With digital
technology driving the world and making the lives of people easier than ever
before, the quest is for making it more decentralized, distributed, and easy to
handle. This is where the Internet of Things (IoT) comes across as a technology
of the future. It entails changing the lives of people by taking computing to
the physical realm. This may include devices, buildings, vehicles, sensors,
electronics, and networks, among others. Even though IoT brings many benefits
including increased automation of tasks, running such interconnected devices
flawlessly can be a challenge. This is due to the heterogeneity of such devices
and their need to display coordinated behavior in real-time. So, let us first
understand what IoT is all about?
What is IoT?
Here, physical
elements comprising buildings, vehicles, home appliances, and other elements
are embedded with software, electronics, and sensors to exchange data and
information over the internet. These devices are increasingly adopted by the
industry to derive a range of benefits. It may include cost reduction and
increased revenue generation through automated operations and improved
efficiency. The speed of adoption of such devices is driven by various factors
such as increased bandwidth and processing power, a growing pool of tech-savvy
consumers, the advent of new analytical tools, and the low cost of sensors.
Given the competitive nature of today’s business environment, enterprises are
looking to generate greater revenues and deliver better customer experiences.
However,
notwithstanding the slew of benefits such devices bring to the consumers,
building them in the form of a network remains a challenging and complex
activity. Since such devices have interfaces with a lot of digital elements,
there can be issues of interoperability, security, scalability, coordination,
and conformation. Nevertheless, IoT is on its way to become arguably the
biggest opportunity for software development and testing. The IoT ecosystem
will have an eclectic amalgamation of products like home appliances, embedded
sensors, buildings, vehicles, and actuators, among other things. To enable the
smooth functioning of such an ecosystem, IoT
testing has become a critical requirement of the industry. If
statistics are to be believed, then by 2020, around 30 billion products might
become a part of the IoT ecosystem (Source: McKinsey.)
What are the benefits of IoT testing?
The importance of
IoT-enabled devices in the digital ecosystem meant these have to be tested
rigorously to gain a slew of benefits. These include
·
Making the business future-proof in terms of interoperability, adoption of
technologies, scalability, security, and other parameters
·
Delivering the best user experiences across channels through automation
·
Delivering quicker access to the markets using test automation
What are the challenges for testing
IoT applications?
The testing of
IoT-enabled devices entails many challenges due to the presence of diverse
devices and the need for their seamless coordination and collaboration. The
other challenges are:
·
Dealing with the diversity of elements comprising the IoT ecosystem
·
Ensuring high security for data transmission
·
Adhering to a slew of IoT protocols viz., CoAP, XMPP, MQTT, and others
·
Achieving quick responsiveness in real-time
·
Support for scalability and interoperability
Developing the
right framework for Internet of Things testing
To overcome the
challenges associated with IoT device
testing, a robust IoT testing
framework should be put in place. Although designing such a framework
would depend on the configurations of specific IoT devices to be tested, it
should have some basic features.
Data Recorders: These can help in validating various
IoT-enabled devices vis-a-vis their compatibility across communication layers.
Protocol
Simulators: The IoT testing methodology involves
working with many protocols. Protocol simulators can facilitate IoT testing when there are multiple
interfaces of devices and their end-points.
Building Labs: These can help in simulating real-time
experiences and deriving suitable inferences in the process.
Virtualization: Any real-time validation of the highly
complex IoT application can be challenging and time-consuming. Thus, to reduce
the dependency on a real-time environment, certain testing services or
parameters can be virtualized.
Any IoT testing framework should comprise
a series of tests to check various layers and their interaction with each
other.
Application layer: Functional testing, compatibility
testing, usability and user experience testing, localization testing, and API
testing.
Services layer: Interoperability testing, functional
testing, and API testing.
Gateway and
Network layer: Network
compatibility and connectivity testing.
Sensor layer: Functional and security testing
Conclusion
The Internet of
Things is going to drive the future and will have an eclectic mix of
devices/elements such as datacentre, sensors, applications, and networks. Since
a lot would be at stake based on the correct behavior of IoT-enabled devices,
the IoT
testing approach should be all-encompassing and rigorous. Hence,
developing the right framework for testing IoT-enabled devices should be the
priority, which in turn can ensure these devices to remain programmable,
communicable, and operable across the industry.
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