reafactor code fences to use proper language or command shortcode

Author: alexrashed

content/en/docs/Integrations/architect/index.md

@@ -17,11 +17,12 @@ If you are adapting an existing configuration, you might be able to skip certain
 ## Example
 
 ### Setup
-To use Architect in conjunction with Localstack, simply install the ```arclocal``` command (sources can be found [here](https://github.com/localstack/architect-local)).
-```
-npm install -g architect-local @architect/architect aws-sdk
-```
-The ``` arclocal``` command has the same usage as the ```arc``` command, so you can start right away.
+To use Architect in conjunction with Localstack, simply install the `arclocal` command (sources can be found [here](https://github.com/localstack/architect-local)).
+{{< command >}}
+$ npm install -g architect-local @architect/architect aws-sdk
+{{< /command >}}
+
+The `arclocal` command has the same usage as the `arc` command, so you can start right away.
 
 Create a test directory
 

content/en/docs/Integrations/pulumi/index.md

@@ -52,8 +52,8 @@ Installing dependencies...
 
 This will create the following directory structure.
 
-```language
- % tree -L 1
+{{< command >}}
+$ tree -L 1
 .
 ├── index.ts
 ├── node_modules
@@ -62,7 +62,7 @@ This will create the following directory structure.
 ├── Pulumi.dev.yaml
 ├── Pulumi.yaml
 └── tsconfig.json
-```
+{{< / command >}}
 
 Now edit your stack configuration `Pulumi.dev.yaml` as follows:
 

content/en/docs/Integrations/spring-cloud-function/index.md

@@ -245,7 +245,7 @@ Let's configure it to lookup our function Beans by HTTP method and path, create
 new `application.properties` file under `src/main/resources/application.properties`
 with the following content:
 
-```properties
+```env
 spring.main.banner-mode=off
 spring.cloud.function.definition=functionRouter
 spring.cloud.function.routing-expression=headers['httpMethod'].concat(' ').concat(headers['path'])

content/en/docs/Integrations/terraform/index.md

@@ -34,7 +34,7 @@ The following changes go into this file.
 
 First, we have to specify mock credentials for the AWS provider:
 
-```
+```hcl
 provider "aws" {
   
   access_key = "test"
@@ -48,7 +48,7 @@ provider "aws" {
 Second, we need to avoid issues with routing and authentication (as we do not need it).
 Therefore we need to supply some general parameters:
 
-```
+```hcl
 provider "aws" {
   
   access_key                  = "test"
@@ -66,7 +66,7 @@ provider "aws" {
 Additionally, we have to point the individual services to LocalStack.
 In case of S3, this looks like the following snippet
 
-```
+```hcl
   endpoints {
     s3             = "http://localhost:4566"
   }
@@ -79,7 +79,7 @@ In case of S3, this looks like the following snippet
 ### S3 Bucket
 
 Now we are adding a minimal s3 bucket outside the provider
-```
+```hcl
 resource "aws_s3_bucket" "test-bucket" {
   bucket = "my-bucket"
 }
@@ -89,7 +89,7 @@ resource "aws_s3_bucket" "test-bucket" {
 ### Final Configuration
 
 The final (minimal) configuration to deploy an s3 bucket thus looks like this
-```
+```hcl
 provider "aws" {
   
   access_key                  = "mock_access_key"
@@ -128,7 +128,7 @@ $ terraform deploy
 
 Here is a configuration example with additional endpoints:
 
-```
+```hcl
 provider "aws" {
   access_key                  = "test"
   secret_key                  = "test"

content/en/docs/Local AWS Services/cognito/index.md

@@ -17,7 +17,7 @@ LocalStack Pro contains basic support for authentication via Cognito. You can cr
 {{< /alert >}}
 
 First, start up LocalStack. In addition to the normal setup, we need to pass several SMTP settings as environment variables.
-```
+```env
 SMTP_HOST=<smtp-host-address>
 SMTP_USER=<email-user-name>
 SMTP_PASS=<email-password>
@@ -28,12 +28,12 @@ Don't forget to pass Cognito as a service as well.
 ## Creating a User Pool
 
 Just as with aws, you can create a User Pool in LocalStack via 
-```
-awslocal cognito-idp create-user-pool --pool-name test
-```
+{{< command >}}
+$ awslocal cognito-idp create-user-pool --pool-name test
+{{< /command >}}
 The response should look similar to this
 
-```
+```json
 "UserPool": {
         "Id": "us-east-1_fd924693e9b04f549f989283123a29c2",
         "Name": "test",
@@ -60,28 +60,31 @@ The response should look similar to this
             "AllowAdminCreateUserOnly": false
         },
         "Arn": "arn:aws:cognito-idp:us-east-1:000000000000:userpool/us-east-1_fd924693e9b04f549f989283123a29c2"
+}
 ```
-We will need the pool-id for further operations, so save it in a ```pool_id``` variable.
+We will need the pool-id for further operations, so save it in a `pool_id` variable.
 Alternatively, you can also use a JSON processor like [jq](https://stedolan.github.io/jq/) to directly extract the necessary information when creating a pool.
-```
-pool_id=$(awslocal cognito-idp create-user-pool --pool-name test | jq -rc ".UserPool.Id")
-```
+
+{{< command >}}
+$ pool_id=$(awslocal cognito-idp create-user-pool --pool-name test | jq -rc ".UserPool.Id")
+{{< /command >}}
+
 ## Adding a Client
 
 Now we add a client to our newly created pool. We will also need the ID of the created client for the next step. The complete command for client creation with subsequent ID extraction is therefore
 
-```
-client_id=$(awslocal cognito-idp create-user-pool-client --user-pool-id $pool_id --client-name test-client | jq -rc ".UserPoolClient.ClientId")
-```
+{{< command >}}
+$ client_id=$(awslocal cognito-idp create-user-pool-client --user-pool-id $pool_id --client-name test-client | jq -rc ".UserPoolClient.ClientId")
+{{< /command >}}
 
 ## Signing up and confirming a user
 
 With these steps already taken, we can now sign up a user.
-```
-awslocal cognito-idp sign-up --client-id $client_id --username example_user --password 12345678 --user-attributes Name=email,Value=<[email protected]>
-```
+{{< command >}}
+$ awslocal cognito-idp sign-up --client-id $client_id --username example_user --password 12345678 --user-attributes Name=email,Value=<[email protected]>
+{{< /command >}}
 The response should look similar to this
-```
+```json
 {
     "UserConfirmed": false,
     "UserSub": "5fdbe1d5-7901-4fee-9d1d-518103789c94"
@@ -91,17 +94,17 @@ and you should have received a new e-mail!
 
 As you can see, our user is still unconfirmed. We can change this with the following instruction.
 
-```
-awslocal cognito-idp confirm-sign-up --client-id $client_id --username example_user --confirmation-code <received-confirmation-code>
-```
+{{< command >}}
+$ awslocal cognito-idp confirm-sign-up --client-id $client_id --username example_user --confirmation-code <received-confirmation-code>
+{{< /command >}}
 The verification code for the user is in the e-mail you received. Additionally, LocalStack prints out the verification code in the console.
 
 The above command doesn't return an answer, you need to check the pool to see that it was successful
-```
-awslocal cognito-idp list-users --user-pool-id $pool_id 
-```
+{{< command >}}
+$ awslocal cognito-idp list-users --user-pool-id $pool_id 
+{{< /command >}}
 which should return something similar to this
-<pre>
+```json {hl_lines=[20]}
 {
     "Users": [
         {
@@ -121,12 +124,11 @@ which should return something similar to this
                 }
             ],
             "Enabled": true,
-            <b>"UserStatus": "CONFIRMED"</b>
+            "UserStatus": "CONFIRMED"
         }
     ]
 }
-
-</pre>
+```
 
 ## OAuth Flows via Cognito Login Form
 

content/en/docs/Local AWS Services/elasticsearch/index.md

@@ -72,7 +72,6 @@ In the LocalStack log you will see something like
 2021-10-01T21:14:27:INFO:localstack.services.install: Installing Elasticsearch plugin analysis-stempel
 2021-10-01T21:14:45:INFO:localstack.services.install: Installing Elasticsearch plugin analysis-ukrainian
 2021-10-01T21:15:01:INFO:localstack.services.es.cluster: starting elasticsearch: /opt/code/localstack/localstack/infra/elasticsearch/bin/elasticsearch -E http.port=59237 -E http.publish_port=59237 -E transport.port=0 -E network.host=127.0.0.1 -E http.compression=false -E path.data="/opt/code/localstack/localstack/infra/elasticsearch/data" -E path.repo="/tmp/localstack/es_backup" -E xpack.ml.enabled=false with env {'ES_JAVA_OPTS': '-Xms200m -Xmx600m', 'ES_TMPDIR': '/opt/code/localstack/localstack/infra/elasticsearch/tmp'}
-
 ```
 
 and after some time, you should see that the `Created` state of the domain is set to `true`:

content/en/docs/Local AWS Services/glue/index.md

@@ -68,7 +68,7 @@ For a more detailed example illustrating how to run a local Glue PySpark job, pl
 The Glue data catalog is integrated with Athena, and the database/table definitions can be imported via the `import-catalog-to-glue` API.
 
 Assume you are running the following Athena queries to create databases and table definitions:
-```
+```sql
 CREATE DATABASE db2
 CREATE EXTERNAL TABLE db2.table1 (a1 Date, a2 STRING, a3 INT) LOCATION 's3://test/table1'
 CREATE EXTERNAL TABLE db2.table2 (a1 Date, a2 STRING, a3 INT) LOCATION 's3://test/table2'

content/en/docs/LocalStack Tools/Lambda Tools/debugging.md.bak

@@ -38,11 +38,11 @@ There, the necessary code fragments for enabling debugging are already present.
 ### Configure LocalStack for remote Python debugging
 
 First, make sure that LocalStack is started with the following configuration (see the [Configuration docs]({{< ref "configuration#lambda" >}}) for more information):
-```sh
-LAMBDA_REMOTE_DOCKER=0 \
+{{< command >}}
+$ LAMBDA_REMOTE_DOCKER=0 \
     LAMBDA_DOCKER_FLAGS='-p 19891:19891' \
     DEBUG=1 localstack start
-```
+{{< /command >}}
 
 ### Preparing your code
 
@@ -86,19 +86,19 @@ To create the Lambda function, you just need to take care of two things:
 
 So, in our [example](https://github.com/localstack/localstack-pro-samples/tree/master/lambda-mounting-and-debugging), this would be:
 
-```sh
-awslocal lambda create-function --function-name my-cool-local-function \
+{{< command >}}
+$ awslocal lambda create-function --function-name my-cool-local-function \
     --code S3Bucket="__local__",S3Key="$(pwd)/" \
     --handler handler.handler \
     --runtime python3.8 \
     --role cool-stacklifter
-```
+{{< /command >}}
 
 We can quickly verify that it works by invoking it with a simple payload:
 
-```sh
-awslocal lambda invoke --function-name my-cool-local-function --payload '{"message": "Hello from LocalStack!"}' output.txt
-```
+{{< command >}}
+$ awslocal lambda invoke --function-name my-cool-local-function --payload '{"message": "Hello from LocalStack!"}' output.txt
+{{< /command >}}
 
 ### Configuring Visual Studio Code for remote Python debugging
 

content/en/docs/LocalStack Tools/Lambda Tools/debugging/index.md

@@ -37,9 +37,9 @@ The main advantage of this mode is, that no DNS magic is involved, and SSL certi
 
 ## Configuration
 
-If you want to disable this behavior, and use the DNS server to resolve the endpoints for AWS, you can disable this behavior using:
+If you want to disable this behavior, and use the DNS server to resolve the endpoints for AWS, you can disable this behavior by using:
 
-```
+```bash
 TRANSPARENT_LOCAL_ENDPOINTS=0
 ```