#8 bit Wireless microcontrollers

[vict2leelso]

https://www.futureelectronics.com/p/semiconductors--microcontrollers--8-bit/pic16c73b-20i-so-microchip-8276131

8 bit Embedded microcontrollers, 8 bit Wireless microcontrollers, programming

PIC16 Series 192 B RAM 4 K x 14 Bit EPROM 8-Bit CMOS Microcontroller - SPDIP-28

[scott2yton]

https://www.futureelectronics.com/p/semiconductors--microcontrollers--8-bit/pic18f4520-i-pt-microchip-5300009

Wireless USB, Low power microcontroller, development board, Pic microcontrolle

PIC18F Series 32 KB Flash 1.5 kB RAM 40 MHz 8-Bit Microcontroller - TQFP-44

[jhhn2yalls]

https://www.futureelectronics.com/p/semiconductors--microcontrollers--8-bit/atmega128l-8au-microchip-2038197

What is 8 bit microcontroller, lcd microcontrollers, low power microcontrollers

ATmega Series 128 KB Flash 4 KB SRAM 8 MHz 8-Bit Microcontroller - TQFP-64

[dvid2leds]

https://www.futureelectronics.com/p/semiconductors--microcontrollers--8-bit/pic12f629t-i-sn-microchip-8748717

What is a microcontroller, programming microcontroller, lcd microcontrollers

PIC12F Series 1.75 kB Flash 64 B SRAM SMT 8-Bit Microcontroller - SOIC-8

[athur2llmm]

https://www.futureelectronics.com/p/semiconductors--microcontrollers--8-bit/ez80f91az050ek-zilog-8131964

Embedded microcontroller, microcontroller board, lcd microcontrollers

eZ80F91 Series 256 kB Flash 8 kB RAM 50 MHz 8-Bit Microcontroller - LQFP-144

[grhm2illo]

https://www.futureelectronics.com/p/semiconductors--microcontrollers--8-bit/pic16lf877a-i-ml-microchip-5373501

Embedded microcontrollers, microcontroller programming, USB microcontroller

PIC16 Series 14 kB Flash 368 B RAM 20 MHz 8-Bit Microcontroller - QFN-44

[shrm2lph]

https://www.futureelectronics.com/p/semiconductors--microcontrollers--8-bit/atmega128l-8au-microchip-2038197

lcd microcontrollers, Low power microcontroller, microcontroller software

ATmega Series 128 KB Flash 4 KB SRAM 8 MHz 8-Bit Microcontroller - TQFP-64

[ryy2gton]

https://www.futureelectronics.com/p/semiconductors--microcontrollers--8-bit/pic18f6520-i-pt-microchip-7337520

8-bit microprocessor, 8 bit embedded microcontroller, Low power microcontroller

PIC18F Series 32 kB Flash 2 kB RAM 40 MHz 8-Bit Microcontroller - TQFP-64

[rndy2prkr]

https://www.futureelectronics.com/p/semiconductors--microcontrollers--8-bit/pic16c73b-04i-so-microchip-9673831

lcd microcontrollers, Microcontrollers software, Wireless microcontroller

PIC16 Series 192 B RAM 4 K x 14 Bit EPROM 8-Bit CMOS Microcontroller - SPDIP-28

[egns2fern]

https://www.futureelectronics.com/p/semiconductors--microcontrollers--8-bit/pic16c73b-20i-sp-microchip-1279256

Programmable microcontrollers, embedded microcontroller, Pic microcontrollers

PIC16 Series 192 B RAM 4 K x 14 Bit EPROM 8-Bit CMOS Microcontroller - SPDIP-28

[wliw2rork]

https://www.futureelectronics.com/p/semiconductors--microcontrollers--8-bit/pic16c73b-04-sp-microchip-1274299

Microcontroller 8 bit controller, lcd microcontrollers, Pic microcontrollers

PIC16 Series 192 B RAM 4 K x 14 Bit EPROM 8-Bit CMOS Microcontroller - SPDIP-28

[grhm2illo]

https://www.futureelectronics.com/p/semiconductors--microcontrollers--8-bit/pic16lf877a-i-ml-microchip-5373501

Embedded microcontrollers, microcontroller programming, USB microcontroller

PIC16 Series 14 kB Flash 368 B RAM 20 MHz 8-Bit Microcontroller - QFN-44

[t2mip]

12-bit 5MSps SAR ADC IP Core by T2M

T2MIP, high-performance 12-bit successive approximation register (SAR) ADC designed for precision, speed, and ultra-low power operation. This new IP core achieves conversion rates up to 5 mega samples per second (MS/s), making it ideally suited for next-generation applications that require high-speed data acquisition with minimal power consumption.

This cutting-edge 12-bit SAR ADC IP core is specifically engineered to meet the demanding requirements of modern SoC (System on Chip) and ASIC (Application-Specific Integrated Circuit) designs. It offers a unique balance of high-resolution data conversion, excellent dynamic performance, low power consumption, and flexible configuration options. These attributes make it a perfect fit for a variety of industries including industrial automation, precision measurement systems, wireless communications, and advanced microcontroller-based applications.

The need for energy-efficient, high-precision analog interfaces continues to grow across a wide range of industries. From portable industrial devices and battery-powered sensors to high-speed communication systems and automotive control units, designers increasingly require ADCs that not only deliver performance but also minimize energy draw. T2MIP’s new SAR ADC core directly addresses this need by providing exceptional signal quality and flexible operating modes while maintaining ultra-low power consumption.

The 12-bit resolution ensures accurate signal quantization, while the 5MS/s sampling rate makes the core well-suited for fast signal processing tasks. This performance is achieved without compromising power efficiency, a feature critical for embedded systems and IoT devices where power budget is often a limiting factor.

Key Performance Metrics

One of the standout features of T2M’s new SAR ADC IP is its high dynamic performance. The converter delivers a Signal-to-Noise and Distortion Ratio (SINAD) of 70 dB and a Total Harmonic Distortion (THD) of -72 dB, which translates to an Effective Number of Bits (ENOB) of 11.3 bits. This makes it ideal for applications requiring high fidelity and accurate representation of analog signals.

Design flexibility is another cornerstone of this IP core. It supports multiple input modes—both single-ended and differential—and can handle up to four input channels. This allows designers to tailor the ADC’s input architecture to their specific system requirements, whether that involves sensing multiple voltages or improving common-mode noise rejection.

Furthermore, the ADC supports selectable resolution modes—8-bit, 10-bit, and 12-bit—allowing developers to trade off between precision and power consumption as needed. Conversion modes include both single conversion and continuous operation, providing adaptability for event-driven or real-time sampling use cases.

One of the most notable innovations in this SAR ADC IP core is its scalable power consumption architecture. In idle mode, it draws zero static (DC) power, and its dynamic power consumption is directly proportional to the clock frequency. This intelligent power scaling makes it ideal for energy-sensitive applications where processing loads vary over time.

In addition to its baseline low-power operation, the IP core also includes extended power management modes. Designers can select between low-noise and ultra-low power modes depending on the performance priorities of the system. For example, battery-powered sensors can operate in low-power mode to extend life, while instrumentation systems can switch to low-noise mode for increased accuracy.

The ADC operates at ultra-low voltages, with an analog supply range from 3.3V down to 1.8V, and a digital supply of just 1.1V. This wide supply compatibility ensures the core can be easily integrated into modern low-voltage SoC platforms without the need for costly voltage level shifters or regulators.

Key Features:

12-bit Resolution with up to 5MS/s Conversion Rate

High Dynamic Performance: SINAD of 70dB, THD of 72dB, and ENOB of 11.3 bits

Multiple Input Modes: Supports both single-ended and differential configurations with up to 4 input channels

Zero DC Power with scalable consumption tied to clock frequency

Selectable Resolution: Operates in 8, 10, or 12-bit modes

Multiple Conversion Modes: Continuous and single conversion modes supported

Extended Sampling & Power Modes: Includes low-power and low-noise modes for tailored performance

Flexible Reference Options: External and optional internal reference support

Ultra-Low Voltage Operation: Analog supply from 3.3V to 1.8V; Digital supply at 1.1V

Advanced Functions: Self-calibration, optional hardware averaging, window watchdog

These advanced features not only improve performance but also simplify the overall design and reduce development time by eliminating the need for external supporting logic in many applications.

Ideal Applications and Use Cases

This SAR ADC IP core is highly suitable for applications requiring compact, power-efficient, and high-performance data conversion. Common use cases include:

Microcontrollers and Embedded Systems: Extend battery life while maintaining accurate analog signal capture in portable electronics, wearables, and sensor nodes.

Industrial Instrumentation: Achieve precision measurements in multichannel monitoring and control systems with minimal power draw.

Broadband Wireless Systems: Convert analog signals at high speed with excellent dynamic range, aiding in RF baseband processing and signal analysis.

Automotive Electronics: Integrate with automotive MCUs for tasks like battery monitoring, motor control, and advanced driver-assistance systems (ADAS).

By addressing the core challenges of low power, high resolution, and easy integration, this ADC IP enables semiconductor manufacturers and system developers to accelerate product development without compromising performance.

Licensing and Availability

T2MIP’ new 12-bit, 5MS/s SAR ADC IP core is available immediately for licensing. semiconductor ip is delivered with comprehensive documentation, test benches, and integration support to ensure a smooth implementation into your design flow. Interested in evaluating or licensing the core can visit t-2-m.com or contact T2M directly at contact@t-2-m.com

[rapidise]

The Evolution of Embedded Hardware: From Simple Circuits to Smart Devices

Embedded systems are all around us in today's hyperconnected world, from the sophisticated electronics controlling your car's engine to the smart thermostat that regulates the temperature in your house. One of the most amazing changes in technology is the progression from simple circuits to the advanced smart devices of today. This evolution, which has been fuelled by necessity and creativity, has been an intriguing one that has taken place over many decades. Understanding this history is essential for developers and businesses traversing this terrain, particularly when thinking about an embedded hardware design service that could help them realise their next big idea.

The Pioneer Days: Early Embedded Systems

The 1960s and 1970s marked the dawn of embedded computing, though it looked nothing like what we recognize today:

The Apollo Guidance Computer, which helped navigate astronauts to the moon, represented one of the first mission-critical embedded systems

Early embedded systems relied on discrete components rather than integrated circuits

These systems were enormous by today’s standards—filling entire cabinets

Programming was done through hard-wired logic or assembly language

Each system was custom-designed for a specific purpose with little flexibility

These primitive beginnings laid groundwork for what would become a technological revolution, yet the limitations were substantial. Memory was measured in kilobytes, processing power was minimal, and development required specialized expertise that few possessed.

The Microprocessor Revolution

Everything changed in the early 1970s with the introduction of the microprocessor:

Intel’s 4004, introduced in 1971, became the first commercially available microprocessor

For the first time, computing power could fit on a single chip

Development costs dropped dramatically, making embedded systems accessible to more industries

Early applications included calculators, cash registers, and industrial controllers

The 8-bit microcontroller era began, with chips like the Intel 8051 becoming industry standards

This miniaturization represented the first major leap toward modern embedded systems. Suddenly, intelligence could be added to previously “dumb” devices, creating new possibilities across industries from manufacturing to consumer electronics.

From Industrial to Consumer Applications

The 1980s and 1990s witnessed embedded systems transitioning from purely industrial uses to consumer products:

Video game consoles like the Nintendo Entertainment System introduced millions to embedded technology

Household appliances began incorporating microcontrollers for improved functionality

Automotive applications expanded rapidly, with engine control units becoming standard

Personal digital assistants (PDAs) showcased the potential for portable computing

Cell phones emerged as perhaps the most transformative embedded systems of the era

At this time, there started to appear specialized embedded hardware design service providers which assists businesses with intricate hardware designs. These services helped translate creative concepts into functioning products, allowing companies without internal capabilities to join the growing competition in the electronics industry.

The Networking Revolution and Embedded Connectivity

By the late 1990s and early 2000s, embedded systems gained a critical new capability—connectivity:

First-generation embedded networks often used proprietary protocols

Industry standards like CAN bus revolutionized automotive electronics

TCP/IP implementation in embedded devices paved the way for Internet connectivity

Wireless technologies like Bluetooth and later Wi-Fi liberated devices from physical connections

Remote monitoring and management became possible, changing service models forever

This networking capability transformed embedded systems from standalone devices to interconnected nodes, creating new possibilities for data collection and device management. Industries from healthcare to manufacturing began reimagining their processes around these newly connected devices.

The Rise of the Internet of Things (IoT)

The 2010s saw embedded systems become truly ubiquitous through the Internet of Things:

Consumer IoT products like smart thermostats, lighting, and speakers entered millions of homes

Industrial IoT revolutionized manufacturing through predictive maintenance and asset tracking

Agriculture embraced precision farming techniques using embedded sensor networks

Healthcare innovations included remote patient monitoring and smart medical devices

Urban infrastructure began incorporating embedded systems for “smart city” initiatives

With this explosion in applications came increasing complexity. An embedded hardware design service became essential for many companies looking to enter the IoT market, providing expertise in not just hardware but the integration of sensors, connectivity, and power management that modern IoT devices require.

Read Also: The Role of Embedded Hardware in IoT Devices

The Miniaturization Miracle

Throughout this evolution, one trend has remained constant—the drive toward smaller, more efficient devices:

Component sizes shrank from through-hole to surface-mount to microscopic

Power consumption decreased dramatically, enabling battery-operated portable devices

Wearable technology emerged as components became small enough to integrate into clothing and accessories

Medical implants shrank to minimize invasiveness while increasing capability

Sensors became small and inexpensive enough to deploy in massive numbers

This miniaturization has opened new frontiers in what’s possible with embedded systems. Today’s embedded hardware design services often specialize in extreme miniaturization, developing sophisticated systems that fit into spaces previously thought impossible.

The Processing Power Explosion

Modern embedded systems bear little resemblance to their ancestors in processing capability:

32-bit and 64-bit processors have replaced 8-bit chips in many applications

Multi-core processors enable complex real-time processing

Specialized hardware accelerators handle tasks like AI inference and video processing

For specific applications, field-programmable gate arrays (FPGAs) offer hardware that can be reconfigured.

 System-on-Chip (SoC) designs combine peripherals, memory, and CPUs into one unit.

With this processing capability, embedded systems can now perform tasks like computer vision and natural language processing that were previously only possible with general-purpose computers, all while retaining the dependability and deterministic behaviour that embedded systems need.

The Future: AI at the Edge and Beyond

Looking ahead, embedded systems continue evolving at a breathtaking pace:

Edge AI is pushing intelligence to embedded devices rather than relying on cloud processing

New materials and manufacturing techniques are enabling flexible and biodegradable electronics

Energy harvesting is reducing or eliminating battery dependencies

Quantum computing principles may eventually transform embedded processing

Neuromorphic computing aims to make embedded systems think more like biological brains

These frontiers represent both challenge and opportunity. Companies seeking to navigate this complexity increasingly turn to specialized embedded hardware design services that can transform cutting-edge concepts into viable products.

The evolution of embedded hardware marks one of the most remarkable journeys of technology, progressing from circuits to devices that think for us and are a part of our lives. This journey continues to accelerate as we enter the following decades which promise even more astonishing innovations. For companies that want to take part in the ongoing revolution, collaborating with specialized embedded hardware design services is crucial for changing futuristic concepts into reality.

[global-research-report]

IoT Microcontroller Market Insights: Key Players & Innovations

The global IoT microcontroller market size is anticipated to reach USD 12.94 billion by 2030, according to a new report by Grand View Research, Inc. The market is projected to grow at a CAGR of 16.3% from 2025 to 2030. Increase in adoption of smart home devices integrated with mobile applications and advancements in low power Microcontroller (MCU) are expected to drive the market growth. The surge in the number of enterprise IoT connections across industries such as manufacturing, healthcare, and energy and power is also expected to drive the growth of the market over the forecast period.

Advancements in short-range wireless connectivity such as Zigbee, Bluetooth, and KNX technologies, notably in Europe and North America also expected to drive IoT adoption over the next few years. Advancements in disruptive technologies such as big data analytics, Artificial Intelligence (AI), and industrial IoT are further expected to propel the adoption of IoT-connected devices. Increasing investments through funding in start-ups such as Hypervolt, HIXAA, SmartRent, and other SMEs that help to gain new IoT-based projects in industries likely to create the need for a high-performance, low-power IoT MCUs market over the forecast period.

Key IoT MCU manufacturers such as RENESAS Electric Corporation, NXP Semiconductors, and STMicroelectronics are innovating high-performance MCUs to meet the demand. For instance, in 2022, Renesas Electric Corporation launched the 32-bit RA Family of microcontrollers (MCUs). The launched product is based on the Arm Cortex-M23 core, which offers shallow power consumer MCUs developed explicitly for IoT endpoint applications, including industrial automation, medical devices, intelligent home appliances, and wearables.

The COVID-19 outbreak positively impacted the IoT MCU market in 2020. Government-imposed restrictions and stay-at-home mandates increased the demand for smart wearables, including fitness trackers, health-based wearables, and other consumer IoT devices. Due to a sudden increase in demand for consumer IoT devices and a temporary halt of production units, the market experienced a shortage of MCUs in 2021, creating an imbalance in supply and demand. In light of these factors, device manufacturers are expected to hike the connected product prices in 2022, which is likely to continue until 2023. 

IoT Microcontroller Market Report Highlights

32-bit captured more than 47% market share of the overall IoT MCU market in 2024, with the market size expected to register a healthy CAGR over the forecast period. An increase in the adoption of smart utilities and industrial robotics is expected to drive market growth over the forecast period 

The industrial automation segment dominated the market with a revenue share of 33.1% in 2024. Industrial automation aims to streamline processes, increase operational efficiency, and improve productivity 

Asia Pacific led the market in 2024, a trend expected to continue over the mid-term. Adding to this, increasing government initiatives to develop innovative and connected infrastructure signifies market growth

IoT Microcontroller Market Segmentation

Grand View Research has segmented the global IoT microcontroller market report based on product, application, and region:

IoT Microcontroller Product Outlook (Revenue; USD Billion, 2018 - 2030)

8 Bit

16 Bit

32 Bit

IoT Microcontroller Application Outlook (Revenue; USD Billion, 2018 - 2030)

Industrial Automation

Smart Home

Consumer Electronics

Smartphones

Wearables

Others

Others

IoT Microcontroller Regional Outlook (Revenue: USD Billion, 2018 - 2030)

North America

US

Canada

Mexico

Europe

UK

Germany

France

Asia Pacific

China

India

Japan

Australia

South Korea

Latin America

Brazil

Middle East & Africa (MEA)

UAE

Saudi Arabia

South Africa

Key Players in the IoT Microcontroller Market

Broadcom

Espressif Systems (Shanghai) Co., Ltd

Holtek Semiconductor Inc.

Infineon Technologies

Microchip Technology Inc.

Nuvoton Technology Corporation

NXP Semiconductors

Silicon Laboratories

STMicroelectronics

Texas Instruments Incorporated

Renesas Electronics Corporation

Order a free sample PDF of the IoT Microcontroller Market Intelligence Study, published by Grand View Research.

[creativeera]

IoT Microcontroller Market Poised to Witness High Growth Due to Massive Adoption

The IoT microcontroller market is expected to enable connectivity of various devices used in applications ranging from industrial automation to consumer electronics. IoT microcontrollers help in building small intelligent devices that collect and transmit data over the internet. They offer benefits such as compact design, low-power operation and integrated wireless communication capabilities. With increasing connectivity of devices and growing demand for remote monitoring in industries, the adoption of IoT microcontrollers is growing significantly. Global IoT microcontroller market is estimated to be valued at US$ 6.04 Bn in 2024 and is expected to reach US$ 14.85 Bn by 2031, exhibiting a compound annual growth rate (CAGR) of 13.7% from 2024 to 2031.

The burgeoning need for connected devices across industries is one of the key factors driving the demand for IoT microcontrollers. Various industries are rapidly adopting IoT solutions to improve operational efficiency and offer enhanced customer experience through remote monitoring and management. Additionally, technology advancements in wireless communication standards such as Bluetooth 5, WiFi 6, and LPWAN are allowing development of low-cost IoT devices with extended range, which is further fuelling market growth. Key Takeaways Key players operating in the IoT microcontroller are Analog Devices Inc., Broadcom Inc., Espressif Systems (Shanghai) Co., Ltd., Holtek Semiconductor Inc., Infineon Technologies AG, Integrated Device Technology, Inc.,and Microchip Technology Inc. Key opportunities in the market include scope for integrating advanced features in microcontrollers to support new wireless technologies and opportunity to develop application-specific microcontrollers for niche IoT markets and applications. There is significant potential for IoT Microcontroller Market Growth providers to expand globally particularly in Asia Pacific and Europe owing to industrial digitalization efforts and increasing penetration of smart homes and cities concept in the regions. Market drivers Growing adoption of connected devices: Rapid proliferation of IoT across various industries such as industrial automation, automotive, healthcare is fueling demand for microcontroller-based solutions. IoT devices require microcontrollers to perform essential tasks like data processing and wireless communication. Enabling technologies advancements: Improvements in low-power wireless technologies, Embedded Systems, and sensors are allowing development of advanced yet affordable IoT solutions leading to new applications for microcontrollers. Market restraints Data privacy and security concerns: Use of IoT microcontrollers makes devices vulnerable to cyber-attacks and privacy breaches raising concerns among users. Addressing security issues remain a challenge restricting broader adoption. Interoperability issues: Lack of common communication protocols results in devices inability to communicate with each other smoothly restricting large-scale IoT deployments.

Segment Analysis The IoT Microcontroller Market Regional Analysis is segmented based on product type, end-use industry, and geography. Within product type, 8-bit microcontrollers dominate the segment as they are cheaper and suit basic IoT applications requiring low power consumption. Based on their wide usage in wearable devices, home automation systems, and smart appliances, 8-bit microcontrollers capture over 50% market share. 32-bit microcontrollers are gaining popularity for complex industrial, automotive and networking applications. The end-use industry segments of IoT microcontroller market include consumer electronics, automotive, industrial automation, healthcare, and others. Consumer electronics captures a major share owing to exponential increase in number of smart devices. Wearable fitness bands and smartwatches incorporate IoT microcontrollers to track vitals and connect to networks. Furthermore, incorporation of microcontrollers in smart home appliances like refrigerators, air conditioners, and washing machines are supporting the consumer electronics segment growth. Global Analysis In terms of regions, Asia Pacific dominates the IoT microcontroller market led by rising electronics production in India and China. counties like China, Japan and South Korea are major manufacturing hubs for smart appliances and wearable devices, driving the regional market. North America follows Asia Pacific in terms of market share led by growing industrial automation and presence of automotive giants in the US and Canada adopting connected car technologies. Europe captures a significant market share with growing penetration of IoT across industry verticals in major countries like Germany, UK and France. Middle East and Africa offer lucrative opportunities for embedded software development and IoT services companies eying untapped markets.

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About Author:

Ravina Pandya, Content Writer, has a strong foothold in the market research industry. She specializes in writing well-researched articles from different industries, including food and beverages, information and technology, healthcare, chemical and materials, etc. (https://www.linkedin.com/in/ravina-pandya-1a3984191)