Off Grid

Thursday 28 March 2024 - Technology & Market Developments for Electrolyzers in Green Hydrogen Production - Introduction to the hydrogen economy and green hydrogen production; Overview of the incumbent electrolyzer technologies; Current state of electrolyzer manufacturing and market; Key innovations needed in electrolyzer technology & overview of novel technologies; Electrolyzer market growth drivers and market outlook

Bipolar plates are crucial components in proton exchange fuel cells, representing a substantial portion of the value of the fuel cell stack. IDTechEx predicts that their market value will surpass US$2.5 billion by 2034. The choice between metal and graphite materials for bipolar plates is a significant consideration, with each option having distinct advantages depending on the specific application.

As the volume of variable renewable energy (VRE) sources penetrating electricity grids increases globally, so does the need to manage the increasing uncertainty and variability in electricity supply. Long duration energy storage (LDES) technologies will be needed in key regions from the 2030s to support electricity grids with greater penetrations of VRE.

The clean hydrogen market is poised for significant growth, driven by the increasing focus from companies and governments on developing green hydrogen infrastructure to decarbonize hard-to-abate industries. The electrolyzer is a key component of the green hydrogen plant, responsible for the splitting of water molecules into hydrogen and oxygen using renewable energy.

The production of green hydrogen continues to be the focus of many governmental and corporate decarbonization strategies. The electrolyzer is a key technology that enables green hydrogen production by splitting water molecules into hydrogen and oxygen using renewable electricity. Many focus on the need for large-scale green hydrogen plants as well as electrolyzer manufacturing facilities.

In a world with a growing population and a rapidly expanding construction sector to match, how do we prevent building homes from damaging our climate? Concrete is the second most consumed material on Earth, but its key ingredient, cement, is responsible for 7% of global anthropogenic CO2 emissions. The answer could come from thin air - CO2-derived building materials.

Thursday 22 February 2024 - Discuss the key components of a PEM fuel cell, including their purpose, form factor, and possible material choices; Highlight innovations in alternative materials and manufacturing processes with respect to the incumbents and the impact of proposed regulations; Outline key technology trends for materials, including the driving forces behind these trends; Overview of the PEM fuel cell market within the context of the broader fuel cell electric vehicle market

Electromagnetic interference shielding is becoming more adapted to the meet demands of growing communications technology. Personal devices are everywhere. As they get thinner, the components in each device are getting closer together, and EMI shielding is becoming well-known as the mastermind.

Handbags made of mushroom leather and biodegradable foodware are two examples of how white biotechnology can produce functional products that look good. With the right input feedstock, such as biomass or gases, and the right fermentation processes, the outputs of white biotechnology processes can be utilized in textiles, chemicals, and fuels.

With the growing hydrogen economy, proton exchange membrane (PEM) fuel cells are the subject of ongoing innovation, especially in terms of materials development. Dominant incumbent materials are seen for certain components, but alternative competitive options are emerging, and the technology landscape is beginning to shift.