A new wave of electronics manufacturing is on the horizon, driven forward by volatile energy prices and increasing demand for sustainability. With the electronics industry accounting for 4% of global greenhouse gas emissions, it requires substantial innovation to reduce its environmental footprint.

Thin film photovoltaics (PV) have historically played second fiddle, dwarfed by the multi-billion US dollar silicon PV industry. This may be about to change. Emerging PV applications, such as indoor energy harvesting and building integrated PV, have specific requirements that will enable thin film silicon alternatives to flourish.

A key requirement for every company in the polymer value chain is to develop and deliver a sustainability roadmap. The market drivers are becoming more significant, and industry activity is responding accordingly.

Recognized as one of the key technologies essential to achieving net-zero emissions targets, the momentum behind carbon capture, utilization, and storage (CCUS) deployment is building up.

The world of healthcare is undergoing significant change. The stress test of the pandemic, a growing global population, and increasing chronic disease prevalence is pushing care to be more efficient and robust.

The race to decarbonize on-road vehicles is undoubtedly being led by battery-electric powertrains. However, the superior energy density of fuel cell systems, when compared to today's Li-ion battery systems, means that they can deliver a greater range for the same system weight.

The world is on a quest for solutions to decarbonize its economy. More than 70 countries and over 1,200 companies have set a net-zero target, according to the United Nations. To limit warming to less than 2°C, emissions of hundreds of gigatonnes of carbon dioxide (CO₂) would need to be prevented and removed from the atmosphere.

IDTechEx's newly released report "Conductive Ink Markets 2023-2033" comprehensively explores this crucial material technology that underpins both photovoltaics and the emerging field of printed electronics.

It has been another momentous year for electric vehicle markets and technologies, with major policy developments, sales growth, and landmark models set to enter the market.

Tuesday 29 November 2022 - This webinar includes case studies showing successful commercialization examples from 2022 across multiple market sectors; Discussion of anticipated announcements in 2023; Brief assessment of the status and potential of printed/flexible electronics; and Identification and assessment of technological gaps likely to be an R&D focus in 2023

Ever wondered how a touch-sensitive screen works? The answer is capacitive sensing, which can detect the presence of your finger through the protective glass sheet and doesn't require any pressure.

As the world adopts more wearable technology into our daily lives, the next generation of electronic wearables are ascending: the electronic skin patch. In diabetes and heart monitoring, electronic skin patches have already transformed the industry. These devices may well enable a revolution for the rest of healthcare and beyond.

Ever-increasing levels of vehicle autonomy are poised to revolutionize both personal and freight transport, reducing time spent sitting in traffic and ushering in new transportation modes such as robotaxis. Of course, autonomy and even ADAS (advanced driver assistance systems) requires vehicles to constantly have a clear picture of their surroundings.

Could gas sensors facilitate the safe use of wood-burning stoves to combat the energy crisis? With the cost of energy rising dramatically, interest in wood-burning stoves is growing as they become 'more financially appealing than ever'.

Despite strong incumbent materials for certain components, the technology landscape for proton exchange membrane (PEM) fuel cells is set to change in many varied ways over the coming years. An increased materials demand in terms of both volume and units, reducing the cost of components, and the emergence of disruptive technologies are all expected, while supply chain agreements are being established and strengthened across the industry. Alongside the growth in demand, emerging trends, and player analysis, IDTechEx detail how the associated materials market for PEM fuel cells is expected to exceed a value of US$7bn by 2033.

While electric cars will remain the largest electric vehicle market for the foreseeable future in terms of battery demand and market revenue generation, most transport sectors are facing a transition. In this article, IDTechEx summarizes key developments in non-automotive sectors, showing each sector's global battery demand (in 2021) for relative scale.

Photovoltaics is the fastest-growing energy source. Of the thin film PV technologies, cadmium telluride (CdTe) dominates. It is largely concentrated within the US, where it accounts for 40 % of US utility-scale PV power. In recent years, the commercial efficiency of CdTe panels has been playing a catch-up game with conventional silicon and is currently trailing by ~3 %. Efficiency, however, is not the only deciding factor.

Where does 5G stand three years after its first commercialization in 2019? Let's start with the frequency band. We know that the sub-6 GHz (3.5 - 7 GHz) and millimeter wave (mmWave, >24 GHz) bands are the two new bands among the spectrum covered in 5G. Despite the hype surrounding mmWave, according to IDTechEx's "5G Market 2023-2033: Technology, Trends, Forecasts, Players" report, 53% of 5G commercial/pre-commercial services are actually based on sub-6 GHz, with mmWave accounting only for less than 10% of the market.

The development of wireless charging systems for electric vehicles (EVs) has slowly picked up momentum over the past decade. This charging solution relies on the principle of resonant inductive coupling to achieve wireless power transfer (WPT) from a ground-based pad to a vehicle-fitted pad. Drivers should simply align their vehicles with the ground pad for charging to begin automatically, eliminating the need to plug in.

The true description of graphene is that of a single atomic layer of carbon atoms arranged in a hexagonal array. However, the nanocarbon material landscape is much more complicated than this simple statement, with single-layer, few-layer, multi-layer, graphene nanoplatelets (GNPs) and both graphene oxide (GO) and reduced graphene oxide (rGO) all to be considered as types of graphene.