NEWHYDROGEN INC - NEWH STOCK NEWS

NewHydrogen, Inc. (OTCMKTS:NEWH), developer of ThermoLoop™ technology, hosted a podcast featuring CEO Steve Hill and Dr. Alex Dowling, Associate Professor at the University of Notre Dame. The discussion focused on hybrid energy systems that co-produce hydrogen and electricity.

Dr. Dowling highlighted a Department of Energy-sponsored project combining nuclear power with on-site electrolyzers for hydrogen production. He emphasized the importance of flexible energy systems to balance variability from renewable sources, noting their potential for economic and operational benefits in electricity markets and grid resilience.

The podcast explored the future of hybrid energy systems, with both experts agreeing on the urgency of advancing these technologies for a stable and efficient energy infrastructure. Dr. Dowling expressed optimism about market incentives for early adopters and the growing need for innovative energy solutions.

NewHydrogen, Inc. (OTCMKTS:NEWH), developer of ThermoLoop™ technology for producing green hydrogen, has announced the addition of Dr. Yikyeom Kim to their UCSB Technology Team. Dr. Kim joins Drs. Philip Christopher and Eric McFarland at the University of California, Santa Barbara, to advance the company's cost-effective thermochemical water splitting technology.

Dr. Kim's expertise in fabrication of tailored redox catalysts and system analysis of gas-solid reactions is expected to accelerate the development of entropy-driven thermochemical processes. His background includes doctoral research at KAIST, focusing on perovskite oxides for chemical looping hydrogen production, and collaboration with LOTTE Chemical Corp. on hydrogen production from waste plastic resources.

NewHydrogen's ThermoLoop™ process uses inexpensive heat instead of electricity to split water, aiming to produce the world's cheapest green hydrogen. The ongoing research at UCSB, which began in August 2023, focuses on developing unique materials for this cyclic process.

NewHydrogen, Inc. (OTCMKTS:NEWH), developer of ThermoLoop™ technology, hosted a podcast featuring CEO Steve Hill and Dr. William Scheideler, Associate Professor at Dartmouth College's Thayer School of Engineering. The discussion focused on scalable nanomanufacturing and 3D materials for energy applications, with emphasis on Perovskite solar cells and green hydrogen generation through electrocatalysis.

Dr. Scheideler's research group is developing earth-abundant materials for electrocatalysis to replace expensive platinum and iridium oxide catalysts in water electrolysis. He highlighted the potential of Perovskite solar cells as ultra-thin, lightweight, and cost-effective alternatives. The podcast also explored hydrogen as a promising solution for storing intermittent renewable energy, offering advantages over battery storage and pumped hydro systems.

The discussion touched on the U.S. Department of Energy's target of $1/kg for hydrogen production cost, with Dr. Scheideler emphasizing the importance of using commercially viable materials and creating ordered structures to increase efficiency in hydrogen production.

NewHydrogen, Inc. (OTCMKTS:NEWH), developer of ThermoLoop™, hosted a podcast featuring CEO Steve Hill and Dr. Walter van Schalkwijk, an Affiliate Professor at the University of Washington. Dr. van Schalkwijk advocates for a thermal approach to green hydrogen production, stating it's key to meeting future energy demands sustainably. He criticizes current electrolysis methods for high energy consumption and reliance on rare earth materials, estimating they could only meet 10% of energy needs.

Dr. van Schalkwijk proposes a decentralized approach using readily available materials like sand, heated by excess solar energy, to generate hydrogen locally. This method could bypass dependence on imported energy sources and create a more resilient energy infrastructure. He emphasizes the need for a new way to produce hydrogen that moves beyond energy-intensive resource use.

NewHydrogen (OTCMKTS:NEWH) has reported progress on its ThermoLoop™ technology, developed in collaboration with UC Santa Barbara (UCSB) to produce low-cost green hydrogen. This innovative process uses heat instead of electricity to split water, potentially reducing production costs significantly. The UCSB team has made notable advancements, including:

1. Building a reactor test stand that successfully generates hydrogen and oxygen
2. Conducting thermodynamic screenings for new materials
3. Validating the foundational science behind ThermoLoop™
4. Identifying key co-reactants for water splitting under 1000°C

Future plans include exploring novel material systems, upgrading the test stand, developing a technoeconomic analysis, and optimizing material compositions to further reduce green hydrogen production costs.

NewHydrogen, Inc. (OTCMKTS:NEWH), developer of ThermoLoop™ technology for cheap green hydrogen production, hosted a podcast featuring CEO Steve Hill and Bentzion Levinson, CEO of Heven Drones. Levinson, a former Israeli military commander, is revolutionizing the drone industry with hydrogen-powered aircraft. Heven Drones' models can carry up to 70 pounds and fly for 4-10 hours on a single tank, addressing limitations of battery-powered drones.

The company is the sole supplier of hydrogen-powered drones to the Israeli government and collaborates with partners in the US and internationally. Levinson emphasized the importance of cost-effective hydrogen production, highlighting potential collaboration with companies like NewHydrogen to support the growth of the hydrogen economy.

NewHydrogen CEO Steve Hill recently interviewed Dr. Haotian Wang, Associate Professor at Rice University, about green hydrogen production challenges and advancements. Dr. Wang highlighted the current high cost of green hydrogen ($5-6/kg) and the DOE's goal to reduce it to $1/kg by 2030. He emphasized the need for technological innovations and supply chain collaborations to achieve this target.

The discussion covered challenges in water electrolysis, including the use of rare metals like iridium and the need for more abundant, cost-effective alternatives. Dr. Wang stressed the importance of durability and scalability in scaling up technologies for electrolysis to play a significant role in decarbonizing chemicals and fuels. The interview also addressed the gap between academic research and industrial needs, suggesting increased collaboration to bridge this divide.

NewHydrogen's CEO Steve Hill recently interviewed Dr. Carol Parish, a renowned computational scientist, on the NewHydrogen Podcast. The discussion focused on AI's role in advancing hydrogen storage solutions and its potential impact on renewable energy. Dr. Parish highlighted how AI can help scientists solve energy problems by exploring molecular possibilities for efficient hydrogen storage.

The conversation also touched on the synergy between renewable energy, data centers, and green hydrogen storage. Dr. Parish's research on organic-based radical molecules for environmentally friendly batteries was discussed, showcasing the importance of computational science in developing sustainable energy solutions.

Dr. Parish, a distinguished professor at the University of Richmond, has an extensive background in computational chemistry and has received numerous awards for her work in advancing diversity in chemical sciences and supporting undergraduate research.

NewHydrogen (OTCMKTS:NEWH) has announced that Dr. Justin Marlowe has joined the UCSB Technology Team to develop their ThermoLoop™ technology. This innovative process uses water and heat instead of electricity to produce cost-effective green hydrogen. Dr. Marlowe, who holds a Ph.D. in Chemical Engineering from UCSB, brings expertise in materials characterization and reaction engineering.

He will work alongside Dr. Phil Christopher and Dr. Eric McFarland at UCSB to optimize the thermochemical water splitting process. NewHydrogen CEO Steve Hill expressed confidence that Dr. Marlowe's addition will accelerate progress towards the company's objectives in developing scalable green hydrogen production.