Maximum capacities at the theoretical limit come from Adlershof
On April 27, the European Research Council (ERC) announces the recipients of the Proof of Concept (PoC) Grant scheme: one of them is Michael J. Bojdys, materials chemist and junior research group leader at IRIS Adlershof and the department of chemistry of Humboldt-Universität zu Berlin. This makes Bojdys one of the first two ERC PoC grantees in Berlin since the grant was established in 2018. This year’s second recipient is from the TU Berlin.
Proof of Concept Grants are exclusively awarded to researchers who already hold an ERC Grant and wish to move the output of their research towards the initial steps of pre-commercialisation.
In the course of his ERC PoC Grant “Ultra-high energy storage Li-anode materials” (LiAnMAT) Michael Bojdys will develop together with VARTA Micro Innovation GmbH and the Adlershof start-up INURU GmbH, Li anode materials for high capacity applications. First promising results are part of a patent application of HU Berlin and the start-up incubator Humboldt Innovation GmbH: the capacity of the novel anodes exceeds that of commercially available anodes by a factor of 10-40.
Graphen gilt als echtes Wundermaterial. Es leitet Strom, ist extrem widerstandsfähig und speichert Wärme. Kein Wunder also, dass auch die Modeindustrie den Stoff für sich entdeckt hat. Doch hält die Wunderjacke auch, was sie verspricht?
Michael J. Bojdys joined the delegation of the European Research Council (ERC) composed of ERC President Prof. Jean-Pierre Bourguignon and ten ERC grantees at this year’s ‘Annual Meeting of New Champions’ hosted by the World Economic Forum. Dr. Bojdys summarizes his Community Session on “Strengthening Chemical and Materials Innovation Financing”:
“The WEF focused this year in particular on “Leadership 4.0” to deliver on sustainable development goals. The technology for sustainable electronics, smart energy storage, food security and healthier living is out there, sponsored by tax-payer’s money via the ERC, for example, who are supporting my research. But most scientists lack the business literacy to bring their projects to the market. WEF and ERC identify the need for (1) better business training of scientists – that means: can you deliver an “elevator pitch” on the impact of your research on society? Can you make the same pitch to funders? (2) Better funding instruments to develop prototype devices – here, the ERC is leading with the ERC “Proof of Concept” grant scheme that pays not only for prototype development but also for a market study, and (3) how can we help scientists find the right type of funders for their pre-IPO [initital public offering] projects – an exciting new initiative by the ERC is the “Virtual Ventures Fair”[More…] that aims to bring scientists that succesfully resolved their “Proof of Concept” grants together with investors. I am particularly looking forward to work together with the new leadership of the ERC on the “Virtual Ventures Fair” project – if there’s anything we know as scientists, then it is to contribute expert opinions via peer-review.”
Want to find out more about the new “Charles University Center of Advanced Materials” (CUCAM)? Come along on the 8th of February to our kick-off workshop at Charles University, Department of Chemistry, Hlavova 8 in Prague!
Materials chemist Dr. Michael J. Bojdys received the junior grant of Czech Science Foundation (GA ČR) to promote the project “Crystalline fully-aromatic materials (CAMs)” over the next three years. The proposed materials will be tried and tested in applications such as heterogeneous catalysis, Li-ion batteries and gas sensors, as well as other industrially relevant applications.
For the second time in recent years the European Research Council (ERC) has awarded one of the prestigious ERC Starting Grants to a scientist of the Department of Organic Chemistry at the Charles University in Prague. Materials chemist Dr. Michael J. Bojdys received this grant endowed with up to 1.5 Million Euro to promote basic research on “functional nanomaterials beyond graphene” over the next five years. Function and structure of these organic materials beyond graphene can provide opportunities for designing new generations of electronic devices such as field-effect transistors, gas sensors etc.