Monday 25 November 2024 - Navigating The Momentum Pushing the Per- And Polyfluoroalkyl Substances (PFAS) Treatment Market to US$2.3 billion by 2035. Regulatory trends and standards from key regions such as the US, the EU, and Asia-Pacific, highlighting differences in regulations and their implications for PFAS treatment markets; The incumbent and emerging PFAS treatment technology landscape: granular activated carbon, ion exchange resins, foam fractionation, etc; Introduction to PFAS destruction and relevant technologies; Key players in PFAS removal and destruction technologies

While sensors contribute just a fraction of the annual revenue generated by major electronics companies, sensor technology nevertheless represents a multi-billion-dollar global market.

The electrification of vehicle fleets globally continues to create demand for rare earth magnets. With China being the largest electric vehicle market, rare earth permanent magnet motors are expected to retain the majority of the electric motor market share.

Given helium's critical role in semiconductor production, onshoring chip manufacturing will have a significant knock-on impact on the helium demand for semiconductor manufacturing.

While most of the voluntary market saw a downturn in 2023, corners of the market selling durable, carbon removal credits are flourishing and playing a vital role in supporting emerging technologies such as direct air capture and CO2 utilization in concrete.

Leading companies like AMD and Intel have adopted chiplet designs in products such as AMD's EPYC processors and Intel's Ponte Vecchio GPUs. This widespread adoption underscores the growing importance of chiplets in high-performance computing applications.

With so many PFAS and just as many applications for them, why are PFAS now coming under increased scrutiny? Scientific evidence is growing that, depending on different factors, continued exposure to specific PFAS may lead to negative health effects, such as increased risk of cancer, per the US EPA and the OECD.

As the world grapples with plastic waste, which is set to double by 2050, recycling alone cannot meet the growing demand for plastic feedstocks. This is where bioplastics come into play, offering a potential solution to reduce dependency on fossil fuels and minimize the environmental footprint.

Despite much investment and interest, some key questions surrounding sustainability and economic viability, as well as new regulatory pressures, are putting into question the future of this technology.

CPO represents a significant leap in data transmission technology by integrating the optical engine and the switching silicon onto the same substrate. This design eliminates the need for signals to traverse the PCB, further reducing the electrical channel path and significantly improving performance.

Thursday 10 October 2024 - An overview of bioplastics; How new Chinese regulations are transforming the industry; How other countries are approaching bioplastics regulations; The changing landscape of bioplastic applications; Why bio-composites using bioplastics are seeing increased interest and their challenges; IDTechEx's outlook and conclusions

The chemicals industry depends heavily on finite fossil fuel feedstocks and is responsible for 2% of global anthropogenic CO2 emissions. IDTechEx explores how captured CO2 could be utilized as a feedstock for hundreds of different chemicals instead, providing an economic and environmental incentive to capture carbon dioxide and create a circular economy.

With over 100 million electric vehicles (EVs) expected to reach end-of-life over the next two decades, IDTechEx's latest report predicts that the value of critical materials recovered annually by 2045 will surpass US$100B.

The Chinese market has seen an explosion in the production capacity for PLA, a biodegradable bioplastic. One of the effects of this shift in the market is that between 2025 and 2035, IDTechEx has forecast that PLA will increase its market share quite significantly, with it expected to hold around 30% of the bioplastics installed capacity.

Semiconductor manufacturing processes require many chemicals and specialty gases. Owing to its cryogenic properties, exceptional thermal conductivity, chemical inertness, and high diffusivity, helium is used throughout the semiconductor manufacturing line, particularly for wafer cooling where there are no viable alternatives.

Conductive inks are a diverse and versatile technology, with differing price points to suit various applications. Conductivity, stretchability, cost, and durability are just some of the factors of consideration for manufacturers when selecting ink types and materials, and IDTechEx's latest report, Conductive Inks Market 2024-2034: Technologies, Applications, Players, deep dives into the many combinations available.

Tuesday 24 September 2024 - How Chronic Supply Challenges Are Reshaping Helium Use in Key Industries. An overview of global helium production and supply; Impact of supply challenges on different industries e.g. semiconductors and fiber optics manufacturing, cryogenics, and several others; Technological advances to reduce helium consumption (e.g. MRI and NMR); Trends in the adoption of substitutes or reclamation systems; Outlook for global helium production capacity and demand

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.

Carbon capture technologies capable of removing CO2 from industrial emissions have been around for over 50 years, but widescale deployment of CCUS (carbon capture, utilization, and storage) has been too slow for global net-zero ambitions. While governments are beginning to implement carbon pricing mechanisms or tax credits to motivate permanent storage of CO2 deep underground, a profitable business model exists beyond CO2 sequestration via emerging CO2 utilization applications.