Deploying IBM Blockchain Platform v2.1.3 behind a firewall
Important: You are not looking at the latest product documentation. Make sure you are reading the documentation that matches the version of the software that you are using. Switch to product version 2.1.2, 2.1.3 2.5 /a>, 2.5.1, 2.5.2 (latest)
You can use these instructions to deploy IBM Blockchain Platform v2.1.3 behind a firewall without internet connectivity. If you are deploying the platform on a cluster with access to the external internet, use the main instructions for Deploying IBM Blockchain Platform v2.1.3.
You can use the following instructions to deploy the IBM® Blockchain Platform v2.1.3 on any x86_64 Kubernetes cluster running at v1.14 - v1.16 or on s390x on IBM Cloud Private v3.2.1 running LinuxONE. Use these instructions if you are using distributions such as Rancher or IBM Cloud Private. The IBM Blockchain Platform uses a Kubernetes Operator to install the IBM Blockchain Platform console on your cluster and manage the deployment and your blockchain nodes. When the IBM Blockchain Platform console is running on your cluster, you can use the console to create blockchain nodes and operate a multicloud blockchain network.
Need to Know
If you are deploying the IBM Blockchain Platform behind a firewall, without access to the public internet, your JavaScript, or TypeScript chaincode will not be able to download external dependencies when the chaincode is instantiated. You need to point to a local NPM registry for your chaincode to access the required dependencies. This problem does not occur if you are using chaincode that are written in Go.
- After you deploy your peer and ordering nodes, you need to expose the ports of your nodes for your network to be able to respond to requests from applications or nodes outside your firewall. For more information about the ports that you need to expose, see Internet Ports in the security guide.
Resources required
Ensure that your Kubernetes cluster has sufficient resources for the IBM Blockchain console and for the blockchain nodes that you create. The amount of resources that are required can vary depending on your infrastructure, network design, and performance requirements. To help you deploy a cluster of the appropriate size, the default CPU, memory, and storage requirements for each component type are provided in this table. Your actual resource allocations are visible in your blockchain console when you deploy a node and can be adjusted at deployment time or after deployment according to your business needs.
| Component (all containers) | CPU** | Memory (GB) | Storage (GB) |
|---|---|---|---|
| Peer | 1.1 | 2.8 | 200 (includes 100 GB for peer and 100 GB for state DB) |
| CA | 0.1 | 0.2 | 20 |
| Ordering node | 0.35 | 0.7 | 100 |
| Console | 1.2 | 2.4 | 10 |
| Operator | 0.1 | 0.2 | 0 |
** These values can vary slightly. Actual VPC allocations are visible in the blockchain console when a node is deployed.
Browsers
The IBM Blockchain Platform console has been successfully tested on the following browsers:
- Chrome Version 81.0.4044.122 (Official Build) (64-bit)
- Firefox (non-ESR): Version 69.0.1
- Safari Version 13.0.3 (15608.3.10.1.4)
Storage
IBM Blockchain Platform requires persistent storage for each CA, peer, and ordering node that you deploy, in addition to the storage required by the IBM Blockchain console. The IBM Blockchain Platform console uses dynamic provisioning to allocate storage for each blockchain node that you deploy by using a pre-defined storage class.
Before you deploy the IBM Blockchain Platform console, you must create a storage class with enough backing storage for the IBM Blockchain console and the nodes that you create. You can set this storage class to the default storage class of your
Kubernetes cluster or create a new class that is used by the IBM Blockchain Platform console. If you are using a multizone cluster, then you must configure the default storage class for each zone. After you create the storage class, run the command
kubectl patch storageclass to set the storage class of the multizone region to be the default storage class.
If you prefer not to choose a persistent storage option, the default storage class of your Kubernetes cluster is used.
Get your entitlement key
When you purchase the IBM Blockchain Platform from PPA, you receive an entitlement key for the software is associated with your MyIBM account. You need to access and save this key to deploy the platform.
-
Log in to MyIBM Container Software Library with the IBMid and password that are associated with the entitled software.
-
In the Entitlement keys section, select Copy key to copy the entitlement key to the clipboard.
Before you begin
-
The IBM Blockchain Platform can be installed only on the Supported Platforms.
-
You need to install and connect to your cluster by using the kubectl CLI to deploy the platform. If you are using IBM Cloud Private, install the IBM Cloud Private CLI 3.2.1. The IBM Cloud Private CLI includes the kubectl CLI.
-
If you are not running the platform on Red Hat OpenShift Container Platform, Red Hat Open Kubernetes Distribution, or IBM Cloud Private then you need to set up the NGINX Ingress controller and it needs to be running in SSL passthrough mode.
Pull the IBM Blockchain Platform images
You can download the complete set of IBM Blockchain Platform images from the IBM Entitlement Registry. To deploy the platform without access to the public internet, you need to pull the images from the IBM Registry and then push the images to a Docker registry that you can access from behind your firewall.
After you purchase the IBM Blockchain Platform, you can access the My IBM dashboard to obtain your entitlement key for the offering. You can then use this key to access the IBM Blockchain Platform images.
Use the following command to log in to the IBM Entitlement Registry:
docker login --username cp --password <KEY> cp.icr.io
- Replace
<KEY>with your entitlement key.
After you log in, use the following command to pull all of the component images of the IBM Blockchain Platform:
docker pull cp.icr.io/cp/ibp-operator:2.1.3-20200520-amd64
docker pull cp.icr.io/cp/ibp-init:2.1.3-20200520-amd64
docker pull cp.icr.io/cp/ibp-peer:1.4.6-20200520-amd64
docker pull cp.icr.io/cp/ibp-orderer:1.4.6-20200520-amd64
docker pull cp.icr.io/cp/ibp-ca:1.4.6-20200520-amd64
docker pull cp.icr.io/cp/ibp-dind:1.4.6-20200520-amd64
docker pull cp.icr.io/cp/ibp-console:2.1.3-20200520-amd64
docker pull cp.icr.io/cp/ibp-grpcweb:2.1.3-20200520-amd64
docker pull cp.icr.io/cp/ibp-utilities:1.4.6-20200520-amd64
docker pull cp.icr.io/cp/ibp-couchdb:2.3.1-20200520-amd64
docker pull cp.icr.io/cp/ibp-deployer:2.1.3-20200520-amd64
docker pull cp.icr.io/cp/ibp-fluentd:2.1.3-20200520-amd64
If you are deploying the platform on LinuxONE on s390x, replace amd64 in the image tag with s390x
After you download the images, you must change the image tags to refer to your Docker registry. Replace <LOCAL_REGISTRY> with the url of your local registry and run the following commands:
docker tag cp.icr.io/cp/ibp-operator:2.1.3-20200520-amd64 <LOCAL_REGISTRY>/ibp-operator:2.1.3-20200520-amd64
docker tag cp.icr.io/cp/ibp-init:2.1.3-20200520-amd64 <LOCAL_REGISTRY>/ibp-init:2.1.3-20200520-amd64
docker tag cp.icr.io/cp/ibp-peer:1.4.6-20200520-amd64 <LOCAL_REGISTRY>/ibp-peer:1.4.6-20200520-amd64
docker tag cp.icr.io/cp/ibp-orderer:1.4.6-20200520-amd64 <LOCAL_REGISTRY>/ibp-orderer:1.4.6-20200520-amd64
docker tag cp.icr.io/cp/ibp-ca:1.4.6-20200520-amd64 <LOCAL_REGISTRY>/ibp-ca:1.4.6-20200520-amd64
docker tag cp.icr.io/cp/ibp-dind:1.4.6-20200520-amd64 <LOCAL_REGISTRY>/ibp-dind:1.4.6-20200520-amd64
docker tag cp.icr.io/cp/ibp-console:2.1.3-20200520-amd64 <LOCAL_REGISTRY>/ibp-console:2.1.3-20200520-amd64
docker tag cp.icr.io/cp/ibp-grpcweb:2.1.3-20200520-amd64 <LOCAL_REGISTRY>/ibp-grpcweb:2.1.3-20200520-amd64
docker tag cp.icr.io/cp/ibp-utilities:1.4.6-20200520-amd64 <LOCAL_REGISTRY>/ibp-utilities:1.4.6-20200520-amd64
docker tag cp.icr.io/cp/ibp-couchdb:2.3.1-20200520-amd64 <LOCAL_REGISTRY>/ibp-couchdb:2.3.1-20200520-amd64
docker tag cp.icr.io/cp/ibp-deployer:2.1.3-20200520-amd64 <LOCAL_REGISTRY>/ibp-deployer:2.1.3-20200520-amd64
docker tag cp.icr.io/cp/ibp-fluentd:2.1.3-20200520-amd64 <LOCAL_REGISTRY>/ibp-fluentd:2.1.3-20200520-amd64
You can use the docker images command to check whether the new tags have been created. You can push the images with the new tags to your Docker registry. Log in to your registry by using the following command:
docker login --username <USER> --password <LOCAL_REGISTRY_PASSWORD> <LOCAL_REGISTRY>
- Replace
<USER>with your username - Replace
<LOCAL_REGISTRY_PASSWORD>with the password to your registry. - Replace
<LOCAL_REGISTRY>with the url of your local registry.
Then, run the following command to push the images. Replace <LOCAL_REGISTRY> with the url of your local registry.
docker push <LOCAL_REGISTRY>/ibp-operator:2.1.3-20200520-amd64
docker push <LOCAL_REGISTRY>/ibp-init:2.1.3-20200520-amd64
docker push <LOCAL_REGISTRY>/ibp-peer:1.4.6-20200520-amd64
docker push <LOCAL_REGISTRY>/ibp-orderer:1.4.6-20200520-amd64
docker push <LOCAL_REGISTRY>/ibp-ca:1.4.6-20200520-amd64
docker push <LOCAL_REGISTRY>/ibp-dind:1.4.6-20200520-amd64
docker push <LOCAL_REGISTRY>/ibp-console:2.1.3-20200520-amd64
docker push <LOCAL_REGISTRY>/ibp-grpcweb:2.1.3-20200520-amd64
docker push <LOCAL_REGISTRY>/ibp-utilities:1.4.6-20200520-amd64
docker push <LOCAL_REGISTRY>/ibp-couchdb:2.3.1-20200520-amd64
docker push <LOCAL_REGISTRY>/ibp-deployer:2.1.3-20200520-amd64
docker push <LOCAL_REGISTRY>/ibp-fluentd:2.1.3-20200520-amd64
After you complete these steps, you can use the following instructions to deploy the IBM Blockchain Platform with the images in your registry.
Log in to your Kubernetes cluster
Before you can complete the next steps, you need to log in to your cluster by using the kubectl CLI. Follow the instructions for logging in to your cluster. If you are using IBM Cloud Private, you can log in to your cluster by using the following command:
cloudctl login -a https://<cluster_CA_domain>:8443 --skip-ssl-validation
If the command is successful, you can see the list of the namespaces in your cluster from your terminal by running the following command:
kubectl get pods
If successful, you can see the pods that are running in your default namespace:
docker-registry-7d8875c7c5-5fv5j 1/1 Running 0 7d
docker-registry-7d8875c7c5-x8dfq 1/1 Running 0 7d
registry-console-6c74fc45f9-nl5nw 1/1 Running 0 7d
router-6cc88df47c-hqjmk 1/1 Running 0 7d
router-6cc88df47c-mwzbq 1/1 Running 0 7d
Create a new namespace
After you connect to your cluster, create a new namespace for your deployment of the IBM Blockchain Platform. You can create a namespace by using the kubectl CLI. The namespace needs to be created by a cluster administrator.
If you are using the CLI, create a new namespace by the following command:
kubectl create namespace <NAMESPACE>
Replace <NAMESPACE> with the name of your namespace.
It is required that you create a namespace for each blockchain network that you deploy with the IBM Blockchain Platform. For example, if you plan to create different networks for development, staging, and production, then you need to create a unique namespace for each environment. Using a separate namespace provides each network with separate resources and allows you to set unique access policies for each network. You need to follow these deployment instructions to deploy a separate operator and console for each namespace.
You can also use the CLI to find the available storage classes for your namespace. If you created a new storage class for your deployment, that storage class must be visible in the output in the following command:
kubectl get storageclasses
Add security and access policies
The IBM Blockchain Platform requires specific security and access policies to be added to your namespace. The contents of a set of .yaml files are provided here for you to copy and edit to define the security policies. You must save
these files to your local system and then add them your namespace by using the kubectl CLI. These steps need to be completed by a cluster administrator. Also, be aware that the peer init and dind containers that get deployed
are required to run in privileged mode.
Apply the Pod Security Policy
Copy the PodSecurityPolicy object below and save it to your local system as ibp-psp.yaml.
If you are running Kubernetes v1.16, you need to change the line apiVersion: extensions/v1beta1 in the following PodSecurityPolicy object to apiVersion: policy/v1beta1.
apiVersion: extensions/v1beta1
kind: PodSecurityPolicy
metadata:
name: ibm-blockchain-platform-psp
spec:
hostIPC: false
hostNetwork: false
hostPID: false
privileged: true
allowPrivilegeEscalation: true
readOnlyRootFilesystem: false
seLinux:
rule: RunAsAny
supplementalGroups:
rule: RunAsAny
runAsUser:
rule: RunAsAny
fsGroup:
rule: RunAsAny
requiredDropCapabilities:
- ALL
allowedCapabilities:
- NET_BIND_SERVICE
- CHOWN
- DAC_OVERRIDE
- SETGID
- SETUID
- FOWNER
volumes:
- '*'
After you save and edit the file, run the following commands to add the file to your cluster and add the policy to your namespace.
kubectl apply -f ibp-psp.yaml
Apply the ClusterRole
Copy the following text to a file on your local system and save the file as ibp-clusterrole.yaml. This file defines the required ClusterRole for the PodSecurityPolicy. Edit the file and replace <NAMESPACE> with the
name of your namespace.
apiVersion: rbac.authorization.k8s.io/v1
kind: ClusterRole
metadata:
creationTimestamp: null
name: <NAMESPACE>
rules:
- apiGroups:
- extensions
resourceNames:
- ibm-blockchain-platform-psp
resources:
- podsecuritypolicies
verbs:
- use
- apiGroups:
- "*"
resources:
- pods
- services
- endpoints
- persistentvolumeclaims
- persistentvolumes
- events
- configmaps
- secrets
- ingresses
- roles
- rolebindings
- serviceaccounts
- nodes
verbs:
- '*'
- apiGroups:
- ""
resources:
- namespaces
- nodes
verbs:
- 'get'
- apiGroups:
- apiextensions.k8s.io
resources:
- persistentvolumeclaims
- persistentvolumes
- customresourcedefinitions
verbs:
- '*'
- apiGroups:
- ibp.com
resources:
- '*'
- ibpservices
- ibpcas
- ibppeers
- ibpfabproxies
- ibporderers
verbs:
- '*'
- apiGroups:
- ibp.com
resources:
- '*'
verbs:
- '*'
- apiGroups:
- apps
resources:
- deployments
- daemonsets
- replicasets
- statefulsets
verbs:
- '*'
After you save and edit the file, run the following commands.
kubectl apply -f ibp-clusterrole.yaml
Apply the ClusterRoleBinding
Copy the following text to a file on your local system and save the file as ibp-clusterrolebinding.yaml. This file defines the ClusterRoleBinding. Edit the file and replace <NAMESPACE> with the name of your namespace.
kind: ClusterRoleBinding
apiVersion: rbac.authorization.k8s.io/v1
metadata:
name: <NAMESPACE>
subjects:
- kind: ServiceAccount
name: default
namespace: <NAMESPACE>
roleRef:
kind: ClusterRole
name: <NAMESPACE>
apiGroup: rbac.authorization.k8s.io
After you save and edit the file, run the following commands.
kubectl apply -f ibp-clusterrolebinding.yaml
Create the role binding
After applying the policies, you must grant your service account the required level of permissions to deploy your console. Run the following command with the name of your target namespace:
kubectl -n <NAMESPACE> create rolebinding ibp-operator-rolebinding --clusterrole=<NAMESPACE> --group=system:serviceaccounts:<NAMESPACE>
Create a secret for your entitlement key
After you push the IBM Blockchain Platform images to your own Docker registry, you need to store the password to that registry on your cluster by creating a Kubernetes Secret. Using a Kubernetes secret allows you to securely store the key on your cluster and pass it to the operator and the console deployments.
Run the following command to create the secret and add it to your namespace:
kubectl create secret docker-registry docker-key-secret --docker-server=<LOCAL_REGISTRY> --docker-username=<USER> --docker-password=<LOCAL_REGISTRY_PASSWORD> --docker-email=<EMAIL> -n <NAMESPACE>
- Replace
<USER>with your username - Replace
<EMAIL>with your email address. - Replace
<LOCAL_REGISTRY_PASSWORD>with the password to your registry. - Replace
<LOCAL_REGISTRY>with the url of your local registry. - Replace
<NAMESPACE>with the name of your namespace.
The name of the secret that you are creating is docker-key-secret. This value is used by the operator to deploy the offering in future steps. If you change the name of any of secrets that you create, you need to change the corresponding
name in future steps.
(IBM Cloud Private only) Create an image policy
If you are deploying on IBM Cloud Private, you must also create an image policy. Copy the following text to a file on your local system and save the file as image-policy.yaml.
apiVersion: securityenforcement.admission.cloud.ibm.com/v1beta1
kind: ImagePolicy
metadata:
name: image-policy
spec:
repositories:
- name: cp.icr.io/cp/*
policy: null
Then, use the kubectl CLI to add the image policy to your namespace.
kubectl apply -f image-policy.yaml -n <NAMESPACE>
Deploy the IBM Blockchain Platform operator
The IBM Blockchain Platform uses an operator to install the IBM Blockchain Platform console. You can deploy the operator on your cluster by adding a custom resource to your namespace by using the kubectl CLI. The custom resource pulls the operator image from the Docker registry and starts it on your cluster.
Copy the following text to a file on your local system and save the file as ibp-operator.yaml. You need to make different edits to the file depending on whether you are using open source Kubernetes and Rancher or whether you are using
IBM Cloud Private.
apiVersion: apps/v1
kind: Deployment
metadata:
name: ibp-operator
labels:
release: "operator"
helm.sh/chart: "ibm-ibp"
app.kubernetes.io/name: "ibp"
app.kubernetes.io/instance: "ibpoperator"
app.kubernetes.io/managed-by: "ibp-operator"
spec:
replicas: 1
strategy:
type: "Recreate"
selector:
matchLabels:
name: ibp-operator
template:
metadata:
labels:
name: ibp-operator
release: "operator"
helm.sh/chart: "ibm-ibp"
app.kubernetes.io/name: "ibp"
app.kubernetes.io/instance: "ibpoperator"
app.kubernetes.io/managed-by: "ibp-operator"
annotations:
productName: "IBM Blockchain Platform"
productID: "54283fa24f1a4e8589964e6e92626ec4"
productVersion: "2.1.3"
productChargedContainers: ""
productMetric: "VIRTUAL_PROCESSOR_CORE"
spec:
hostIPC: false
hostNetwork: false
hostPID: false
serviceAccountName: default
affinity:
nodeAffinity:
requiredDuringSchedulingIgnoredDuringExecution:
nodeSelectorTerms:
- matchExpressions:
- key: beta.kubernetes.io/arch
operator: In
values:
- amd64
imagePullSecrets:
- name: "docker-key-secret"
containers:
- name: ibp-operator
image: <LOCAL_REGISTRY>/ibp-operator:2.1.3-20200520-amd64
command:
- ibp-operator
imagePullPolicy: Always
securityContext:
privileged: false
allowPrivilegeEscalation: false
readOnlyRootFilesystem: false
runAsNonRoot: false
runAsUser: 1001
capabilities:
drop:
- ALL
add:
- CHOWN
- FOWNER
livenessProbe:
tcpSocket:
port: 8383
initialDelaySeconds: 10
timeoutSeconds: 5
failureThreshold: 5
readinessProbe:
tcpSocket:
port: 8383
initialDelaySeconds: 10
timeoutSeconds: 5
periodSeconds: 5
env:
- name: WATCH_NAMESPACE
valueFrom:
fieldRef:
fieldPath: metadata.namespace
- name: POD_NAME
valueFrom:
fieldRef:
fieldPath: metadata.name
- name: OPERATOR_NAME
value: "ibp-operator"
- name: CLUSTERTYPE
value: <CLUSTER_TYPE>
resources:
requests:
cpu: 100m
memory: 200Mi
limits:
cpu: 100m
memory: 200Mi
- Replace
<CLUSTER_TYPE>withK8Sif you are deploying the platform on open source Kubernetes or Rancher. - Replace
<CLUSTER_TYPE>withICPif you are deploying the platform on IBM Cloud Private. - If you are using IBM Cloud Private on LinuxONE (s390x), you need to make the following additional customizations:
- In the
spec.affinitysection, changeamd64tos390x. - In the
spec.containerssection, replaceamd64in the operatorimagestag withs390x.
- In the
- If you changed the name of the Docker key secret, then you need to edit the field of
name: docker-key-secret.
Then, use the kubectl CLI to add the custom resource to your namespace.
kubectl apply -f ibp-operator.yaml -n <NAMESPACE>
You can confirm that the operator deployed by running the command kubectl get deployment -n <NAMESPACE>. If your operator deployment is successful, then you can see the following tables with four ones displayed. The operator takes
about a minute to deploy.
NAME READY UP-TO-DATE AVAILABLE AGE
ibp-operator 1/1 1 1 1m
Deploy the IBM Blockchain Platform console
When the operator is running on your namespace, you can apply a custom resource to start the IBM Blockchain Platform console on your cluster. You can then access the console from your browser. You can deploy only one console per Kubernetes namespace.
Save the custom resource definition below as ibp-console.yaml on your local system.
apiVersion: ibp.com/v1alpha1
kind: IBPConsole
metadata:
name: ibpconsole
spec:
arch:
- amd64
license: accept
serviceAccountName: default
email: "<EMAIL>"
password: "<PASSWORD>"
registryURL: <LOCAL_REGISTRY>
imagePullSecret: "docker-key-secret"
networkinfo:
domain: <DOMAIN>
storage:
console:
class: default
size: 10Gi
You need to specify the external endpoint information of the console in the ibp-console.yaml file:
- Replace
<DOMAIN>with the name of your cluster domain. You need to make sure that this domain is pointed to the load balancer of your cluster.
If you are deploying the platform on IBM Cloud Private, you need to use a different console resource definition. Save the file below as ibp-console.yaml on your local system.
apiVersion: ibp.com/v1alpha1
kind: IBPConsole
metadata:
name: ibpconsole
spec:
arch:
- amd64
license: accept
serviceAccountName: default
email: "<EMAIL>"
password: "<PASSWORD>"
registryURL: <LOCAL_REGISTRY>
imagePullSecret: "docker-key-secret"
networkinfo:
domain: <DOMAIN>
consolePort: <CONSOLE_PORT>
proxyPort: <PROXY_PORT>
storage:
console:
class: default
size: 10Gi
You need to provide the following values to this file:
- Replace
<DOMAIN>with the Proxy IP address your cluster. You can retrieve the value your Proxy IP address from the IBM Cloud Private console. Note: You need to be a Cluster administrator to access your proxy IP. Log in to the IBM Cloud Private cluster. In the left navigation panel, click Platform and then Nodes to view the nodes that are defined in the cluster. Click the node with the roleproxyand then copy the value of theHost IPfrom the table. - Replace
<CONSOLE_PORT>with a number between 30000 and 32767. This port is used to access the Console UI from your browser. - Replace
<PROXY_PORT>with a number between 30000 and 32767. Select a different port than the one you selected for your console port. This port is used by the console to communicate with your blockchain nodes.
If you are deploying on IBM Cloud Private on LinuxONE (s390x), you need to replace the arch: field in the in the spec: section:
arch:
- amd64
with:
arch:
- s390x
For all platforms, you need to provide the user name and password that is used to access the console for the first time:
- Replace
<EMAIL>with the email address of the console administrator. - Replace
<PASSWORD>with the password of your choice. This password also becomes the default password of the console until it is changed.
You also need to make additional edits to the file depending on your choices in the deployment process:
- If you changed the name of your Docker key secret, change corresponding value of the
imagePullSecret:field. - If you created a new storage class for your network, provide the storage class that you created to the
class:field.
Because you can only run the following command once, you should review the Advanced deployment options in case any of the options are relevant to your configuration before you install the console. For example, if you are deploying your console on a multizone cluster, you need to configure that before you run the following step to install the console.
After you update the file, you can use the CLI to install the console.
kubectl apply -f ibp-console.yaml -n <NAMESPACE>
Replace <NAMESPACE> with the name of your namespace. Before you install the console, you might want to review the advanced deployment options in the next section. The console can take a few minutes to deploy.
Advanced deployment options
You can edit the ibp-console.yaml file to allocate more resources to your console or use zones for high availability in a multizone cluster. To take advantage of these deployment options, you can use the console resource definition
with the resources: and clusterdata: sections added:
apiVersion: ibp.com/v1alpha1
kind: IBPConsole
metadata:
name: ibpconsole
spec:
arch:
- amd64
license: accept
serviceAccountName: default
email: "<EMAIL>"
password: "<PASSWORD>"
imagePullSecret: "docker-key-secret"
registryURL: <LOCAL_REGISTRY>
networkinfo:
domain: <DOMAIN>
storage:
console:
class: default
size: 10Gi
clusterdata:
zones:
resources:
console:
requests:
cpu: 500m
memory: 1000Mi
limits:
cpu: 500m
memory: 1000Mi
configtxlator:
limits:
cpu: 25m
memory: 50Mi
requests:
cpu: 25m
memory: 50Mi
couchdb:
limits:
cpu: 500m
memory: 1000Mi
requests:
cpu: 500m
memory: 1000Mi
deployer:
limits:
cpu: 100m
memory: 200Mi
requests:
cpu: 100m
memory: 200Mi
-
You can use the
resources:section to allocate more resources to your console. The values in the example file are the default values allocated to each container. Allocating more resources to your console allows you to operate a larger number of nodes or channels. You can allocate more resources to a currently running console by editing the resource file and applying it to your cluster. The console will restart and return to its previous state, allowing you to operate all of your exiting nodes and channels.kubectl apply -f ibp-console.yaml -n <NAMESPACE> -
If you plan to use the console with a multizone Kubernetes cluster, you need to add the zones to the
clusterdata.zones:section of the file. When zones are provided to the deployment, you can select the zone that a node is deployed to using the console or the APIs. As an example, if you are deploying to a cluster across the zones of dal10, dal12, and dal13, you would add the zones to the file by using the format below.clusterdata: zones: - dal10 - dal12 - dal13When you finish editing the file, apply it to your cluster.
kubectl apply -f ibp-console.yaml -n <NAMESPACE>
Unlike the resource allocation, you cannot add zones to a running network. If you have already deployed a console and used it to create nodes on your cluster, you will lose your previous work. After the console restarts, you need to deploy new nodes.
Use your own TLS Certificates (Optional)
The IBM Blockchain Platform console uses TLS certificates to secure the communication between the console and your blockchain nodes and between the console and your browser. You have the option of creating your own TLS certificates and providing them to the console by using a Kubernetes secret. If you skip this step, the console creates its own self-signed TLS certificates during deployment.
This step needs to be performed before the console is deployed.
You can use a Certificate Authority or tool to create the TLS certificates for the console. The TLS certificate needs to include the hostname of the console and the proxy in the subject name or the alternative domain names. The console and proxy hostname are in the following format:
Console hostname: <NAMESPACE>-ibpconsole-console.<DOMAIN>
Proxy hostname: <NAMESPACE>-ibpconsole-proxy.<DOMAIN>
- Replace
<NAMESPACE>with the name of the Kubernetes namespace that you created. - Replace
<DOMAIN>with the name of your cluster domain.
Navigate to the TLS certificates that you plan to use on your local system. Name the TLS certificate tlscert.pem and the corresponding private key tlskey.pem. Run the following command to create the Kubernetes secret and
add it to your Kubernetes namespace. The TLS certificate and key need to be in PEM format.
kubectl create secret generic console-tls-secret --from-file=tls.crt=./tlscert.pem --from-file=tls.key=./tlskey.pem -n <NAMESPACE>
After you create the secret, add the following field to the spec: section of ibp-console.yaml with one indent added, at the same level as the resources: and clusterdata: sections of the advanced
deployment options. You must provide the name of the TLS secret that you created to the field. The following example deploys a console with the TLS certificate and key stored in a secret named "console-tls-secret":
apiVersion: ibp.com/v1alpha1
kind: IBPConsole
metadata:
name: ibpconsole
spec:
arch:
- amd64
license: accept
serviceAccountName: default
proxyIP:
email: "<EMAIL>"
password: "<PASSWORD>"
registryURL: <LOCAL_REGISTRY>
imagePullSecret: "docker-key-secret"
networkinfo:
domain: <DOMAIN>
consolePort: <CONSOLE_PORT>
proxyPort: <PROXY_PORT>
storage:
console:
class: default
size: 10Gi
tlsSecretName: "console-tls-secret"
clusterdata:
zones:
- dal10
- dal12
- dal13
When you finish editing the file, you can apply it to your cluster in order to secure communications with your own TLS certificates:
kubectl apply -f ibp-console.yaml -n <NAMESPACE>
Verifying the console installation
You can confirm that the operator deployed by running the command kubectl get deployment -n <NAMESPACE>. If your console deployment is successful, you can see ibpconsole added to the deployment table, with four ones
displayed. The console takes a few minutes to deploy. You might need to click refresh and wait for the table to be updated.
NAME READY UP-TO-DATE AVAILABLE AGE
ibp-operator 1/1 1 1 10m
ibpconsole 1/1 1 1 4m
The console consists of four containers that are deployed inside a single pod:
optools: The console UI.deployer: A tool that allows your console to communicate with your deployments.configtxlator: A tool used by the console to read and create channel updates.couchdb: An instance of CouchDB that stores the data from your console, including your authorization information.
If there is an issue with your deployment, you can view the logs from an individual container. First, run the following command to get the name of the console pod:
kubectl get pods -n <NAMESPACE>
Then, use the following command to get the logs from one of the four containers inside the pod:
kubectl logs -f <pod_name> <container_name> -n <NAMESPACE>
As an example, a command to get the logs from the UI container would look like the following example:
kubectl logs -f ibpconsole-55cf9db6cc-856nz console -n blockchain-project
Log in to the console
You can use your browser to access the console by using the console URL:
https://<NAMESPACE>-ibpconsole-console.<DOMAIN>:443
- Replace
<NAMESPACE>with the name of the namespace that you created. - Replace
<DOMAIN>with the name of your cluster domain. You passed this value to theDOMAIN:field of theibp-console.yamlfile.
Your console URL looks similar to the following example:
https://blockchain-project-ibpconsole-console.xyz.abc.com:443
If you are deploying the platform on IBM Cloud Private, you can access the console by browsing to the following URL:
https://<DOMAIN>:<CONSOLE_PORT>
- Replace
<DOMAIN>with the value of thedomain:field in theibp-console.yamlfile. - Replace
<CONSOLE_PORT>with the port that you specified in theconsolePort:in theibp-console.yamlfile.
Your console URL looks similar to the following example:
https://9.30.252.107:32615
If you navigate to the console URL in your browser, you can see the console log in screen:
- For the User ID, use the value you provided for the
email:field in theibp-console.yamlfile. - For the Password, use the value you encoded for the
password:field in theibp-console.yamlfile. This password becomes the default password for the console that all new users use to log in to the console. After you log in for the first time, you will be asked to provide a new password that you can use to log in to the console.
Ensure that you are not using the ESR version of Firefox. If you are, switch to another browser such as Chrome and log in.
The administrator who provisions the console can grant access to other users and restrict the actions they can perform. For more information, see Managing users from the console.
Next steps
When you access your console, you can view the nodes tab of your console UI. You can use this screen to deploy components on the cluster where you deployed the console. See the Build a network tutorial to get started with the console. You can also use this tab to operate nodes that are created on other clouds. For more information, see Importing nodes.
To learn how to manage the users that can access the console, view the logs of your console and your blockchain components, see Administering your console.