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Hertz Lithium Inc. Concludes Lithium Extraction Technology License Agreement With Penn State University

Hertz Lithium Inc. Concludes Lithium Extraction Technology License Agreement With Penn State University

赫兹锂业公司与宾夕法尼亚州立大学签订锂提取技术许可协议
newsfile ·  01/09 10:00

Vancouver, British Columbia--(Newsfile Corp. - January 9, 2024) - Hertz Lithium Inc. (CSE: HZ) (OTCQB: HZLIF) (FSE: QE2) (the "Company") is pleased to announce that it has entered into a license agreement (the "License Agreement") with the Penn State Research Foundation (the "PSRF").

不列颠哥伦比亚省温哥华--(Newsfile Corp.,2024年1月9日)——赫兹锂业公司(CSE:HZ)(OTCQB:HZLIF)(FSE:QE2)(the”公司“)很高兴地宣布它已经签订了许可协议(”许可协议“) 与宾夕法尼亚州立大学研究基金会(”PSRF“)。

Pursuant to the License Agreement, the PSRF has granted the Company a royalty-bearing exclusive license (the "Patent Rights License") to the PSRF's novel patent-pending process for extraction of lithium from hard rock sources (the "Technology")[1]. Further, pursuant to the License Agreement the PSRF has granted the Company a royalty-bearing license to certain know-how (the "Know-How") necessary to derive the benefits of the Patent Rights (the "Know-How License" and together with the Patent Rights License, the "Licenses"). The Company maintains the right to sublicense the Licenses under the License Agreement to third parties.

根据许可协议,PSRF已授予公司特许权使用费的独家许可(”专利权 执照“)转到PSRF正在申请专利的从硬岩资源中提取锂的新工艺(”科技“)[1]。此外,根据许可协议,PSRF已向公司授予某些专有技术的特许权使用许可(”专有技术“) 从专利权中获益所必需的(”专有技术许可证“再加上专利权许可证,”许可证“)。公司保留根据许可协议将许可证再许可给第三方的权利。

The Technology comprises a patent-pending process for the extraction of lithium from hard rock lithium sources. Lithium is one of the critical elements with widespread applications in next-generation technologies, including energy storage, electric mobility and cordless devices.[2] Due to its unique applications, lithium cannot be substituted in most applications; therefore, a steady increase of 8-11% in annual demand is anticipated.[3] Meeting a rising demand for lithium requires prospecting and processing all viable resources. Two primary sources of lithium are hard rock ores (e.g., spodumene mineral) and brine, with clay sources considered secondary. Spodumene mineral is the major source of high-purity lithium; however, current technologies do not allow leaching of lithium from alpha-spodumene, and therefore most of the methods of lithium extraction from spodumene are focused on modifying the crystal structure of concentrated spodumene mineral into beta-spodumene using conventional heating (roasting) at 950-1100 degrees Celsius. However, such high-temperature roasting processes are very energy intensive and have been the bottleneck of the economic extraction of lithium from ores. Thus, there is a need for more energy-efficient and environmentally friendly methods for a high-yield extraction of lithium. The Technology is designed to satisfy these needs[4]-[5].

该技术包括一项正在申请专利的从硬岩锂源中提取锂的工艺。锂是下一代技术(包括储能、电动汽车和无线设备)中广泛应用的关键元素之一。[2] 由于其独特的应用,锂在大多数应用中无法取代;因此,预计年需求将稳步增长8-11%。[3] 满足不断增长的锂需求需要勘探和加工所有可行的资源。锂的两个主要来源是硬岩矿石(例如锂辉石矿物)和盐水,粘土来源被视为次要来源。锂辉石矿物是高纯度锂的主要来源;但是,当前的技术不允许从α-锂辉石中浸出锂,因此,从锂辉石中提取锂的大多数方法都侧重于在950-1100摄氏度下使用常规加热(烘烤)将浓缩锂辉石矿物的晶体结构改性为β-锂辉石。但是,这种高温焙烧过程非常耗能,一直是从矿石中经济开采锂的瓶颈。因此,需要采用更节能和更环保的方法来高产地提取锂。该技术旨在满足这些需求[4]-[5]

The Technology begins with taking spodumene concentrate, introducing sodium hydroxide, and then proceeding with conventional or microwave roasting which transforms the alpha-spodumene into a soluble phase. Next, the water leaching is currently used to recover up to 95% of the water-soluble lithium.

该技术首先提取锂辉石浓缩物,引入氢氧化钠,然后进行常规或微波烘烤,将α-锂辉石转化为可溶相。接下来,水浸目前用于回收高达95%的水溶性锂。

"Lithium has become a commodity of our generation and many new lithium deposits are being defined and put into production to meet the demand for lithium minerals to power electric vehicles, cell phones and many modern instruments. The need for updated, efficient and environmentally friendly lithium extraction technologies is urgent and at Hertz Lithium, we are excited to have executed the license agreement with Penn State University (College of Earth and Mineral Sciences)," states Kal Malhi, CEO & Director of Hertz Lithium. Mr. Malhi continues, "Owning the worldwide exclusive rights to develop and commercialize this patent-pending extraction process is a major differentiator for us in the lithium mining and exploration industry. We are in discussions with commercial lithium extraction experts and potential partners to join our team and begin the next phase of development towards a pilot plant stage demonstration of this technology. We will be laser-focused on developing industry partnerships to advance this technology in 2024 and will be providing ongoing regular updates on our progress in the weeks and months ahead."

“锂已成为我们这一代人的商品,许多新的锂矿床正在开发和投入生产,以满足对锂矿物的需求,为电动汽车、手机和许多现代仪器提供动力。Hertz Lithium首席执行官兼董事Kal Malhi表示,对更新、高效和环保的锂提取技术的需求迫在眉睫,我们很高兴与宾夕法尼亚州立大学(地球与矿物科学学院)签署了许可协议。马尔希先生继续说:“拥有开发和商业化这种正在申请专利的提取工艺的全球专有权,是我们在锂开采和勘探行业的主要差异化因素。我们正在与商业锂开采专家和潜在合作伙伴进行讨论,以加入我们的团队,开始下一阶段的开发,向该技术的试点工厂阶段演示。我们将专注于发展行业合作伙伴关系,以在2024年推进这项技术,并将在未来几周和几个月内持续定期提供最新进展情况。”

About Hertz Lithium Inc.

关于赫兹锂业公司

The Company is a British Columbia-based mineral exploration company primarily engaged in the acquisition and exploration of mineral properties. The Company's lithium exploration projects include the Lucky Mica Project, which is located along the Arizona Pegmatite Belt in the Maricopa County of Arizona, USA and the Patriota Lithium Project, located along the Eastern Brazilian Pegmatite Province, in Brazil and the district scale AC/DC Lithium Project and Snake Lithium Project, both located in James Bay, Quebec.

该公司是一家总部位于不列颠哥伦比亚省的矿产勘探公司,主要从事矿产的收购和勘探。该公司的锂勘探项目包括位于美国亚利桑那州马里科帕县亚利桑那伟晶岩带沿线的Lucky Mica项目和位于巴西东部伟晶岩省沿线的Patriota锂项目,以及位于魁北克詹姆斯湾的区域规模的AC/DC锂项目和Snake锂项目。

For further information, please contact Mr. Kal Malhi or view the Company's filings at .

欲了解更多信息,请联系Kal Malhi先生或在以下地址查看公司的文件。

On Behalf of the Board of Directors

代表董事会

Kal Malhi
Chief Executive Officer and Director
Phone: 604-805-4602
Email: kal@bullruncapital.ca

Kal Malhi
首席执行官兼董事
电话:604-805-4602
电子邮件:kal@bullruncapital.ca

Neither the Canadian Securities Exchange nor its Regulation Services Provider accepts responsibility for the adequacy or accuracy of this news release.

加拿大证券交易所及其监管服务提供商均不对本新闻稿的充分性或准确性承担责任。

Cautionary Statement Regarding "Forward-Looking" Information

关于 “前瞻性” 信息的警示声明

This news release includes certain statements that may be deemed "forward-looking statements." All statements in this new release, other than statements of historical facts, that address events or developments that the Company expects to occur, are forward-looking statements. Forward-looking statements are statements that are not historical facts and are generally, but not always, identified by the words "expects", "plans", "anticipates", "believes", "intends", "estimates", "projects", "potential" and similar expressions, or that events or conditions "will", "would", "may", "could" or "should" occur. Although the Company believes the expectations expressed in such forward-looking statements are based on reasonable assumptions, such statements are not guarantees of future performance and actual results may differ materially from those in the forward-looking statements. Factors that could cause the actual results to differ materially from those in forward-looking statements include market prices, continued availability of capital and financing, and general economic, market or business conditions. Investors are cautioned that any such statements are not guarantees of future performance and actual results or developments may differ materially from those projected in the forward-looking statements. Forward-looking statements are based on the beliefs, estimates and opinions of the Company's management on the date the statements are made. Except as required by applicable securities laws, the Company undertakes no obligation to update these forward-looking statements in the event that management's beliefs, estimates or opinions, or other factors, should change.

本新闻稿包括某些可能被视为 “前瞻性陈述” 的陈述。除历史事实陈述外,本新闻稿中涉及公司预计将发生的事件或事态发展的所有陈述均为前瞻性陈述。前瞻性陈述不是历史事实,通常以 “期望”、“计划”、“预期”、“相信”、“打算”、“估计”、“项目”、“潜力” 和类似的表述来识别,或者事件或条件 “将”、“将”、“可能”、“可能” 或 “应该” 发生。尽管公司认为此类前瞻性陈述中表达的预期是基于合理的假设,但此类陈述并不能保证未来的业绩,实际业绩可能与前瞻性陈述中的业绩存在重大差异。可能导致实际业绩与前瞻性陈述存在重大差异的因素包括市场价格、资本和融资的持续可用性以及总体经济、市场或商业状况。投资者请注意,任何此类陈述都不能保证未来的表现,实际业绩或发展可能与前瞻性陈述中的预测存在重大差异。前瞻性陈述基于公司管理层在陈述发表之日的信念、估计和观点。除非适用的证券法要求,否则公司没有义务在管理层的信念、估计或观点或其他因素发生变化时更新这些前瞻性陈述。


[1] Rezaee, M., Vaziri Hassas, B., Akbari, H., Agrawal, D., and Slawecki, T. (2021). Process for Extraction of Lithium. International Patent Application Number: WO2021155224A1.
[2] Meshram, P., Pandey, B. D., & Mankhand, T R. (2014) "Extraction of lithium from primary and secondary sources by pre-treatment, leaching and separation: A comprehensive review. Hydrometallurgy," 150, 192-208.; Martin, G., Rentsch, L., Hoeck, M, & Bertau, M (2017). "Lithium market research-global supply, future demand and price development." Energy Storage Materials, 6, 171-179.
[3] Baylis, R, 2013, January. "Evaluating and forecasting the lithium market from a value perspective." In Roskill presentation, 5 the Lithium Supply and Markets Conference, Las Vegas (pp. 29-31); ENTR, E (2014). "Report on Critical Raw Materials for the EU Ares" (2015), 1819503.
[4] Shihua, H., Daulet, S., Pan, J., Vaziri Hassas, B., Akbari, H., Mensah-Biney, R. Rezaee, M.*, (2022). Direct Extraction of lithium from α-spodumene by salt roasting-leaching process. ACS Sustainable Chemistry and Engineering.
[5] Rezaee, M., Shihua, H., Daulet, S., Vaziri Hassas, B., Slawecki, T. M., Agrawal, D., Akbari, H., Mensah-Biney, R. (2022). Microwave-assisted calcination of spodumene for efficient, low-cost, and environmentally friendly extraction of lithium. Powder Technology, 397, 116992.

[1] M. Rezaee、B. Vaziri Hassas、H. Akbari、D. Agrawal和T. Slawecki(2021)。锂的提取工艺。国际专利申请号:WO2021155224A1。
[2] Meshram,P.、Pandey、B.D. 和 Mankhand,T R.(2014)“通过预处理、浸出和分离从主要和次要来源提取锂:全面综述。湿法冶金,” 150,192-208。;Martin,G.,Rentsch,L.,Hoeck,M,Bertau,M(2017)。“锂市场研究——全球供应、未来需求和价格发展。”储能材料,6,171-179。
[3] 贝利斯,R,2013 年 1 月。“从价值的角度评估和预测锂市场。”在罗斯基尔的演讲中,5 拉斯维加斯锂供应与市场会议(第 29-31 页);ENTR,E(2014)。“欧盟地区关键原材料报告”(2015),1819503。
[4] Shihua,H.,Daulet,S.,Pan,J.,Vaziri Hassas,B.,Akbari,H.,Mensah-Biney,R. Rezaee,M.*,(2022年)。通过盐焙烧浸出过程直接从α-锂辉石中提取锂。ACS 可持续化学与工程。
[5] Rezaee,M.,Shihua,H.,Daulet,S.,Vaziri Hassas,B.,Slawecki,T.M.,Agrawal,D.,Akbari,H.,Mensah-Biney,R.(2022年)。微波辅助焙烧锂辉石可高效、低成本、环保地提取锂。粉末技术,397,116992。

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