KULR Technology and Scripps Research Collaborate on Novel Pyrolytic Carbon Electrode Technology
KULR Technology Group (NYSE: KULR) has partnered with Scripps Research Institute's Baran Lab to develop an innovative pyrolytic carbon (PC) electrode material for synthetic organic electrochemistry. The new material offers a cost-effective and robust alternative to traditional carbon materials like reticulated vitreous carbon (RVC) and glassy carbon (GC).
The PC electrodes are manufactured using a proprietary chemical vapor deposition (CVD) process, making large-scale synthesis more economical. The material demonstrates exceptional performance in various electrochemical reactions, including rapid alternating polarity Kolbe couplings, and features superior mechanical strength and reusability compared to traditional RVC electrodes.
This advancement aims to revolutionize the production of pharmaceuticals, polymers, and sustainable materials by making advanced electrochemical techniques more accessible and economical for researchers and industries worldwide.
KULR Technology Group (NYSE: KULR) ha collaborato con il Baran Lab dell'Istituto di Ricerca Scripps per sviluppare un innovativo materiale elettrodico in carbonio pirolitico (PC) per l'elettrochimica organica sintetica. Il nuovo materiale offre un'alternativa economica e robusta ai materiali in carbonio tradizionali come il carbonio vitreoso reticolato (RVC) e il carbonio vetroso (GC).
Gli elettrodi in PC sono prodotti utilizzando un processo proprietario di deposizione chimica da vapore (CVD), rendendo la sintesi su larga scala più economica. Il materiale dimostra prestazioni eccezionali in varie reazioni elettrochimiche, inclusi i rapidi accoppiamenti di Kolbe con polarità alternata, e presenta una resistenza meccanica e una riutilizzabilità superiori rispetto agli elettrodi RVC tradizionali.
Questo progresso mira a rivoluzionare la produzione di farmaceutici, polimeri e materiali sostenibili, rendendo le tecniche elettrochimiche avanzate più accessibili ed economiche per ricercatori e industrie in tutto il mondo.
KULR Technology Group (NYSE: KULR) se ha asociado con el Baran Lab del Instituto de Investigación Scripps para desarrollar un innovador material de electrodo de carbono pirolítico (PC) para la electrosíntesis orgánica. El nuevo material ofrece una alternativa económica y robusta a los materiales de carbono tradicionales como el carbono vítreo reticulado (RVC) y el carbono vítreo (GC).
Los electrodos de PC se fabrican utilizando un proceso propietario de deposición química por vapor (CVD), lo que hace que la síntesis a gran escala sea más económica. El material muestra un rendimiento excepcional en varias reacciones electroquímicas, incluyendo los acoplamientos de Kolbe de polaridad alterna rápida, y presenta una resistencia mecánica y reutilización superiores en comparación con los electrodos RVC tradicionales.
Este avance tiene como objetivo revolucionar la producción de productos farmacéuticos, polímeros y materiales sostenibles, haciendo que las técnicas electroquímicas avanzadas sean más accesibles y económicas para investigadores e industrias en todo el mundo.
KULR Technology Group (NYSE: KULR)는 Scripps Research Institute의 Baran Lab과 협력하여 합성 유기 전기화학을 위한 혁신적인 열분해 탄소(PC) 전극 물질을 개발했습니다. 이 새로운 소재는 기계적 강도가 뛰어나고 재사용이 가능한 전통적인 탄소 물질인 결합 유리 탄소(RVC) 및 유리 탄소(GC)에 대한 비용 효율적이고 강력한 대안을 제공합니다.
PC 전극은 독점적인 화학 기상 증착(CVD) 공정을 사용하여 제조되며 대규모 합성을 보다 경제적으로 만듭니다. 이 소재는 빠른 교대 극성 Kolbe 결합을 포함한 다양한 전기화학적 반응에서 뛰어난 성능을 보여주며 전통적인 RVC 전극보다 우수한 기계적 강도와 재사용 기능을 제공합니다.
이 발전은 제약, 폴리머 및 지속 가능한 소재의 생산을 혁신하여 전 세계 연구자 및 산업이 고급 전기화학 기술을 보다 접근 가능하고 경제적으로 이용할 수 있도록 하는 것을 목표로 하고 있습니다.
KULR Technology Group (NYSE: KULR) s'est associée au Baran Lab de l'Institut Scripps de recherche pour développer un matériau électrode en carbone pyrolytique (PC) innovant pour l'électrochimie organique synthétique. Ce nouveau matériau offre une alternative économique et robuste aux matériaux en carbone traditionnels tels que le carbone vitreux réticulé (RVC) et le carbone vitreux (GC).
Les électrodes PC sont fabriquées à l'aide d'un procédé exclusif de dépôt chimique en phase vapeur (CVD), rendant la synthèse à grande échelle plus économique. Le matériau démontre des performances exceptionnelles dans diverses réactions électrochimiques, y compris des couplages Kolbe à polarité alternée rapide, et présente une résistance mécanique et une réutilisation supérieures par rapport aux électrodes RVC traditionnelles.
Cette avancée vise à révolutionner la production de produits pharmaceutiques, de polymères et de matériaux durables en rendant les techniques électrochimiques avancées plus accessibles et économiques pour les chercheurs et les industries du monde entier.
KULR Technology Group (NYSE: KULR) hat sich mit dem Baran Lab des Scripps Research Institute zusammengeschlossen, um ein innovatives pyrolytisches Kohlenstoff (PC) Elektrodenmaterial für die synthetische organische Elektrochemie zu entwickeln. Das neue Material bietet eine kosteneffiziente und robuste Alternative zu traditionellen Kohlenstoffmaterialien wie retikuliertem gläsernem Kohlenstoff (RVC) und gläsernem Kohlenstoff (GC).
Die PC-Elektroden werden mit einem proprietären chemischen Gasphasenabscheidungsprozess (CVD) hergestellt, was die Synthese im großen Maßstab wirtschaftlicher macht. Das Material zeigt außergewöhnliche Leistungen in verschiedenen elektrochemischen Reaktionen, einschließlich schneller abwechselnder Polaritäts-Kolbe-Kopplungen und bietet im Vergleich zu traditionellen RVC-Elektroden eine überlegene mechanische Festigkeit und Wiederverwendbarkeit.
Dieser Fortschritt zielt darauf ab, die Produktion von pharmazeutischen Produkten, Polymeren und nachhaltigen Materialien zu revolutionieren, indem er fortschrittliche elektrochemische Techniken für Forscher und Industrien weltweit zugänglicher und wirtschaftlicher macht.
- Development of innovative, cost-effective electrode material with potential market applications
- Proprietary CVD manufacturing process enabling scalable production
- Superior mechanical properties and reusability compared to existing solutions
- Strategic partnership with prestigious research institution
- Product still in development phase with no immediate revenue impact
- Market adoption and commercialization timeline unclear
Insights
The partnership between KULR Technology and Scripps Research marks a pivotal breakthrough in advanced materials science. The newly developed pyrolytic carbon electrode technology represents a significant market opportunity in the multi-billion dollar synthetic chemistry industry. Here's why this matters for investors:
In simple terms, imagine this technology as a highly efficient, reusable 'cooking surface' for creating complex chemicals - but at a fraction of the cost of current solutions. Traditional materials like reticulated vitreous carbon (RVC) and glassy carbon (GC) are like using expensive, fragile ceramic cookware that breaks easily and costs a fortune. KULR's new material is more like a premium non-stick pan that's both durable and cost-effective.
The market implications are substantial:
- The pharmaceutical industry, which heavily relies on synthetic chemistry for drug manufacturing, could significantly reduce production costs
- The technology's scalability could enable larger batch productions, potentially increasing manufacturing efficiency by orders of magnitude
- The reusability factor adds a compelling cost advantage, as labs won't need frequent replacements of expensive electrodes
However, investors should note that while the technology shows promise, commercialization timelines and market adoption rates remain uncertain. The real value proposition lies in KULR's ability to expand beyond its traditional thermal management solutions into high-value specialty materials, potentially diversifying revenue streams and strengthening its market position.
Looking ahead, this development could position KULR as a key player in the advanced materials sector, particularly in specialized chemical synthesis applications. The collaboration with a prestigious institution like Scripps Research also adds credibility and could lead to additional partnership opportunities in the pharmaceutical and chemical industries.
HOUSTON, Jan. 22, 2025 (GLOBE NEWSWIRE) -- KULR Technology Group, Inc. (NYSE American: KULR) (the "Company" or "KULR"), a global leader in carbon-based thermal management and battery safety solutions, has announced an innovative collaboration with the prestigious Scripps Research Institute's Baran Lab. Together, the teams have developed a groundbreaking pyrolytic carbon (PC) electrode material, poised to transform synthetic organic electrochemistry.
The jointly developed electrode is a low-cost, robust, and versatile alternative to traditional amorphous carbon materials such as reticulated vitreous carbon (RVC) and glassy carbon (GC). With unparalleled mechanical strength and reactivity comparable to RVC and GC, this novel PC material overcomes the limitations of cost and scalability that have historically constrained large-scale synthetic organic applications.
Key Advancements:
- Affordable and Scalable: The pyrolytic carbon electrodes are produced using a proprietary chemical vapor deposition (CVD) process, significantly reducing manufacturing costs and making large-scale synthesis feasible.
- Versatile Applications: The material performs exceptionally well across a range of electrochemical reactions, including rapid alternating polarity (rAP) Kolbe couplings, which are essential for high-value chemical production.
- Durability and Recyclability: Unlike fragile RVC electrodes, PC electrodes are mechanically robust, enabling simple cleaning and reusability without degradation.
Why This Matters: Electrode innovation is critical for advancing synthetic organic electrochemistry, a field integral to the production of pharmaceuticals, polymers, and sustainable materials. This novel PC electrode addresses longstanding challenges, offering an economical, high-performance solution for batch and flow chemistry applications. Its scalability and broad reactivity promise to democratize access to advanced electrochemical techniques, enabling researchers and industries worldwide to adopt sustainable methodologies.
"KULR’s expertise in carbon materials, combined with the innovative vision of Scripps Research's Baran Lab, has resulted in a truly transformative material for synthetic chemistry," said Michael Mo, CEO of KULR Technology. "We are excited to bring this technology to market, where it has the potential to redefine how we approach large-scale chemical synthesis."
About KULR Technology Group Inc.
KULR Technology Group Inc. (NYSE American: KULR) delivers cutting edge energy storage solutions for space, aerospace, and defense by leveraging a foundation of in-house battery design expertise, comprehensive cell and battery testing suite, and battery fabrication and production capabilities. The Company’s holistic offering allows delivery of commercial-off-the-shelf and custom next generation energy storage systems in rapid timelines for a fraction of the cost compared to traditional programs. On December 4, 2024, KULR announced that its Board of Directors has agreed to include bitcoin as a primary asset in its treasury program and committed to allocating up to
About Scripps Research
Scripps Research is a world-renowned institution at the forefront of medical and scientific discovery. Through groundbreaking research and strategic partnerships, the institute addresses global challenges and drives transformative innovation across disciplines. For more information, please visit https://www.scripps.edu.
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