Jeremy Mccoy – Science https://scienmag.com Tue, 16 Jun 2026 15:04:26 +0000 en-US hourly 1 https://wordpress.org/?v=7.1 https://scienmag.com/wp-content/uploads/2024/07/cropped-scienmag_ico-32x32.jpg Jeremy Mccoy – Science https://scienmag.com 32 32 73899611 Insurance Shortfalls Challenge Expansion of Net-Zero Hydrogen Technologies https://scienmag.com/insurance-shortfalls-challenge-expansion-of-net-zero-hydrogen-technologies/ Tue, 16 Jun 2026 15:04:26 +0000 https://scienmag.com/insurance-shortfalls-challenge-expansion-of-net-zero-hydrogen-technologies/ The global shift toward net-zero emissions has thrust hydrogen into the spotlight as a promising energy vector capable of decarbonizing sectors traditionally reliant on fossil fuels. Yet, as hydrogen technologies surge from concept to commercial reality, a critical question has emerged: can the insurance industry keep pace with the novel risks intrinsic to these systems? A compelling new article published in Engineering unveils the stark challenge facing insurers and innovators alike. It argues that the nascent nature of hydrogen processes and infrastructures presents a complex risk landscape that current insurance frameworks are ill-equipped to navigate, potentially impeding large-scale deployment needed to meet climate goals.

Central to the discourse is the intricate, multifaceted nature of hydrogen technologies, encompassing production, storage, transport, and utilization systems. Unlike mature renewable technologies such as wind and solar, hydrogen operations are fraught with unique hazards—including extreme flammability, material embrittlement due to hydrogen exposure, and elusive leakage risks—that conventional insurance models have yet to thoroughly address. This gap in risk assessment and management means that financial security mechanisms crucial for investment confidence remain underdeveloped, posing a significant barrier to scalable hydrogen adoption.

The article elucidates that hydrogen’s promise as a clean energy carrier depends not only on decarbonized production but also on scaling the entire value chain rapidly and reliably. However, these pioneering engineering systems entail a gamut of evolving operational risks. These span from property damages and equipment failures to worker safety concerns heightened by hydrogen’s explosive potential. Cybersecurity risks also arise given the increasing digitalization of energy assets, while governance challenges manifest through liability exposures of company directors as projects push technical boundaries. Furthermore, these uncertainties extend into supply chain fragility and performance shortfalls during system ramp-up phases, compounding insurers’ difficulties in crafting comprehensive coverage.

Drawing a parallel to renewable energy insurance markets, the authors observe how wind and solar have benefited from years of data accumulation, modeling refinement, and standardization efforts that underpin sophisticated insurance offerings. This data-driven maturation enables parametric insurance and warranties that safeguard against specific performance metrics and supply chain disruptions. Yet, hydrogen insurance remains embryonic, characterized by cautious underwriting and limited products chiefly targeted at niche applications rather than broad industrial deployment. This immaturity translates to cost premiums and coverage limitations that stall financing and project momentum.

To transcend these hurdles, the article emphasizes the critical need for structured data collection and robust risk characterization specific to hydrogen processes. Without granular operational insights and validated risk models, insurers default to conservative stances that restrict underwriting appetite. The authors champion innovative insurance instruments, notably parametric policies calibrated to predefined risk triggers, and performance warranties that hedge against technology underperformance. These solutions can lower uncertainty for investors and catalyze capital flow, but their success hinges on collaborative data-sharing and transparent risk communication between all stakeholders.

Importantly, the narrative draws attention to a strategic opportunity for insurers. Engagement with hydrogen not only mitigates climate-related portfolio risks but also opens access to a burgeoning industrial market driven by global net-zero ambitions. Nonetheless, disconnects persist between technology developers’ needs and insurers’ capabilities, underscoring the urgency for proactive, multi-stakeholder dialogue. Fostering early-stage collaboration among engineers, academia, private sector, and insurance providers is pivotal to co-design risk assessment methodologies, standardize certification regimes, and ultimately align insurance solutions with engineering innovation trails.

Academia is positioned as a critical catalyst in this ecosystem. Researchers can bridge the gap by aggregating operational data, refining risk models via simulations and real-world studies, and facilitating standardization efforts that underpin insurer confidence. Such integrative efforts advance both scientific understanding and commercial viability. Aligning insurance mechanisms with engineering innovation timelines ensures risk management is embedded from technology readiness level milestones onward, thus streamlining the pathway from pilot projects to full-scale industrial rollouts.

The article also highlights the financial repercussions of currently inadequate insurance coverage. High premiums and coverage gaps retard investment flows and engender hesitancy among financiers wary of unquantified risks. As hydrogen projects are capital-intensive with long development horizons, risk mitigation via comprehensive insurance is non-negotiable for unlocking broader investor appetite. Hence, the advancement of hydrogen insurance products is not merely a financial instrument but a keystone for sustainable market adoption and technological acceleration.

Furthermore, the article delves into technical challenges such as hydrogen’s propensity to induce embrittlement in metals, which degrades structural integrity over time and raises maintenance costs. Insurance models must incorporate such materials science insights to accurately price and cover long-term durability risks. Leakage detection and mitigation technologies also play a vital role in controlling operational hazards, with insurance frameworks incentivizing advancements in sensor deployment and safety protocols. These technological synergies between engineering and insurance amplify resilience and facilitate risk reduction.

In conclusion, the article contends that unlocking hydrogen’s potential as a linchpin of a net-zero future demands a paradigm shift in insurance thinking coupled with systemic collaboration. By gathering rigorous data, designing bespoke risk instruments, and fostering cross-sector partnerships, the insurance market can evolve to support hydrogen innovation robustly. This evolution will serve as the linchpin of investor confidence, enabling swift scale-up while safeguarding public and environmental safety. Without such advancements, the hydrogen economy risks stalling, imperiling global decarbonization trajectories.

The implications extend beyond risk transfer to the very architecture of hydrogen energy systems. Insurance integration informs engineering decisions, safety standards, and policy frameworks, creating a virtuous cycle that harmonizes technical innovation with financial viability. The authors’ clarion call is clear: accelerating the hydrogen transition mandates bridging the gap between emergent technology risks and insurance market readiness. Achieving this nexus will be transformative—not only for hydrogen but for the broader energy transition imperative writ large.

Subject of Research: Insurance frameworks and risk management for new hydrogen technologies and adapted hydrogen processes.

Article Title: Insurance for New and Adapted Hydrogen Processes

News Publication Date: 15-Apr-2026

Web References:
https://doi.org/10.1016/j.eng.2025.11.018
https://www.sciencedirect.com/journal/engineering

Image Credits: Elisabeth Shrimpton, Nazmiye Balta-Ozkan

Keywords: Hydrogen, Net-Zero Energy Transition, Insurance, Risk Management, Engineering Innovation, Parametric Insurance, Performance Warranty, Material Embrittlement, Hydrogen Safety, Technology Readiness, Energy Decarbonization, Financial Instruments

]]> 166501 University of Oklahoma engineer receives $3.1M grant for clean hydrogen technologies https://scienmag.com/university-of-oklahoma-engineer-receives-3-1m-grant-for-clean-hydrogen-technologies/ Thu, 11 Apr 2024 22:22:05 +0000 https://scienmag.com/university-of-oklahoma-engineer-receives-3-1m-grant-for-clean-hydrogen-technologies/ NORMAN, OKLA. – Hanping Ding, Ph.D., an assistant professor in the School of Aerospace and Mechanical Engineering at the University of Oklahoma, has been awarded a $3.1 million grant from the Hydrogen and Fuel Cell Technologies Office in the Department of Energy through the Bipartisan Infrastructure Law to further research in clean hydrogen production. The funding is part of a $750 million effort in President Biden’s Investing in American agenda. The money from the Department of Energy will go to 52 projects across 24 states to position the United States as a global leader in the clean hydrogen industry.

Hanping Ding

Credit: University of Oklahoma

NORMAN, OKLA. – Hanping Ding, Ph.D., an assistant professor in the School of Aerospace and Mechanical Engineering at the University of Oklahoma, has been awarded a $3.1 million grant from the Hydrogen and Fuel Cell Technologies Office in the Department of Energy through the Bipartisan Infrastructure Law to further research in clean hydrogen production. The funding is part of a $750 million effort in President Biden’s Investing in American agenda. The money from the Department of Energy will go to 52 projects across 24 states to position the United States as a global leader in the clean hydrogen industry.

The combined outcomes of the 52 projects should allow the U.S. to produce enough technology per year to power 15% of medium- and heavy-duty trucks sold each year, produce an extra 1.3 million tons of clean hydrogen annually, and support more than 1,500 new jobs.

Ding’s three-year project will address the technical challenges of proton-conducting solid oxide electrolysis cell stacks, a type of technology that splits water into hydrogen and oxygen gases using electricity. By enabling this process, the stacks allow for the efficient conversion of electrical energy into chemical energy, producing hydrogen as a clean and renewable fuel source. Hydrogen produced through this method can result in zero greenhouse gas emissions. The goal of Ding’s project is to develop the technology to be suitable for real-world use. 

“This project will advance the technology maturity of [the technology] and, from a bigger picture, promote the green hydrogen applications of the state of Oklahoma,” Ding said.

Finding a way to store and convert energy is necessary to make renewable and sustainable energy more feasible. Clean hydrogen is a way for industries to reduce emissions while continuing to provide services needed for modern life. Ding’s Advanced Materials and Clean Energy Laboratory researches technological improvements to reach net-zero emissions. The lab specializes in materials research, development and prototype system demonstration for fuel cells, hydrogen production and electrochemical processing.

Under this grant, OU will collaborate with researchers at Massachusetts Institute of Technology, Kansas State University and Chemtronergy LLC to deliver this advanced electrolysis technology. The Idaho National Laboratory and Lawrence Livermore National Laboratory also support the research.

Ding’s project is well aligned with the goals of the Oklahoma Hydrogen Roadmap from the Hydrogen Production, Transportation and Infrastructure Task Force report, which includes a near-term goal of hydrogen storage and innovative technologies and long-term goals of low carbon hydrogen and equipment manufacturing.

About the project: The project, “Development of Readily Manufactured and Interface Engineered Proton-Conducting Solid Oxide Electrolysis Cells with High Efficiency and Durability,” is funded through the Department of Energy grant DE-FOA-0002922.

About the University of Oklahoma: Founded in 1890, the University of Oklahoma is a public research university in Norman, Oklahoma. As the state’s flagship university, OU serves the educational, cultural, economic and health care needs of the state, region and nation. OU was named the state’s highest-ranking university in U.S. News & World Report’s most recent Best Colleges list. For more information, visit www.ou.edu

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