@phdthesis{Mueller, author = {M{\"u}ller, Mike}, title = {Modellierung von Stofftransport und Reaktionen mit einem neuentwickelten, gekoppelten Grund- und Oberfl{\"a}chenwassermodell am Beispiel des Tagebaurestsees}, language = {de} } @inproceedings{MarkowskiNarraAyetal., author = {Markowski, Jens and Narra, Satyanarayana and Ay, Peter and Pempel, Harry and M{\"u}ller, Mike}, title = {Automatic disassembly and recycling of lithium-traction-accumulators}, series = {Proceedings, XXVII. IMPC, Santiago de Chile, 2014}, booktitle = {Proceedings, XXVII. IMPC, Santiago de Chile, 2014}, publisher = {GECAMIN}, address = {Santiago de Chile}, pages = {227 -- 236}, abstract = {Within the next few years major changes in mobility are expected. Increasing numbers of electric powered cars, electrobikes and E-Scooters define the transport sector. Recently lithium based traction batteries as storage medium have led into matrurity of series production combining high electrical efficiencies with low weights and compact dimensions. Due to the relatively young development with lithium batteries utilization, only few investigation were conducted regarding their recycling. Conventional battery recycling processes can not be applied due to differences in design and chemistry. So an automated disassembly and processing procedure for lithium traction batteries has been developed in the R/D-project "Li-WERT". Instead of complete smelting of the batteries without pretreatment, an automated disassembly and specific treatment of the material streams was realised, adjusted to the needs of the subsequent recovery technologies. A higher quality, with reduced expenses for the separation of fine-grained or fused material mixes, can be obtained for the individual components. The automated disassembly using an industrial robot significantly reduces dangers for the operating crew. The selective disassembly and beneficiation allows full recovery of the fractions. The batteries will be disassembled to cell level by the industrial robot. Anodes, cathodes, and separation layers are isolated and processed. The technology is designed, that no waste is generated for disposal. The pelletised cathode coating and the other separated metals (stainless steel, copper, aluminum) can be used in respective metallurgical plants. Circuit boards and plug contacts are also coveted secondary raw materials for reuse. The process is modular and offers high flexibility, e. g. for new battery types/ sizes by quick adjustment of the robot and tool change. Adaptation to other cathode materials (e. g. Li[FePO]) is possible. After finishing the R/D-project, a pilot plant for demontage was realised in 2013.}, language = {en} } @inproceedings{MarkowskiAyPempeletal., author = {Markowski, Jens and Ay, Peter and Pempel, Harry and M{\"u}ller, Mike}, title = {Entwicklung eines innovativen Verfahrens zur automatisierten Demontage und Auf-bereitung von Lithium-Ionen-Batterien aus Fahrzeugen}, series = {Recycling und Rohstoffe : Band 5}, booktitle = {Recycling und Rohstoffe : Band 5}, edition = {1. Auflage}, publisher = {TK Verlag Karl Thom{\´e}-Kozmiensky}, address = {Neuruppin}, isbn = {978-3-935317-82-5}, pages = {443 -- 456}, abstract = {Die automobile Antriebstechnik steht in den n{\"a}chsten Jahrzehnten vor tief greifenden Ver{\"a}n-derungen. Nachdem {\"u}ber 125 Jahre der Verbrennungsmotor die vorherrschende Antriebsart darstellte, basieren neue Entwicklungen auf Elektroantrieben oder auf der Kombination ver-schiedener Antriebsformen. Fahrzeuge mit elektrischen Antrieben haben mittlerweile den Status der Serienreife erreicht und werden perspektivisch zunehmend das Straßenbild be-stimmen. Mit der so genannten Lithium-Ionen-Traktionsbatterie wurde in den letzten Jahren ein Spei-chermedium zur Serienreife gef{\"u}hrt, welches einen hohen elektrischen Wirkungsgrad mit kompakten Maßen und geringem Eigengewicht vereinigt. Mit den auf der Nutzung von Li-thium-Akkumulatoren basierenden Antriebskonzepten kann ein entscheidender Schritt zur Umsetzung einer umfassenden Verbreitung der elektrischen Antriebstechnik im Bereich der individuellen Mobilit{\"a}t erfolgen.}, language = {de} } @misc{WhaleSpiegelaereTrypsteenetal., author = {Whale, Alexandra S. and Spiegelaere, Ward De and Trypsteen, W. and Nour, Afif Abdel and Bae, Young-Kyung and Benes, Vladimir and Cleveland, Megan and Devonshire, Alison S. and Dong, Lianhua and Drandi, Daniela and Foy, Carole A. and Garson, Jeremy A. and He, Hua-Jun and Hellemans, Jan and Kubista, Mikael and Lievens, Antoon and Makrigiogos, Mike G. and M{\"u}ller, Reinhold D. and Nolan, Tania and O'Sullivan, Denise M. and Pfaffl, Michael W. and R{\"o}diger, Stefan and Romsos, Erica L. and Shipley, Gregory L. and Taly, Valerie and Untergasser, Andreas and Wittwer, Carl T. and Bustin, Stephen A. and Vandesompele, Jo and Huggett, Jim F.}, title = {The Digital MIQE Guidelines Update: Minimum Information for Publication of Quantitative Digital PCR Experiments for 2020}, series = {Clinical Chemistry}, volume = {66}, journal = {Clinical Chemistry}, number = {8}, issn = {0009-9147}, doi = {10.1093/clinchem/hvaa125}, pages = {1012 -- 1029}, language = {en} } @misc{DreyerMuellerBernascheketal., author = {Dreyer, Christian and M{\"u}ller, Vivian C. and Bernaschek, Andreas and Frahm, Mike and Jankowski, Benjamin and Elagroudy, Youssef and Koppusch, Klarissa and Fiedler, Tom and Eckert, Angelika and Tatai, Tiberiu Mihai and Borges, Ralf and Behrendt, Felix and Fricke, Anna and Schreiner, Monika and Seidlitz, Holger}, title = {Functional integration of photonic components for (vertical) urban farming}, series = {Photonic Technologies in Plant and Agricultural Science III}, journal = {Photonic Technologies in Plant and Agricultural Science III}, editor = {Heinemann, Dag and Polder, Gerrit}, publisher = {SPIE}, address = {Bellingham, WA}, issn = {277-786X}, doi = {10.1117/12.3081069}, abstract = {The project Food4Future (F4F) is a long-term initiative funded by the German government. The decade-long project aims to develop groundbreaking ideas for urban farming, along with the corresponding materials, technologies and processes. It considers various future scenarios such as the collapse of global supply chains ("no trade") and a severe shortage of arable land ("no land"). Different strategies for cultivating organisms such as crickets, jellyfish, halophytes and algae in an urban environment are being developed. New modular cultivation compartments have been constructed and built which can be used as stand-alone units or in a paternoster (continuous loop) system. An overview is given on the functional integration of SMD-LEDs, ranging from large planar flat units for halophyte cultivation to salt water-resistant UV-LED light sabers for algae cultivation and LEDs integrated directly into transparent composites.}, language = {en} }