5G, 6G, RFID & Telecoms

High-performance computing, 6G communication, autonomous vehicle chips, and consumer electronics are all key markets that benefit from advancing semiconductor packaging. IDTechEx's report, "Advanced Semiconductor Packaging 2024-2034: Forecasts, Technologies, Applications", goes into detail about emerging technologies, including 2.5D and 3D packaging.

Silver-flake-based inks currently dominate the conductive inks market, but the outlook for non-silver inks is set to change dramatically over the coming decade, with a CAGR of 24%. Stretchable/thermoformable inks and copper inks will seize the largest market share, driven by applications such as in-mold electronics, wearable electrodes, and RFID & smart packaging.

The rise of co-packaged optics is transforming modern data centers and high-performance networks by addressing critical challenges such as bandwidth density, energy efficiency, and scalability. CPO enhances interconnect bandwidth and energy efficiency by integrating optics and electronics within a single package, significantly shortening electrical link lengths.

Photonic Integrated Circuits are photonic circuits formed on a semiconductor material that allows light to pass through it, such as silicon dioxide, also known as Silica (or Glass). These photonic circuits contain components for manipulating light passing through the circuit, enabling functionalities such as data transmission, sensing, and processing within a compact form factor. PICs are fundamentally altering how we manage and utilize optical signals, paving the way for advancements across multiple industries.

IDTechEx projects that the combined market for optical and radio-frequency metamaterials will reach US$15 billion by 2034. This article will delve into the key applications driving the expansion of the Radio-Frequency (RF) metamaterial market.

Thursday 15 August 2024 - Co-Packaged Optics (CPO) Unveiled: Network Evolution, Packaging Innovation, and Market Trends. With data centers experiencing unprecedented demand for higher data throughput and improved power efficiency driven by the rise of AI, machine learning, and the proliferation of cloud-based services, there is an urgent need for innovative solutions to enhance network infrastructure. CPO is rapidly gaining traction as it promises to address the limitations posed by traditional pluggable optical modules.

With the ever-increasing need for heat dissipation, high-performance thermal interface materials with higher thermal conductivity and other properties are becoming essential. Driven by this trend, a number of high-performance TIMs are emerging. This article primarily introduces the advantages and drawbacks of advanced carbon-based TIMs. However, it is worth noting that many other TIMs offer superior performance.

The Paris 2024 Olympic Games are underway, and elite athletes from all over the world are competing in various games using a range of different skills. With constant debate over gold, silver, and bronze medals, a comparison can be made with the conductive inks market. Silver flake-based inks are set to win gold in a number of different application areas, beating out competition from a host of conductive ink types.

Over the past decade, the capacity of data center Ethernet switches has surged from 0.64 Tbps to 25.6 Tbps, driven by the adoption of 64x400 Gbps or 32x800 Gbps pluggable optical transceiver modules. However, these high-speed modules, within their current form factors, pose significant challenges. Issues include the required densities of electrical and optical connectors, as well as escalating power consumption.

Thermal interface materials (TIMs) are composed of thermal fillers and matrix materials. Thermal fillers are highly thermally conductive substances, while matrix materials are typically used to enhance mechanical properties.