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SunHydrogen Shares Q4 Update on Progress Toward 2022 Milestones, Releases Video Showcasing First-Ever Prototype of Its Nanoparticle-Based Green Hydrogen Technology

SunHydrogen Shares Q4 Update on Progress Toward 2022 Milestones, Releases Video Showcasing First-Ever Prototype of Its Nanoparticle-Based Green Hydrogen Technology

SunHydrogen 分享了第四季度实现 2022 年里程碑进展的最新情况,发布了视频,展示了其基于纳米颗粒的绿色氢技术的首个原型
GlobeNewswire ·  2022/12/15 06:05

SANTA BARBARA, CA, Dec. 15, 2022 (GLOBE NEWSWIRE) -- SunHydrogen, Inc. (OTC: HYSR), the developer of a breakthrough technology to produce green hydrogen using sunlight and water, today provided a Q4 update on the Company's progress toward multiple planned 2022 milestones and released a new video showcasing the first-ever prototype of its nanoparticle-based green hydrogen technology. The video can be viewed on SunHydrogen's website here.

加利福尼亚州圣巴巴拉,2022年12月15日(环球通讯社)太阳氢能股份有限公司(场外交易代码:HYSR)是一项利用阳光和水生产绿色氢气的突破性技术的开发商,该公司今天提供了该公司在实现计划中的多个2022年里程碑方面的第四季度最新进展,并发布了一段新视频,展示了其基于纳米颗粒的绿色氢气技术的首个原型。这段视频可以在太阳氢能的网站上查看。

At the start of 2022, SunHydrogen outlined four milestones for the development and demonstration of a production-quality prototype of its nanoparticle-based green hydrogen technology by the end of Q4 2022. These included:

2022年初,太阳氢能概述了到2022年第四季度末开发和示范其基于纳米颗粒的绿色氢气技术的生产质量原型的四个里程碑。这些措施包括:

  • Successful fabrication of semiconductor units at production-quality prototype scales
  • Successful integration of membranes at production-quality prototype scales
  • Successful integration of catalysts at production-quality prototype scales
  • Successful testing and demonstration of production-quality prototype units
  • 成功地在生产质量的原型规模上制造半导体单元
  • 膜在生产质量原型规模上的成功集成
  • 催化剂在生产质量原型规模上的成功集成
  • 产品质量样机的成功测试和示范

Today the Company is pleased to share a summary of its Q4 progress in each of these areas.
Semiconductor units
SunHydrogen's nanoparticle technology utilizes a pairing of two semiconductor units to maximize sunlight absorption and hydrogen production efficiency. In Q2 and Q3 of 2022, the Company shared its success in fabricating one of the two proprietary nanoparticle-based semiconductor units at production-quality prototype scales. SunHydrogen also successfully demonstrated hydrogen production by pairing one of its two nanoparticle-based semiconductor units with silicon heterojunction solar cells and thin-film perovskite solar cells. However, the fabrication of the second proprietary semiconductor unit was delayed due to supply chain challenges.
In Q4 2022, SunHydrogen's Iowa scientific team at the SunHydrogen Lab and the University of Iowa identified additional alternate solutions to pair its proprietary nanoparticle-based semiconductor units at production-quality prototype scales. The pairing of these units generated photovoltages over 1.8 V, sufficiently exceeding the voltages required for water splitting. In addition, SunHydrogen's Iowa scientific team increased the photocurrent density of one of its nanoparticle-based semiconductor units by 58%. Photocurrent density is a crucial metric that is directly proportional to the rate of hydrogen production.
In parallel, SunHydrogen continues to pursue the development of vendor-independent novel deposition chemistries for growing its nanoparticle-based semiconductor units.
SunHydrogen has also entered into a Technical Service Agreement with Alliance for Sustainable Energy, LLC, manager and operating contractor of the National Renewable Energy Laboratory (NREL), to integrate its cells in SunHydrogen's model for solar water splitting. All approaches will continue to be evaluated at prototype-relevant scales.
Membrane integration
In Q3 of 2022, SunHydrogen completed its initial study on membrane integration with industrial partners Chromis Technologies and Ionomr Innovations.
During Q4 2022, the Singh Lab at the University of Michigan, led by Dr. Nirala Singh, one of the lead inventors on SunHydrogen's patent for Photoelectrosynthetically Active Heterostructures, studied the efficacy of the membrane integration process for both anion exchange membranes and cation exchange membranes. All the membranes prevented bulk liquid crossover, indicating the mechanical stability of the materials. The Singh Lab also measured the stability of the membranes in sulfuric acid and found the membranes to be stable. However, the areal resistances of the substrates after membrane integration were too high. Future work will consist of coating the new, higher-porosity substrates with membranes to decrease membrane thickness and, subsequently, membrane resistance.
Catalyst integration
The hydrogen evolution catalysts that were developed in Q3 2022 match the best-performing commercial catalysts and can be deposited on the Company's solar cell materials with low thickness to mitigate parasitic light absorption.
In Q4 2022, the Singh Lab focused on the oxygen evolution reaction (OER) electrocatalyst. The OER electrocatalyst maintained an overvoltage of <400 mV for six hours, with an initial overvoltage of 330 mV at current densities relevant for large-scale photoelectrochemical hydrogen production. Scaling up the total OER electrocatalyst area by a factor of 10 did not cause a decrease in activity. Future work will develop higher surface area electrocatalysts to lower the required current density per electrochemical surface area, which will further decrease the overvoltage and increase materials' stability.
Testing and demonstration of production-quality prototype unit
In Q3 2022, SunHydrogen designed and constructed a physical, working model of a small-scale prototype unit. This initial production-quality prototype was designed to house one hydrogen generator – integrated with catalysts, membranes, and light absorber – and to safely produce high-purity green hydrogen.
SunHydrogen's nanoparticle technology directly uses the electrical charges created by sunlight to generate hydrogen when the sun is shining. However, this prototype was also designed to be able to power the catalyst and membrane integration assembly when the sun is not shining using renewable grid electricity from wind or hydropower sources.
In Q4 2022, SunHydrogen successfully demonstrated solar hydrogen production using this prototype. Additionally, the Company is proud to share a new video featuring the prototype at work at SunHydrogen's Iowa laboratory.
"We are happy to end the quarter with testing and demonstration of this first-ever, production-quality prototype of our nanoparticle-based green hydrogen technology," said SunHydrogen's Chief Scientific Officer Dr. Syed Mubeen. "With this initial model complete, we now intend to focus on larger-scale panels that house multiple arrays of hydrogen generators to maximize hydrogen efficiency and production rates."

今天,该公司很高兴与大家分享第四季度在上述各个领域的进展情况。
半导体单元
太阳氢能的纳米颗粒技术利用两个半导体单元的配对来最大限度地吸收阳光和提高氢气生产效率。在2022年第二季度和第三季度,该公司分享了其在生产质量原型规模上成功制造两种专有纳米颗粒半导体单元之一的成功经验。太阳氢能还通过将其两个基于纳米颗粒的半导体单元之一与硅异质结太阳能电池和薄膜钙钛矿太阳能电池配对,成功地展示了氢气的生产。然而,由于供应链的挑战,第二个专有半导体单元的制造被推迟。
2022年第四季度,太阳氢能爱荷华州科学团队在太阳氢能实验室和爱荷华大学发现了额外的替代解决方案,以将其专有的基于纳米颗粒的半导体单元以生产质量的原型规模进行配对。这些单元的配对产生了超过1.8V的光伏,足以超过分解水所需的电压。此外,太阳氢能爱荷华州的科学团队将其一个基于纳米颗粒的半导体单元的光电流密度提高了58%。光电流密度是直接与产氢速率成正比的关键指标。
与此同时,太阳氢能继续致力于开发独立于供应商的新型沉积化学,以发展其基于纳米颗粒的半导体单元。
太阳氢能还与国家可再生能源实验室(NREL)的管理和运营承包商可持续能源联盟有限责任公司签订了一项技术服务协议,将其电池整合到太阳氢能的太阳能水分离模型中。所有办法都将继续在与原型相关的尺度上进行评估。
膜集成
2022年第三季度,太阳氢能与行业合作伙伴Chromis Technologies和Ionomr Innovation完成了膜集成的初步研究。
在2022年第四季度,密歇根大学的Singh实验室在Sunhngen光电合成活性异质结构专利的主要发明人之一Nirala Singh博士的领导下,研究了膜集成工艺对阴离子交换膜和阳离子交换膜的功效。所有的膜都防止了大块液体的溢出,表明材料的机械稳定性。辛格实验室还测量了膜在硫酸中的稳定性,发现膜是稳定的。但是,经过膜整合后的基片的面阻太高。未来的工作将包括在新的、更高孔隙率的衬底上涂覆膜,以降低膜厚度,并随后降低膜阻力。
催化剂集成
2022年第三季度开发的析氢催化剂与性能最佳的商业催化剂相匹配,可以沉积在公司的低厚度太阳能电池材料上,以减少寄生光吸收。
2022年第四季度,辛格实验室专注于析氧反应(OER)电催化剂。OER电催化剂的过电压保持在产品质量样机的测试与论证
2022年第三季度,太阳氢能设计并建造了一个小型原型装置的物理工作模型。这个最初的生产质量原型被设计成容纳一个氢气发生器--与催化剂、膜和光吸收器集成--并安全地生产高纯度的绿色氢气。
太阳氢能公司的纳米颗粒技术直接利用阳光产生的电荷在阳光照射下产生氢气。然而,这个原型也被设计成能够在没有阳光的情况下利用风能或水力发电的可再生电网电力为催化剂和膜集成组件提供动力。
2022年第四季度,太阳氢能利用这一原型成功演示了太阳能制氢。此外,该公司很自豪地分享了一段新的视频,展示了太阳氢能爱荷华州实验室正在工作的原型。
太阳氢能公司首席科学官赛义德·穆贝博士说:“我们很高兴在本季度结束时测试和演示我们基于纳米颗粒的绿色氢气技术的这一首个量产质量的原型。”随着这个初始模型的完成,我们现在打算专注于容纳多个氢气发生器阵列的更大规模的电池板,以最大限度地提高氢气效率和生产率。

"We thank our shareholders and followers for the ongoing support, and we greatly look forward to continuing to share our progress with you in the new year," Dr. Mubeen concluded.

“我们感谢我们的股东和追随者的持续支持,我们非常期待在新的一年里继续与你们分享我们的进展,”Mube博士总结道。

SunHydrogen's new video can be viewed by visiting the Company's website at .
Note: Past materials have stated that the current prototype houses one hydrogen panel. The Company has since updated this wording to reflect that the prototype houses one hydrogen generator. A hydrogen generator refers to the entire unit structure composed of substrate, protective layer, photovoltaic layers, and oxidation/reduction catalyst, in which billions of nanoparticles split apart water at the molecular level. A hydrogen panel will house multiple arrays of such hydrogen generators. Future communications will continue to clarify this distinction between hydrogen generator and hydrogen panel.
About SunHydrogen, Inc.
SunHydrogen is developing breakthrough technologies to make, store and use green hydrogen in a market that Goldman Sachs estimates to be worth $12 trillion by 2050. Our patented SunHydrogen Panel technology, currently in development, uses sunlight and any source of water to produce low-cost green hydrogen. Similar to solar panels that produce electricity, our SunHydrogen Panels will produce green hydrogen. Our vision is to become a major technology supplier in the new hydrogen economy. By developing, acquiring and partnering with other critical technologies, we intend to enable a future of emission-free vehicles, ships, data centers, aircrafts and more. To learn more about SunHydrogen, please visit our website at .
Safe Harbor Statement
Matters discussed in this press release may contain forward-looking statements. When used in this press release, the words "anticipate," "believe," "estimate," "may," "intend," "expect" and similar expressions identify such forward-looking statements. Actual results, performance or achievements could differ materially from those contemplated, expressed or implied by the forward-looking statements contained herein. Forward-looking statements are based largely on the expectations of the Company and are subject to a number of risks and uncertainties and other factors, known and unknown, including the risk factors described from time to time in the Company's reports filed with the Securities and Exchange Commission. Forward-looking statements contained herein are applicable only as of the date on which they are made, and the Company does not assume any obligation to update any forward-looking statements, except as may be required under applicable law.

太阳氢能的新视频可通过访问该公司的网站观看。
注:过去 材料都表示,当前 原型中有一个氢电池板。自那以后,该公司更新了这一措辞,以反映原型中有一个氢气发生器。 氢气发生器是指整个单元结构由衬底、保护层、光伏层、以及氧化/还原催化剂,其中数十亿纳米颗粒在分子水平上分解水。 氢气电池板将房屋这种氢气发生器的多个阵列。未来的通信将继续澄清氢气发生器和氢气电池板之间的区别。
太阳氢能公司简介
太阳氢能正在开发制造、储存和使用绿色氢气的突破性技术,高盛估计,到2050年,这个市场的价值将达到12万亿美元。我们的专利太阳能电池板技术目前正在开发中,它利用阳光和任何水源来生产低成本的绿色氢气。与发电的太阳能电池板类似,我们的太阳能氢能电池板将产生绿色氢气。我们的愿景是成为新氢经济中的主要技术供应商。通过开发、收购和与其他关键技术合作,我们打算实现零排放车辆、船舶、数据中心、飞机等的未来。如欲了解更多有关太阳氢能的信息,请访问我们的网站:。
安全港声明
本新闻稿中讨论的事项可能包含前瞻性陈述。在本新闻稿中使用的“预期”、“相信”、“估计”、“可能”、“打算”、“预期”和类似的表达方式标识了此类前瞻性陈述。实际结果、业绩或成就可能与本文中包含的前瞻性陈述所预期、明示或暗示的内容大不相同。前瞻性陈述主要基于公司的预期,受到许多已知和未知的风险、不确定因素和其他因素的影响,包括公司不时提交给证券交易委员会的报告中描述的风险因素。本文中包含的前瞻性表述仅在作出前瞻性表述之日起适用,公司不承担任何更新任何前瞻性表述的义务,除非适用法律另有要求。

Press Contact:
info@sunhydrogen.com

媒体联系人:
邮箱:info@sunh.com.


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