Author: Arnes Biogradlija

Kawasaki has taken a bold step in attempting to integrate hydrogen technology into motorcycles, developing motorcycle and scooter prototypes that run on hydrogen. Recent patent drawings showcase a hydrogen-powered motorcycle and a scooter, highlighting significant challenges. Unfortunately, these designs inadvertently showcase that current hydrogen technology may not be practical for such applications due to space constraints. Hydrogen’s Lower Energy Density The root issue with using hydrogen as a fuel lies in its lower energy density than traditional gasoline. Although one kilogram of hydrogen contains nearly three times the energy of one kilogram of gasoline, the volume required to store hydrogen…

 The U.S. Department of Energy (DOE) recently announced a significant investment of $18 million to advance research in hydrogen detection systems. This funding demonstrates the government’s commitment to supporting hydrogen technology, which is crucial for achieving clean energy goals. Improving Safety and Efficiency Hydrogen detection systems are vital for ensuring the safety and efficiency of hydrogen fuel use. These systems detect leaks, preventing potential hydrogen production, storage, and utilization hazards. The DOE aims to make hydrogen a more reliable and safe energy source by improving these detection systems. Encouraging Innovation and Collaboration The $18 million funding will be allocated to…

BORSIG ZM Compression GmbH has reached a significant milestone in hydrogen storage technology with the successful factory test run of the first three Bx36 series reciprocating compressors. These compressors are pivotal in RWE Gas Storage West GmbH’s hydrogen cavern storage project in Gronau-Epe, Germany. The project is expected to become the country’s first commercially operated underground hydrogen storage facility, marking a significant step in Germany’s energy transition. Advanced Compressors for Hydrogen Storage BORSIG ZM’s Bx36 compressors are designed to handle the high differential pressures required for hydrogen storage. Each compressor boasts a drive power of 2800 kW and a large…

Sumitomo Mitsui Banking Corporation (SMBC) has invested in the Japan Hydrogen Fund as a major limited partner (LP). Sumitomo Mitsui DS Asset Management (SMDAM) will also provide fund management services. SMBC made this investment through the Social Value Creation Investment Fund, which is part of SMBC Group and supports customers in starting new businesses, developing new technologies, and boosting industries. Fund Management The Japan Hydrogen Fund will be managed by SMDAM, Advantage Partners (AP), and The Japan Hydrogen Association (JH2A). SMDAM will handle fund management and sustainable investment evaluations, AP will give investment advice and operational support, and JH2A will…

Hydrogen metallurgy technology is heralded as a groundbreaking pathway for achieving carbon neutrality in the iron and steel industry. However, the journey towards its widespread adoption has been fraught with economic and logistical challenges, particularly in China. Recent research published in the International Journal of Hydrogen Energy explores these complexities. It provides a detailed forecast of the most reasonable times for steel enterprises to invest in hydrogen metallurgy projects. Economic Viability Post-2026 and 2048 The researchers established a predictive model that suggests hydrogen-rich blast furnace (hydrogen-rich BF) injection technology will become economically advantageous after 2026 for steel enterprises. This technology…

The research focuses on the crucial role of hydrogen technologies in decarbonizing heavy-duty transportation, specifically Class 8 trucks. As the world grapples with climate change, reductions in CO2 emissions are essential. Unfortunately, sectors such as trucking face unique challenges due to their high energy needs and the complexity of electrification. In light of this, the California Air Resources Board’s Advanced Clean Trucks rule mandates a shift towards zero-emission vehicles. Batteries, though viable for light vehicles, pose weight and charging challenges for heavy trucks. Hydrogen trucks emerge as a potential solution, capable of delivering diesel-like performance with minimal payload sacrifices. Cryo-Compressed…

Australia and Germany are joining forces to invest $660 million in hydrogen projects as part of a new energy partnership. This cooperation is seen as a major step towards expanding the use of clean energy technologies. Hydrogen, often referred to as the fuel of the future, has the potential to significantly reduce greenhouse gas emissions. Both countries aim to establish a more sustainable energy supply chain that will benefit their economies and contribute to global environmental goals. The investment will focus on developing hydrogen production methods, infrastructure, and applications. Australia has abundant natural resources that are ideal for producing hydrogen,…

Australia is gearing up for an ambitious plan to export green hydrogen by 2030. The government has earmarked $5 billion for this initiative, aiming to position the country as a global leader in this emerging market. Green hydrogen, produced using renewable energy sources like wind and solar power, emits no greenhouse gases, making it a cleaner alternative to fossil fuels. Australia’s Role and Potential Australia is uniquely positioned to benefit from this shift to green hydrogen. With abundant sunlight and vast land areas suitable for solar and wind farms, the country has the potential to generate large quantities of renewable…

The transition to renewable energy sources is accelerating, and hydrogen is poised to play a pivotal role. With its potential as a clean fuel and energy carrier, hydrogen production from renewable sources is gaining significant attention. This article explores the innovative concept of offshore hydrogen production platforms, offering a solution for efficient and safe hydrogen generation at sea. The Need for Offshore Hydrogen Production Offshore wind power generation is rapidly expanding, providing a vast renewable energy resource. Combining offshore wind farms with hydrogen production facilities presents an attractive opportunity to harness this energy efficiently. The hydrogen produced offshore can be…

The rapid development of offshore wind power in recent years presents a unique opportunity to address this freshwater challenge. With large deck areas and variable loads, offshore floating wind turbines are well-suited to accommodate high-power hydrogen production equipment. Moreover, the abundant seawater surrounding these turbines offers a virtually limitless resource for hydrogen generation. However, direct seawater electrolysis remains in the developmental stage, leaving indirect seawater electrolysis, which couples seawater desalination with alkaline water electrolysis as the most viable solution. A Novel System for Indirect Seawater Electrolysis A groundbreaking system and method have been developed to enable hydrogen production through water…