Key Components of an IoT Platform and How to Choose One
Guest Author
Which IoT platform is best for your Applications? You may need an IoT platform that only takes care of the connectivity or the management of IoT devices within your network, with or without advanced analytics. But you may also require app development capabilities and the option to deploy your machine learning models right at the IoT edge. Here, we'll discuss the key components of an IoT platform and what factors should influence your choice.
To navigate the IoT platform landscape, let us look at the four layers of the IoT architecture.
IoT platforms are multi-layered solutions. They can greatly simplify the consolidation of many different IoT devices and come with a variety of services. The building blocks of an IoT platform typically include the following IoT architecture layers:
Connectivity is a necessary component of any IoT development effort. On a fundamental level, an IoT platform can be as simple as a software infrastructure enabling and overseeing the connectivity between objects in the physical world.
As multi-layered solutions, IoT platforms can greatly simplify the consolidation of many different IoT devices.
Within today’s complex connectivity environment, solid connectivity management will allow the secure and effortless incorporation of diverse IoT devices and the administration of multi-protocol & multi-network connections.
Other than that, every IoT platform has a connectivity layer that enables a variety of services. These include but are not limited to data collection, monitoring & control, and the management of assets.
Data management is the practice of developing, executing, and overseeing architectures and software that increase the value and availability of data. This includes but is not limited to logging, storage, processing, and transaction management. IoT data management takes care of data coming from many different locations and many different data types. It covers data extraction, storage, processing, and analysis.
Handling large amounts of data in commercial IoT settings usually involves a cloud backend that reliably and securely streamlines data collection, storage, data processing, and analytics while performing service orchestration on top.
IoT device management may cover the entire lifecycle of an IoT device. It involves device registration, device identification, updates, authentication, logging, remote administration, troubleshooting, rebooting, and device diagnostics. This is how you oversee all of your connected physical assets from within one platform.
One recent trend in IoT platforms is the ability to code directly in a cloud IDE fully integrated into the platform environment. Platforms such as Portainer.io, Particle.io, and Record Evolution make it possible to write apps and deploy them in seconds while getting live feedback from the device and observing app performance. Over-the-Air development (OTA) is currently offered by the fewest IoT platforms and is especially well received in the developer community.
Essentially, this means providing active management to define rules and triggers for automated jobs and services, including the provision of application logic to coordinate the flows of data and execute certain actions. Thanks to this capability, developers can build, integrate, and manage custom applications.
Most IoT platforms on the market right now come with built-in security features. These guarantee high standards of privacy and identity management across networks, devices, and cloud services. Data integrity, the extra protection of certain proprietary data types, authorization mechanisms, safeguarding privacy, authentication, identification, and encryption are all part of the security layer of the IoT platform and can operate on a variety of levels.
As different markets have different middleware needs, IoT platforms can be classified based on the services provided to end-users and their place within the IoT value chain. Platforms that meet the needs of consumers, for example, will have capabilities different from those of platforms made for industrial IoT applications or those tailored to the automotive, manufacturing, finance, agriculture, or energy sectors.
Today, it has become standard for an IoT platform to provide real-time intelligence, M2M communication, interoperability, and end-to-end security by design. Even more so, IoT platforms are now also expected to have AI capabilities and machine learning.
IoT platforms fall into the following categories:
Again, this is one of the most basic yet highly specialized and widespread types of IoT platforms. It involves connectivity orchestration, connection management, plus various communication services for IoT devices. Such platforms also take care of invoicing with the network providers.
Connectivity management platforms have the following capabilities:
Remaining on top of growing fleets of diverse assets is one of the most common concerns in the world of IoT. Therefore, IoT device management platforms have gradually established themselves as standalone products over the past years.
Some of the capabilities of IoT device management platforms include the following:
Collecting and making sense of IoT data calls for a robust IoT analytics infrastructure that takes care of the harvesting and processing of massive data volumes, data mining, and building ML solutions and involves data storage capacities for structured and unstructured data.
The key capabilities of IoT analytics platforms involve:
Application enablement platforms specialize in developing custom IoT solutions with a focus on data processing and insight generation. These platforms usually have many built-in applications and come with interfaces to external applications or the user’s own software.
Some of the functionalities of an application enablement platform include:
Instead of a simple connectivity management platform or a device management platform, most IoT platforms on the market right now are a combination of multiple services around IoT. These can be comprehensive at varying degrees. At times, they cover only a portion of the value chain and sometimes provide an end-to-end solution in just one offering.
The IoT orchestration hub is where all services around an IoT solution come together. They ensure connectivity, seamless device management from a single location, plus transparent data management and data processing. As hubs usually come as cloud services, their scalability also plays a role. Orchestration hubs are usually built as open solutions and can integrate with various IoT services on top.
The key capabilities of IoT orchestration hubs include:
Some IoT platforms strive to improve the developer experience and come with various services that make it especially easy for developers to collaborate and develop applications.
Development-centric platforms also place an emphasis on community-building and IoT collaboration.
Some of the capabilities of developer-focused IoT platforms include:
This is a full-stack platform that consolidates and performs all services across the IoT value chain. Ideally, the end-to-end IoT platform is suitable for a variety of Applications and transcends industry borders. It should be robust enough to accommodate large-scale industrial IoT solutions. But it should also remain flexible and open to allow for third-party integrations and anticipate future developments.
So we see that the IoT platform landscape is complex and multifarious. While we speak of various types of IoT platforms, the boundaries between these are not necessarily clear-cut. You can have an end-to-end platform that is also a development suite or a connectivity platform that includes basic device management capabilities. The possibilities are varied, and the one thing to guide you within this jungle is the necessities posed by your specific Applications.
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