Browse Definitions :

Top 7 must-have IoT skills to boost your career

The internet of things is growing rapidly and becoming increasingly complex. IoT professionals will need an array of skills to succeed as this trend continues.

Devices of all types in every environment -- including mobile phones, automobiles and industrial equipment -- are now connecting to the internet.

By 2025, Statista predicts the total number of connected devices will reach 75 billion. As a result, engineers, developers and other IoT professionals are in increasingly high demand. These professionals will need a diverse skill set that enables them to develop and maintain IoT infrastructure at scale, at every level of the technology stack.

Here are some must-have skills that IoT professionals need to keep up with what some have termed "the IoT explosion."

1. Artificial intelligence and machine learning

IoT and AI are converging to form the artificial intelligence of things (AIoT). Gartner predicted that more than 80% of enterprise IoT projects will involve some AI component by 2022.

IoT devices collect large amounts of sensor data that organizations then analyze. For example, a manufacturing plant could use IoT sensors to report the site temperature, which is then recorded in a database that tracks the temperature data for all sites. AI and machine learning could then help database administrators organize data, determine how to maintain the correct temperature and optimize the facility. Using AI also facilitates predictive analytics to improve the environment in the future. AI makes the data that IoT devices collect useful, helps filter redundant data out of big data stores and performs complex data analysis and data management efficiently.

Learn how AI brings new capabilities to edge IoT devices.

2. Node.js development

Node.js is a popular open source development environment for developers who are looking to pivot into IoT space. Node.js is often used in tandem with connected devices, such as Arduino and Raspberry Pi.

IoT professionals will need a diverse skill set that enables them to develop and maintain IoT infrastructure at scale, at every level of the technology stack.

Arduino is a single-board microcontroller known for making embedded programming easier by interfacing with sensors and other inputs and outputs. Raspberry Pi is a low-cost, miniature, single-board computer used as a lightweight software development tool with languages such as Python and Node.js. Both devices are good teaching tools for people who want to get into these languages in an IoT context. Node.js enables Arduino and Raspberry Pi to communicate with each other.

Node.js is well suited to a distributed IoT environment, which quickly processes real-time data. It can handle multiple tasks at once because of its asynchronous, event-driven input/output model.

Learn about some of the features of Node.js 14, one of the latest iterations of this server-side runtime environment.

3. Mobile app development

Mobile apps often control IoT devices, so it is important for IoT developers to know how to create user-friendly, high-performance mobile applications. Applications should also be cross-platform and be able communicate effectively with cloud servers and a range of hardware. Like most aspects of IoT, mobile apps should also perform well with real-time data.

Learn the basics of how to develop a mobile application for IoT implementations.

4. API automation and testing

Application programming interfaces (APIs) enable IoT devices to exchange real-time data efficiently and accurately; it's how IoT devices communicate with each other. Therefore, it is important for IoT professionals to be well versed in API testing. Because of IoT's complex and distributed nature, it is also important to automate what tests where possible.

An example test case for IoT would be to ensure that a certain physical condition picked up by a sensor is represented properly in the program. Another example is to test what happens when the data structure of an IoT monitoring system is updated. For example, will changing the way data is organized within the system change how the data is processed? Any changes should be noted and tested to make sure the desired change occurred.

Hone your API testing skills with this best practices checklist. 

5. Information security

Infosec professionals are in high demand in the IoT space. Securing IoT infrastructure is difficult because of the array of implementations and devices that IoT includes. Security engineers in this field need to be creative and adaptable in how they approach vulnerability assessments, accounting for both physical and logical weaknesses in IoT endpoints. There is also demand for security personnel that are skilled with tools from specific vendors, such as Orbit, a business management platform, and Cloudflare, a secure content distribution network.

One weakness of IoT -- specifically industrial IoT -- is password security. Often, administrators neglect to change manufacturer-set default passwords, because many devices in this space are not geared toward usability. They operate autonomously much of the time and do not have users regularly accessing them. Unchanged passwords make it significantly easier for intruders to guess the generic passwords and break into IoT systems to steal data or perform network reconnaissance.

Learn how new government regulations are designed to mitigate common IoT security issues.

6. UI/UX design

IoT's security problem and need for competent user interface and user experience designers go hand in hand. The more user-friendly an IoT device is, the easier it is for security personnel to dynamically update security settings.

Good user experience also makes it easy for users to understand how a given IoT product provides value to their organization. With all the information IoT devices generate, good UX and responsive web design are crucial to creating a secure flow of data from sensors to applications to people. UX designers in the IoT space must be able to collaborate with IoT software developers to make this a reality.

7. Cloud computing

The distributed cloud computing framework is an important concept for IoT professionals. Instead of processing the data solely at the edge -- the closest to the place in a network where data gets created -- or in a centralized cloud database, distributed computing mixes both approaches, processing some data at the edge and some centrally. Time-critical data or data that requires less processing could be processed at the edge and close to the source. Data that is not time sensitive or requires more intensive processing can be sent to a centralized location farther from the source.

Learn how the IoT edge cloud creates the perfect balance of edge and cloud computing for IoT implementations.

Next Steps

IoT skills and 4 experts every IoT project needs

Top 12 most commonly used IoT protocols and standards

7 IoT training certifications to take your next career step

6 best IoT conferences and events to attend in 2021

Dig Deeper on IT Career Management

SearchCompliance
  • ISO 31000 Risk Management

    The ISO 31000 Risk Management framework is an international standard that provides businesses with guidelines and principles for ...

  • pure risk

    Pure risk refers to risks that are beyond human control and result in a loss or no loss with no possibility of financial gain.

  • risk reporting

    Risk reporting is a method of identifying risks tied to or potentially impacting an organization's business processes.

SearchSecurity
  • Pretty Good Privacy (PGP)

    Pretty Good Privacy or PGP was a popular program used to encrypt and decrypt email over the internet, as well as authenticate ...

  • email security

    Email security is the process of ensuring the availability, integrity and authenticity of email communications by protecting ...

  • Blowfish

    Blowfish is a variable-length, symmetric, 64-bit block cipher.

SearchHealthIT
SearchDisasterRecovery
  • What is risk mitigation?

    Risk mitigation is a strategy to prepare for and lessen the effects of threats faced by a business.

  • fault-tolerant

    Fault-tolerant technology is a capability of a computer system, electronic system or network to deliver uninterrupted service, ...

  • synchronous replication

    Synchronous replication is the process of copying data over a storage area network, local area network or wide area network so ...

SearchStorage
  • direct access

    In computer storage, direct access is the process of reading and writing data on a storage device by going directly to where the ...

  • kibi, mebi, gibi, tebi, pebi and exbi

    Kibi, mebi, gibi, tebi, pebi and exbi are binary prefix multipliers that, in 1998, were approved as a standard by the ...

  • holographic storage (holostorage)

    Holographic storage is computer storage that uses laser beams to store computer-generated data in three dimensions.

Close