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DISCOVERING TRUTHS

Delve into the world of material science and battery technology with expert insights. Join us on our journey of discovery and innovation.
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Why breakthrough technologies fail to be adopted
Scale-up, risk, and system inertia We already knew enough “decent technology.” No sooner had the fire risk of lithium-ion batteries been raised than an announcement of a breakthrough in research on an all-solid-state battery was made. In a similar case, solar and wind power sources have been among the most prominent alternatives to existing fossil-fuel power plants across recent years. Nevertheless, those sources still accounted for approximately 15% of the global energy sup


Thermodynamic and Material Challenges in High-Temperature Reforming Processes
A threshold temperature of 700 °C is required for operating the catalyst once applied to Steam Methane Reforming (SMR) and Autothermal Reforming (ATR) for converting methane gas to hydrogen gas. There is a severe drawback to increasing by 700 °C, beyond the additional energy required. In this blog post, I will outline possible reasons we should use low-temperature catalysts from an engineering perspective. 1. Increasing the amount of energy/heat loss: According to the Stefa


Advancing Catalyst Design for Energy-Efficient Hydrogen Production
As discussed in my last blog post, the Selective Catalytic Reduction (SCR) method uses catalysts to selectively capture degradation products (especially NO and NO2) in the Post-Carbon-Capture system. Traditionally, vanadium-based catalysts are widely used for their high efficiency at high temperature range (350–400°C) in industrial plants, as well as their cost-effectiveness compared to expensive precious metals like platinum. This doesn’t mean, however, that effectiveness is
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