TE Connectivity is leading in the convergence of physical things with the internet.


Accelerating New Economic Value

Steam engines, mass production, and Internet technology each brought epic revolution to business. Today we are in the midst of what is often called the fourth industrial revolution – the convergence of physical things with the Internet: the Internet of Things.

Internet of Things. Industry 4.0. Vehicle-to-Everything Connectivity. The convergence of physical things with the digital world of the internet is enabling innovation and opportunties to create economic value by making things automated and connected – from cars and homes to factories and cities. 

Experts predict significant growth of things connected via networks, and enormous new value generated by virtue of those connections.  Twenty-five billion objects will be linked together via the Internet of Things (IoT) by 2020 says Gartner Group1. IDC predicts the global IoT market will grow to $1.7 trillion by 20202. McKinsey Global Institute puts the value of IoT in business-to-business settings like smart factories at $3.9 trillion by 20253. While these projections vary in precision, given TE experience with engineers worldwide, we expect the growth of connected things within the next five to ten years to be very significant. Connecting billions of devices brings a huge opportunity for our customers to grow their businesses, drive innovation, and remain competitive. Getting things to communicate with us, and to each other, creates a new basis of competition for TE customers: unique products, optimized manufacturing, and greater efficiency.

The IoT Opportunity

Internet of Things. Industrial Internet. Internet of Everything. All shorthand for the pervasive opportunity to create new economic value by making things smart.  
Internet of Things is the network of physical objects or things embedded with electronics, software, and sensors. By virtue of being connected, these things create greater value and service by capturing and exchanging data with its user and/or other connected devices. 
The move toward Internet of Things is ultimately about connectivity we call Data Everywhere – getting things to communicate with us, and each other.

Global companies and governments have been vocal in their promotion of IoT strategies. Their advertisements and voices have even coined new language: Internet of Everything, Industrial Internet, and Industry 4.0. China has its own strategy – "Made in 2025" – which requires more connecting things and continued progress in smarter factories and automation. In our view, these terms point towards the same outcome: a fourth industrial revolution. It is an exciting time in history where breakthroughs are happening with more innovation on the horizon.

IoT initiatives are moving from Proof of Concept (POC) to production with millions of installed sensors and systems.  However, security of IoT ‘edge’ devices is still a critical priority given that more nodes can potentially provide more avenues for hackers to break into secure systems. Therefore, dedicated security chips embedded in IOT-enabled devices and firewalling IOT systems from safety critical systems is becoming a requirement, especially in industrial applications. Industry 4.0 and smart factory applications are areas where there is wide, steady adoption within the IoT space. More specifically, condition monitoring and predictive maintenance of factory machinery and equipment is the most common use case today. This is due to the value provided to factory owners for machine uptime, productivity and factory output, and worker safety. Since IoT-enabled wireless sensors provide a low cost and low power solution, this enables an easier installation process to implement an IOT solution within a factory environment.


Landscape categories grow in value and marketing opportunity as the landscape broadens. 4, 5 The value drivers across market segments are shared. It is the opportunity to make new products and services that generate revenue. And the opportunity to improve and differentiate customer experience, like avoiding equipment downtime through predictive maintenance. Improving time to market and decreasing logistics expense. Enhancing customer service and satisfaction with remote diagnostics and repairs on your car for example. Keeping people out of the hospital through real-time data sharing between patient and medical provider for health monitoring and preventive care.

The move toward Internet of Things is ultimately about connectivity we call Data Everywhere – getting things to communicate with us, and each other. And the fundamental shift this connectivity creates in how companies will compete: new products, optimized manufacturing, autonomous systems. The value-generating potential of Data Everywhere connectivity is huge for our customers. To realize that potential, fundamental building blocks are required. And we are experts in those building blocks.

Requires power, sensing, and adaptive networks. The value chain for Data Everywhere starts with hardware, adds software and services, and results in the ability to capture and act on data gathered at network end-points to create new value. TE enables the hardware side of that equation, providing the fundamental connectivity that is a precursor to Data Everywhere. All IoT end-points, in all those different form factors across industries and use cases, require three things: they must have power, they must be able to sense information, and they must rely on a reliable, secure network infrastructure to move that data fast.

Hardware, Software, Network, and New Value

Creating New Value

Convergence of network hardware and software


  • Collection of data (Sensors)
  • Communication (Getting sensor data to cloud)
  • Connectivity (connect to somewhere where the data is used: software platform to analyze data) could also mean IoT-enabled cables? 



  • IT Cloud Platforms (TE does not offer software platform)


New Value

  • Dashboards (TE does not offer)
  • Analytics (TE does not offer)


Before anything can be connected, it needs to be powered. The specifications for adding power to things are as varied as a space-efficient, safe power connector that can be installed quickly and intuitively by a line worker, to a sophisticated battery connection that can withstand liquid immersion (ever jump in the shower with your Fitbit?), to wireless power for low voltage transmission within close proximity.

Power is the fundamental element behind Data Everywhere, yet installation, usage, and performance requirements for power are different across industries and applications. The base criterion is to enable persistent power delivery that fits the form, function, and environment of the application. TE’s modular product portfolio is in demand for IoT applications for its efficient connectors, quick to use without instructions, and typical availability with 24 hours.


Advances in LPWAN (Low Power WAN), LPLAN (Low Power LAN) wireless chipsets and low power sensors will enable the next wave of remote connected sensors. These new low power protocols paired with low power sensors can extend battery life of devices by 3-5 years. These low power systems are low cost, compact and can be deployed with ease using existing assets and without the need for complex wiring. Examples of LPWAN include LoRa, SigFOX, LTE-M, NB-IoT and examples of LPLAN include Bluetooth Low Energy (BLE), Zigbee, Dust.


An alternative to connectors, contactless power, is liberating design engineers to realize new possibilities for mechanical motion. Today robotic arms can be powered with up to 100 watts from two centimeters away – enough distance to allow robotic arms to move in ways they could not before, increasing the use of robotics in more precise and advanced applications. The next 18 months will see contactless power wattage increase and distance shrink. This rapid feature evolution illustrates TE’s disruptive capabilities, and is a game-changer in factory automation.

IoT applications are accelerating power innovation. Imagine future scenarios enabled by integrated transfer of power and data that enable more autonomous systems and machines. Imagine a sensor and switch duo or cool-down element that takes an action via temperature monitoring. This automated intelligence could be wired to motors and conveyor belts, not only in a controlled environment but within an exposed and harsh environment. Another possibility is smart charger cables that monitor and control power at the point of interconnect. Data Everywhere capability can be extended to legacy machinery and allow more efficient use of power through new visibility of usage. 


Sensors provide the ability to capture data at end points. They are the intelligent bridge between physical and digital.


IoT Trends in Sensors:


  • Low Power Sensors: These compact, low power devices provide long battery life which enables the deployed of IoT components within various applications.
  • Sensor Fusion: This technology is used to merge more functionality and measurement within a single, compact sensing device.
  • Miniaturization: As technology evolves and becomes more modern, the need for smaller components is needed.
  • Wireless Integrated Sensor Technology: IoT-enabled sensors with wireless connectivity capabilities are starting to emerge in many variations. Additionally, edge computing capabilities at the device level are growing in demand. Even though sensors are not currently equipped with edge computing functionality, some sensors include edge analytics.
  • Digital: The shift from analog output sensors to digital output sensors is becoming critical due to the ease of integrating these components into existing systems.


IoT end-points inherently rely on sensors to collect information. We see increased closed and autonomous loop applications driving sensor growth. Sometimes that closed loop system will be completely in the machine. A patient with a heart problem uses a cuff and patch to capture and securely transmit heart data from home. The doctor’s system returns data that calibrates medicine dosage on the patch. Or in the factory automation context, a machine assembly self-adjusts speed based on inventory volume. Within smart buildings, closed loop sensor systems will monitor light and appliance power to stay within pricing tiers and maximize rebates.

TE’s portfolio of intelligent, efficient, and high-performing sensors are used across several industries – from automotive, industrial and commercial transportation, and aerospace and defense, to medical, industrial, and consumer applications. While temperature, humidity, and pressure sensors are the most common sensors used, we also see increasing use of sensors for vibration, liquid level, and fluid property.


Feedback and Control


Adaptive Network

Today’s networks are adaptive, recognizing the addition and subtraction of new end-points on the fly – just think of how easily you can connect/disconnect to and from your enterprise network wirelessly across a corporate campus. The opportunity and challenge for network providers in an IoT world is to extend that adaptive quality to network components. Network components and subsystems will become addressable network nodes.

In those IoT scenarios where high-performance network access is mission critical, active components introduce intelligence to networks that ensure optimal operations and maintenance. In a data center running 56G connectors that begin to get hot, for instance, the components would be able to alert operators before issues occur.

More robust network design preserves signal integrity to enable performance stats, for predictive maintenance or self-corrective action, and to increase network infrastructure lifespan. Data architectures that deploy modular components ensure the most efficient array of speed, efficiency, and performance required.

IoT Value Creation

Three Hardware Criteria

The new economic value created from IoT applications is beginning to emerge as applications move from concept to commercial implementation. While a lot of the early IoT traction has been in consumer spheres, the next few years will see more business and industrial IoT deployments. Three criteria must be met by hardware enablers of the Internet of Things:

Cannot Fail: Human Life, Brand Value, Economic Vitality

1 – Cannot Fail: Human Life, Brand Value, Economic Vitality

The stakes could not be higher. The safety and well-being of users, whether they are driving autonomous cars or getting remote medical treatment from their doctors. For whole industries, like manufacturing, they are defending their competitive identity and value. The reliance on end-point connectivity as a driver of mission-critical value simply means their Data Everywhere connectivity cannot fail. Sustained performance amid harsh environments must be an engineering hallmark. Power and sensing must be ruggedized to withstand the harshest operating conditions, from weather, vibration, shock, ambient temperatures, humidity, hostile chemicals, and biological sources.

Smaller, Multifunction, and Efficient

2 – Smaller, Multifunction, and Efficient

The need to design connectivity and sensing into devices and machines is pushing the limits of materials engineering and physics. We are seeing rapid advancement in the use of lighter but stronger materials and wireless power, for example. Demands for lighter weight electronics, multifunction capabilities that maximize function in efficient space are required for the closed loop capabilities of feedback and monitoring function. We are increasingly packaging components together to save space and expand function.

Global Agility, Adaptability and Flexibility: Affordable High Quality at Any Volume

3 – Global Agility, Adaptability and Flexibility: Affordable High Quality at Any Volume

For Data Everywhere to proliferate, makers of newly connected products will need to accommodate regional and user-specific configuration requirements. The use of advanced manufacturing methods, like laser cutting and 3d printing, makes operating with flexibility at scale economically viable. Further, beyond the agility to mass configure, hardware manufacturers ensure operations security and sustainability when facilities are dispersed across geographic markets. Globally distributed manufacturing agility will become a differentiating capability.

Standards, Protocols, Interoperability

Standards bodies, government entities, and software and hardware companies are all working to define the shared standards and protocols required to advance the network of connected things. Much of the discussion is about software issues, from interoperability to data ownership, control, security, and privacy. TE participates in the leading groups, including the Industrial Internet Consortium, as part of the IoT ecosystem. We occupy an essential and distinct position as an IoT enabler. As a hardware manufacturer, we are able to accommodate developing, ad hoc, and accepted standards and remain interoperable with all. 

Data everywhere means changes to how engineering teams approach design. Companies have to work within a broader ecosystem of partners. Multiple disciplines are required from mechanical, electrical, and materials engineering. Co-creating and collaborating with experts outside your organizations is key to accelerated innovation. When considering this ecosystem of partners, no company can provide a complete

system on its own. Software platforms need hardware and hardware is useless without the cloud and data analytics. At this point, ecosystems are starting to form with a purpose of building out use cases to identify specific needs of complete IoT system applications. The end goal is to provide application examples, so customers can easily implement these use cases without having to develop all the elements themselves.