc.timedOut {
t.Fatal("should not have timed out")
}
default:
if tc.timedOut {
t.Fatal("should have timed out")
}
}
})
}
}
func TestLeader_Vault_BadCAConfigShouldntPreventLeaderEstablishment(t *testing.T) {
ca.SkipIfVaultNotPresent(t)
testVault := ca.NewTestVaultServer(t)
defer testVault.Stop()
_, s1 := testServerWithConfig(t, func(c *Config) {
c.Build = "1.9.1"
c.PrimaryDatacenter = "dc1"
c.CAConfig = &structs.CAConfiguration{
Provider: "vault",
Config: map[string]interface{}{
"Address": testVault.Addr,
"Token": "not-the-root",
"RootPKIPath": "pki-root/",
"IntermediatePKIPath": "pki-intermediate/",
},
}
})
defer s1.Shutdown()
waitForLeaderEstablishment(t, s1)
rootsList, activeRoot, err := getTestRoots(s1, "dc1")
require.NoError(t, err)
require.Empty(t, rootsList.Roots)
require.Nil(t, activeRoot)
// Now that the leader is up and we have verified that there are no roots / CA init failed,
// verify that we can reconfigure away from the bad configuration.
newConfig := &structs.CAConfiguration{
Provider: "vault",
Config: map[string]interface{}{
"Address": testVault.Addr,
"Token": testVault.RootToken,
"RootPKIPath": "pki-root/",
"IntermediatePKIPath": "pki-intermediate/",
},
}
{
args := &structs.CARequest{
Datacenter: "dc1",
Config: newConfig,
}
var reply interface{}
retry.Run(t, func(r *retry.R) {
require.NoError(r, s1.RPC("ConnectCA.ConfigurationSet", args, &reply))
})
}
rootsList, activeRoot, err = getTestRoots(s1, "dc1")
require.NoError(t, err)
require.NotEmpty(t, rootsList.Roots)
require.NotNil(t, activeRoot)
}
func TestLeader_Consul_BadCAConfigShouldntPreventLeaderEstablishment(t *testing.T) {
ca.SkipIfVaultNotPresent(t)
_, s1 := testServerWithConfig(t, func(c *Config) {
c.Build = "1.9.1"
c.PrimaryDatacenter = "dc1"
c.CAConfig = &structs.CAConfiguration{
Provider: "consul",
Config: map[string]interface{}{
"RootCert": "garbage",
},
}
})
defer s1.Shutdown()
waitForLeaderEstablishment(t, s1)
rootsList, activeRoot, err := getTestRoots(s1, "dc1")
require.NoError(t, err)
require.Empty(t, rootsList.Roots)
require.Nil(t, activeRoot)
newConfig := &structs.CAConfiguration{
Provider: "consul",
Config: map[string]interface{}{},
}
{
args := &structs.CARequest{
Datacenter: "dc1",
Config: newConfig,
}
var reply interface{}
retry.Run(t, func(r *retry.R) {
require.NoError(r, s1.RPC("ConnectCA.ConfigurationSet", args, &reply))
})
}
rootsList, activeRoot, err = getTestRoots(s1, "dc1")
require.NoError(t, err)
require.NotEmpty(t, rootsList.Roots)
require.NotNil(t, activeRoot)
}
func TestLeader_Consul_ForceWithoutCrossSigning(t *testing.T) {
require := require.New(t)
dir1, s1 := testServer(t)
defer os.RemoveAll(dir1)
defer s1.Shutdown()
codec := rpcClient(t, s1)
defer codec.Close()
waitForLeaderEstablishment(t, s1)
// Get the current root
rootReq := &structs.DCSpecificRequest{
Datacenter: "dc1",
}
var rootList structs.IndexedCARoots
require.Nil(msgpackrpc.CallWithCodec(codec, "ConnectCA.Roots", rootReq, &rootList))
require.Len(rootList.Roots, 1)
oldRoot := rootList.Roots[0]
// Update the provider config to use a new private key, which should
// cause a rotation.
_, newKey, err := connect.GeneratePrivateKey()
require.NoError(err)
newConfig := &structs.CAConfiguration{
Provider: "consul",
Config: map[string]interface{}{
"LeafCertTTL": "500ms",
"PrivateKey": newKey,
"RootCert": "",
"SkipValidate": true,
},
ForceWithoutCrossSigning: true,
}
{
args := &structs.CARequest{
Datacenter: "dc1",
Config: newConfig,
}
var reply interface{}
require.NoError(msgpackrpc.CallWithCodec(codec, "ConnectCA.ConfigurationSet", args, &reply))
}
// Old root should no longer be active.
_, roots, err := s1.fsm.State().CARoots(nil)
require.NoError(err)
require.Len(roots, 2)
for _, r := range roots {
if r.ID == oldRoot.ID {
require.False(r.Active)
} else {
require.True(r.Active)
}
}
}
func TestLeader_Vault_ForceWithoutCrossSigning(t *testing.T) {
ca.SkipIfVaultNotPresent(t)
require := require.New(t)
testVault := ca.NewTestVaultServer(t)
defer testVault.Stop()
_, s1 := testServerWithConfig(t, func(c *Config) {
c.Build = "1.9.1"
c.PrimaryDatacenter = "dc1"
c.CAConfig = &structs.CAConfiguration{
Provider: "vault",
Config: map[string]interface{}{
"Address": testVault.Addr,
"Token": testVault.RootToken,
"RootPKIPath": "pki-root/",
"IntermediatePKIPath": "pki-intermediate/",
},
}
})
defer s1.Shutdown()
codec := rpcClient(t, s1)
defer codec.Close()
waitForLeaderEstablishment(t, s1)
// Get the current root
rootReq := &structs.DCSpecificRequest{
Datacenter: "dc1",
}
var rootList structs.IndexedCARoots
require.Nil(msgpackrpc.CallWithCodec(codec, "ConnectCA.Roots", rootReq, &rootList))
require.Len(rootList.Roots, 1)
oldRoot := rootList.Roots[0]
// Update the provider config to use a new PKI path, which should
// cause a rotation.
newConfig := &structs.CAConfiguration{
Provider: "vault",
Config: map[string]interface{}{
"Address": testVault.Addr,
"Token": testVault.RootToken,
"RootPKIPath": "pki-root-2/",
"IntermediatePKIPath": "pki-intermediate/",
},
ForceWithoutCrossSigning: true,
}
{
args := &structs.CARequest{
Datacenter: "dc1",
Config: newConfig,
}
var reply interface{}
require.NoError(msgpackrpc.CallWithCodec(codec, "ConnectCA.ConfigurationSet", args, &reply))
}
// Old root should no longer be active.
_, roots, err := s1.fsm.State().CARoots(nil)
require.NoError(err)
require.Len(roots, 2)
for _, r := range roots {
if r.ID == oldRoot.ID {
require.False(r.Active)
} else {
require.True(r.Active)
}
}
}