AWS IoT Remote Access & All About IoT Management Platform

Since 2016, Make An App Like has been a trusted technology publication covering cloud, AI, and IoT solutions used by developers and enterprises worldwide. Over the years, our experts have analyzed hundreds of AWS deployments and IoT frameworks, helping businesses manage connected devices securely. In this article, we’ll explain how AWS IoT Remote Access works, what the AWS IoT Management Platform includes, and how enterprises use it to control, monitor, and automate their IoT infrastructure at scale.

What Is AWS IoT Remote Access?

AWS IoT Remote Access allows developers and organizations to securely connect to, monitor, and manage IoT devices deployed across multiple locations. It provides a bridge between cloud applications and edge devices without exposing public endpoints.

Key Features

• Secure Connectivity: Uses mutual authentication and encryption to ensure device communication safety.
• Remote Debugging: Developers can log in remotely to troubleshoot and update firmware.
• Data Streaming: Real-time telemetry data sent directly to AWS services such as CloudWatch and S3.
• Device Commands: Execute functions remotely without requiring direct network access.
• Scalable Management: Handle thousands of devices through a single centralized dashboard.

In simple terms: AWS IoT Remote Access helps you monitor and control IoT devices anywhere, anytime, without manual on-site intervention.

Understanding the AWS IoT Management Platform

1. AWS IoT Core

This is the foundation of AWS IoT services. It securely connects IoT devices to the AWS Cloud.

• Supports MQTT, HTTP, and WebSockets for flexible connectivity.
• Enables real-time messaging between devices and cloud apps.
• Integrates with AWS Lambda, DynamoDB, and SageMaker for data processing and ML analytics.

2. AWS IoT Device Management

This module provides end-to-end lifecycle management for connected devices.

• Register, organize, and monitor devices at scale.
• Send over-the-air (OTA) updates and firmware patches.
• Automate provisioning and policy enforcement.
• Track metrics and performance health via the AWS console.

3. AWS IoT Greengrass

AWS IoT Greengrass extends cloud capabilities to local devices, allowing data processing at the edge.

• Run Lambda functions locally for faster response.
• Continue operations even when internet connectivity drops.
• Ideal for industries requiring real-time analytics such as manufacturing or energy.

4. AWS IoT SiteWise

This helps industrial companies collect, store, and visualize data from sensors and equipment.

• Build digital twins of assets.
• Analyze production performance metrics.
• Detect anomalies and reduce downtime.

5. AWS IoT Analytics & Events

These services handle data insights and event responses.

• IoT Analytics: Runs complex analysis on raw data to find trends.
• IoT Events: Detects and responds automatically to sensor-triggered conditions.

Benefits of Using AWS IoT Management Platform

• End-to-End Security: Device identity management, encryption, and policy-based control.
• Scalability: Manage thousands of devices with low latency.
• Interoperability: Connect with third-party systems and APIs.
• Automation: OTA updates, rule-based triggers, and auto-healing capabilities.
• Cost Efficiency: Pay-as-you-go model reduces upfront infrastructure costs.

Use Cases of AWS IoT Remote Access

• Smart Manufacturing: Monitor machines, reduce downtime, and predict failures.
• Smart Homes: Manage connected appliances via Alexa-enabled hubs.
• Fleet Management: Track and maintain vehicles remotely using IoT sensors.
• Healthcare: Remote monitoring of patient devices in real-time.
• Energy & Utilities: Optimize power grids and renewable systems using IoT analytics.

Welcome again to getting started with the top trending article on AWS IoT Remote Access & All About IoT Management Platform. My name is Greg brain and I’m an IoT specialist Solutions Architect with AWS.

In this article, we’ll cover secure tunneling, a feature of AWS IoT device management. When devices are deployed behind firewalls at remote sites, you often need a way to gain access to those devices for troubleshooting configuration updates and other operational tasks.

AWS Advanced and Premier Consulting Partners

Secure tunneling helps customers establish bi-directional communication to IoT remote devices over a secure connection that is managed by AWS IoT. Secure tunneling does not require updates to your existing inbound firewall rules, so you can maintain your existing security level.

In this article, I’ll present a demonstration of one particular use case of secure tunneling, namely an SSH connection to a Raspberry Pi.

The prerequisites shown here are for this particular demo, not the secure tunneling feature more generally. First, you need a Linux based device to use as your IoT thing, a Raspberry Pi or Linux PC is sufficient for the demo. Next, the device must have an SSH daemon running. If you wanted to, for example, use secure tunneling to access FTP, you would of course need an FTP server running.

Likewise, for any other service, your firewall must allow the device to have outbound traffic on Port 443, you need to have created a corresponding IoT thing in AWS IoT registry and save the keys in the certificates.

To use secure tunneling, your device needs to have AWS IoT secure tunneling local proxy. For this demo, I’ll be using AWS IoT device client. It’s an IoT reference implementation that includes support for secure tunneling. It has the AWS IoT secure tunneling local proxy baked in AWS IoT device client just makes it easy to get started with several AWS IoT device management and AWS IoT device Defender features, but it’s not required for using the secure tunneling feature in general. Nonetheless, to follow the demo, you’ll need to have downloaded the AWS IoT device client source code from GitHub, built it for your device, and configured it with the appropriate thing name certificates and private key.

We’ve provided a link to the GitHub repository in the video description. Finally, you need to have downloaded the AWS IoT secure tunneling local proxy source code from GitHub, and built it for your machine. We’ve also provided a link to that repository in the video description. Before we get started with the demo, let’s review how secure tunneling works. On the left, you’ll see a remote device or thing, which is considered the destination for the tunnel. In the middle, you have the AWS cloud with AWS IoT Core and AWS IoT device management. And on the right you have the operator who wants to execute a remote SSH session into the IoT thing.

The operator machine is considered the source of the tunnel. The local proxy command-line utility has been compiled and installed on the source the operator machine. Additionally, in the case of our demo, the AWS IoT device client has been compiled and installed on the destination. The device client includes local proxy and the AWS IoT device SDK for C++. Device client connects to IoT Core and subscribes to the reserved topic for the secure tunneling notifications. This notification is an optional feature that provides a convenient way of getting the access token to the destination’s local proxy. If you have an out-of-band way of delivering that token to your device, then your device doesn’t need to connect to IoT Core nor use this notification just to create a secure tunnel. First, the operator issues and open tunnel command to AWS IoT device management. This publishes a notification message through AWS IoT Core. The notification is received on the reserved topic that the thing is subscribed to. This notification message includes the destination access token.

• See developer documentation at – https://amzn.to/33agg8t
• See the AWS IoT Device Client GitHub repository at – https://bit.ly/33dNeF5
• See the Secure Tunneling local proxy GitHub repository at – https://bit.ly/33fH7QE

All About AWS IoT Remote Access

The AWS IoT device client uses the destination access token to initialize its embedded local proxy. This will initialize the local proxy in destination mode and connect the destination side of the tunnel. The operator downloads the source access token that is issued by the AWS console when the tunnel was opened.

Next, the operator uses that source access token to initialize the local proxy in source mode, and the source side of the tunnel is connected. With both sides of the tunnel connected, the operator can open the SSH session via the local proxy. Now I’ll show you how this works on the console. Okay, I’ll run the device client on my Raspberry Pi. OK, the device client is up and running, and is subscribing to the reserve topic for tunnel notifications. After you’ve logged into the management console, navigate to IoT Core. Then, device management and tunnels. Next, create a tunnel. Give it a description. Enter the service to be used, in this case SSH. Notice the add new service button, you can in fact use multiple services on the one tunnel. Select your thing, in my case Raspberry Pi four. Finally, enter a timeout. This is the duration the tunnel will be maintained before it is automatically disconnected. We’ll use 30 minutes, we’ll skip the resource tags and create the tunnel download the access token for source.

This will be used by the local proxy on your operator machine shortly. Returning to the device client output, we can observe that it received an MQ TT tunnel notification in the destination connection part of the tunnel was established. If we click through to the new tunnel on the AWS console, we can see that it’s open and that the destination is connected. Open a pair of terminal sessions on your machine, one for local proxy and one for your SSH client. Notice the local proxy command line options the AWS region in which the secure tunnel is located. The port on which the local proxy will listen for incoming connections. And finally, the source access token.

Get started with AWS IoT Remote Access & IoT device management?

We can refresh the AWS console and see that the secure tunnel has formed a connection on the source side now that local proxy is running. Next on my right-hand terminal session, we’ll initialize the SSH session, we need to connect to the local proxy on port 5555. The port on which it’s listening. The username is a user on your IoT device, in this case, my Raspberry Pi and its default user pi. Now that I’ve established my SSH session, I can securely troubleshoot, configure updates or perform a number of other operational tasks. I’m also free to disconnect and reconnect multiple times within the one open tunneled session. When you’re done, you can exit your SSH session by returning to the AWS console to close or delete your tunnel.

So again, in this Getting Started demo, we walked through how to open a tunnel in the AWS Management Console. Initiate the tunnel using the local proxy and access token. Connect both the destination in the source sides of the secure tunnel and then initiate the SSH session using the local proxy. To learn more, visit the AWS IoT device management webpage and also explore the secure tunneling developer documentation for a deeper dive on concepts and more advanced capabilities.

Conclusion

AWS IoT Remote Access and the broader AWS IoT Management Platform give organizations complete visibility and control over connected devices. From provisioning to analytics, AWS simplifies the complexity of IoT infrastructure while ensuring scalability and security. Whether you’re managing industrial equipment or smart city networks, AWS IoT provides a reliable backbone for modern connected ecosystems.