• Become a member
  • Log In
The Institution of Electronics
  • Home
  • About us
    • Our Objectives
    • Our History
    • Governance of the Institution
  • The Electron Magazine
    • 2024
      • 2024 – Winter
      • 2024 – Spring
      • 2024 – Summer
      • 2024 – Autumn
    • 2025
      • 2025 – Winter
      • 2025 – Spring
      • 2025 – Summer
      • 2025 – Autumn
    • 2026
      • 2026 – Winter
      • 2026 – Spring
  • Members
    • Membership Grades and Fees
    • Members’ Resources
      • The Electron Newsletter
      • The Archives
  • Education and Projects
    • National Electronics Competition
    • Student Members’ Projects
    • Arkwright Engineering Scholarships
  • News
  • Contact Us
  • Menu Menu
Uncategorised

The AI design world in 2026: What you need to know

We live in an AI era, but behind the buzzword lies an intricate world of hardware and software building blocks. Like every other design, AI systems span multiple dimensions, ranging from processors and memory devices to interface design and EDA tools. So, EDN is publishing a special section that aims to untangle the AI labyrinth and thus provide engineers and engineering managers greater clarity from a design standpoint.

For instance, while AI is driving demand for advanced memory solutions, memory technology is taking a generational leap by resolving formidable engineering challenges. An article will examine the latest breakthroughs in memory technology and how they are shaping the rapidly evolving AI landscape. It will also provide a sneak peek at memory bottlenecks in generative AI, as well as thermal management and energy-efficiency constraints.

Figure 1 HBM offers higher bandwidth and better power efficiency in a similar DRAM footprint. Source: Rambus

Another article hits the “memory wall” currently haunting hyperscalers. What is it, and how can data center companies confront such memory bottlenecks? The article explains the role of high-bandwidth memory (HBM) in addressing this phenomenon and offers a peek into future memory needs.

Interconnect is another key building block in AI silicon. Here, automation is becoming a critical ingredient in generating and refining interconnect topologies to meet system-level performance goals. Then, there are physically aware algorithms that recognize layout constraints and minimize routing congestion. An article will show how the phenomena work while also showing how AI workloads have made existing chip interconnect design impractical.

Figure 2 The AI content in interconnect designs facilitates intelligent automation, which in turn, enables a new class of AI chips. Source: Arteris

No design story is complete without EDA tools, and AI systems are no exception. An EDA industry veteran writes a piece for this special section to show how AI workloads are forcing a paradigm shift in chip development. He zeroes in on the energy efficiency of AI chips and explains how next-generation design tools can help design chips that maximize performance for every watt consumed.

On the applications front, edge AI finally came of age in 2025 and is likely to make further inroads during 2026. A guide on edge AI for industrial applications encompasses the key stages of the design value chain. That includes data collection and preprocessing, hardware-accelerated processing, model training, and model compression. It also explains deployment frameworks and tools, as well as design testing and validation.

Figure 3 Edge AI addresses the high-performance and low-latency requirements of industrial applications by embedding intelligence into devices. Source: Infineon

There will be more. For instance, semiconductor fabs are incorporating AI content to modernize their fabrication processes. Take the case of GlobalFoundries joining hands with Siemens EDA for fab automation; GF is deploying advanced AI-enabled software, sensors, and real-time control systems for fab automation and predictive maintenance.

Finally, and more importantly, this special section will take a closer look at the state of training and inference technologies. Nvidia’s recent acquisition of Groq is a stark reminder of how quickly inference technology is evolving. While training hardware has captured much of the limelight in 2025, 2026 could be a year of inference.

Stay tuned for more!

Related Content

  • The network-on-chip interconnect is the SoC
  • An edge AI processor’s pivot to the open-source world
  • Edge AI powers the next wave of industrial intelligence
  • Four tie-ups uncover the emerging AI chip design models
  • HBM memory chips: The unsung hero of the AI revolution

The post The AI design world in 2026: What you need to know appeared first on EDN.

14 January 2026
http://institutionofelectronics.ac.uk/wp-content/uploads/2022/12/IOE_LOGO.png 0 0 whdsolutions http://institutionofelectronics.ac.uk/wp-content/uploads/2022/12/IOE_LOGO.png whdsolutions2026-01-14 12:14:292026-01-14 12:14:29The AI design world in 2026: What you need to know

Latest news

  • Secrets of Oscilloscope Time Measurements14 August 2026 - 13:44
  • Radon: Level detection, risk determination, and as-needed mitigation13 August 2026 - 13:16
  • TI a first mover in CAN XL transceivers13 August 2026 - 10:13
  • Four-channel USB-UART IC boosts server management13 August 2026 - 05:08
  • eFuse speeds overcurrent detection13 August 2026 - 05:08
  • Memory platform tackles AI bottlenecks13 August 2026 - 05:08
  • 6.5-kV SiC MOSFET reaches 8-kV blocking13 August 2026 - 05:08
  • Made by Google 2026: This limited silicon-supply situation really sucks13 August 2026 - 05:08
  • Cheap and cheerful LMC555 RC PWM pulse generator12 August 2026 - 13:56
  • Record high wafer shipments. Can fabs keep pace?12 August 2026 - 07:51
IOE LOGO 2

Become a member

click here

Become a member

click here

Become a subscriber

click here

Become a sponsor

click here

© Copyright - The Institution of Electronics | Website by WHD Solutions
  • Link to LinkedIn
  • Link to Facebook
  • Link to X
Link to: 5 octave linear(ish)-in-pitch power VCO Link to: 5 octave linear(ish)-in-pitch power VCO 5 octave linear(ish)-in-pitch power VCO Link to: Extend the LM358 op-amp family’s output voltage range Link to: Extend the LM358 op-amp family’s output voltage range Extend the LM358 op-amp family’s output voltage range
Scroll to top Scroll to top Scroll to top