@article{RegehlyGarmshausenReuteretal.2020, author = {Regehly, Martin and Garmshausen, Yves and Reuter, Marcus and K{\"o}nig, Niklas F. and Israel, Eric and Kelly, Damian P. and Chou, Chun-Yu and Koch, Klaas and Asfari, Baraa and Hecht, Stefan}, title = {Xolography for linear volumetric 3D printing}, series = {Nature}, volume = {588}, journal = {Nature}, publisher = {Nature Research}, doi = {10.1038/s41586-020-3029-7}, pages = {620 -- 624}, year = {2020}, language = {en} } @article{MoellmannVollmer2000, author = {M{\"o}llmann, Klaus-Peter and Vollmer, Michael}, title = {Zauberei, Diffusion, industrielle Messtechnik und 100 Jahre Quantentheorie : Einige Freihandexperimente zur Optik und W{\"a}rmestrahlung}, series = {In: Physik in der Schule 38 (2000) 4, 260-262}, journal = {In: Physik in der Schule 38 (2000) 4, 260-262}, pages = {260 -- 262}, year = {2000}, language = {de} } @article{VollmerMoellmann2011, author = {Vollmer, Michael and M{\"o}llmann, Klaus-Peter}, title = {Zersplitterndes Holz auf rohen Eiern}, series = {In: Physik in unserer Zeit 42 (2011) 6, 305-306}, journal = {In: Physik in unserer Zeit 42 (2011) 6, 305-306}, doi = {10.1002/piuz.201190083}, pages = {305 -- 306}, year = {2011}, abstract = {Manch einer kennt die Show-Darbietungen, bei denen ein Sportler mit bloßen H{\"a}nden oder F{\"u}ßen Mauersteine oder Holzplatten zertr{\"u}mmert. Schon lange sind die physikalischen Hintergr{\"u}nde der Bruchmechanik und Dynamik bekannt, die diese scheinbar unm{\"o}glichen Kunstst{\"u}cke erlauben. Dennoch steht das Verst{\"a}ndnis der physikalischen Bewegungsgesetze h{\"a}ufig im Gegensatz zu unserer Alltagserwartung.}, language = {de} } @article{VollmerMoellmann2013, author = {Vollmer, Michael and M{\"o}llmann, Klaus-Peter}, title = {Zerst{\"a}uben großer Wassertropfen (Rasante Physik),}, series = {In: Physik in unserer Zeit 44 (2013) 3, 149-150}, journal = {In: Physik in unserer Zeit 44 (2013) 3, 149-150}, doi = {10.1002/piuz.201390049}, pages = {149 -- 150}, year = {2013}, abstract = {In der Natur kommen Wassertropfen in verschiedenen Gr{\"o}ßen vor. Kleine Tr{\"o}pfchen von etwa 10 μm sind {\"u}blich in Nebel und Wolken, w{\"a}hrend Regentropfen bis zu 5 mm Durchmesser erreichen k{\"o}nnen. Gr{\"o}ßere Tropfen k{\"o}nnen oszillieren, w{\"a}hrend kleinere im Allgemeinen kugelf{\"o}rmig sind. Offensichtlich k{\"o}nnen Wassertropfen nicht beliebig groß werden. Welche Faktoren beschr{\"a}nken die m{\"o}gliche Gr{\"o}ße?}, language = {de} } @inproceedings{Vollmer2002, author = {Vollmer, Michael}, title = {{\"U}ber die Farben der Sonne und des Himmels: Rayleigh- und Miestreuung in Demonstrationsexperimenten}, series = {In: CD zur Fr{\"u}hjahrstagung des Fachverbandes Didaktik der Physik in der Deutschen Physikalischen Gesellschaft : Leipzig, 2002 / Red.: V. Nordmeier. - Berlin : Lehmann, [2002]. - 1 CD-ROM. - ISBN 3-936427-11-9}, booktitle = {In: CD zur Fr{\"u}hjahrstagung des Fachverbandes Didaktik der Physik in der Deutschen Physikalischen Gesellschaft : Leipzig, 2002 / Red.: V. Nordmeier. - Berlin : Lehmann, [2002]. - 1 CD-ROM. - ISBN 3-936427-11-9}, year = {2002}, language = {de} } @misc{Loewe2011, author = {L{\"o}we, Katharina}, title = {{\"U}berblick zur solaren Stromerzeugung durch Photovoltaik und zuk{\"u}nftige Herausforderungen im Themenfeld Ressourceneffizienz und Recycling}, year = {2011}, language = {de} } @article{OchkovKraskaLukatsky2024, author = {Ochkov, V. F. and Kraska, Martin and Lukatsky, A. M.}, title = {Математический Анализ Трамвайных Путей}, series = {Физика в школе}, journal = {Физика в школе}, doi = {10.47639/0130-5522_2024_1_32}, pages = {32 -- 45}, year = {2024}, abstract = {В статье рассказано, как необходимо проектировать повороты железной дороги, чтобы не было сильных боковых толчков. используются методы математического анализа для решения задачи. пред- ложена новая переходная кривая}, language = {ru} } @article{MikhailovLamkinDegterevetal.2023, author = {Mikhailov, Ivan Igorevich and Lamkin, I. A. and Degterev, Aleksandr and Degtereva, Mariya and Pavlova, Marina and Kurachkina, Marharyta and Tarasov, S. A. and Kuzmina, Ulyana}, title = {Фоточувствительные структуры с каскадными концентраторами излучения на основе коллоидных квантовых точек халькогенидов металлов}, series = {Journal of the Russian Universities Radioelectronics}, volume = {26}, journal = {Journal of the Russian Universities Radioelectronics}, number = {2}, publisher = {Saint Petersburg Electrotechnical University}, issn = {2658-4794}, doi = {10.32603/1993-8985-2023-26-2-78-88}, pages = {78 -- 88}, year = {2023}, abstract = {The problem of increasing the efficiency of existing photodetectors and creating their new types attracts much research attention. Among new photodetector types are photosensitive structures based on cascade concentrators, whose operational principle involves the absorption of optical radiation followed by its reemission at a longer wavelength and radiation concentration onto a highly efficient small-area photodetector. The absorption and re-emission spectra of each cascade layer depend on the characteristics of the material used. Сolloidal quantum dots are among the most promising materials for cascade layers due to their manufacturing technology, which provides for accurate control over the photoluminescence maximum position. It seems highly relevant to develop and to study photosensitive structures with cascade concentrators of various shapes based on CdS, CdSe/ZnS, and PbS colloidal quantum dots. Aim . To develop photosensitive structures with a wide-range sensitivity spectrum based on concentrators containing arrays of metal chalcogenide CQDs and to study their characteristics. Materials and methods . Cascade photosensitive structures were manufactured based on layers made of polymethyl methacrylate and layers of colloidal quantum dots embedded in a polystyrene matrix. Results . Three-layer concentrators were manufactured with different colloidal quantum dots in each concentrator layers. A 22 \% increase in the output power was observed for a three-layer cascade structure based on different cascade layer materials compared to a similar structure using a single layer concentrator. Conclusion . The conducted studies showed an increase in the efficiency of photosensitive structures with a cascade concentrator based on colloidal quantum dots of various types (CdS, CdSe/ZnS, and PbS) in the cascade layers.}, language = {ru} } @article{Vollmer1995, author = {Vollmer, Michael}, title = {"Wenn das Licht in Farben sich erbricht ...", Teil 1}, series = {In: : Physik in unserer Zeit 26 (1995) 3, 106 - 115}, journal = {In: : Physik in unserer Zeit 26 (1995) 3, 106 - 115}, doi = {10.1002/piuz.19950260303}, pages = {106 -- 115}, year = {1995}, abstract = {Fata Morgana, Regenb{\"o}gen, Sonnenhunde, Brockengespenst, gr{\"u}ne Sonnenstrahlen, D{\"a}mmerungsfarben bei klarer und tr{\"u}ber Atmosph{\"a}re. Diese optischen Erscheinungen der Atmosph{\"a}re bieten nicht nur faszinierende Anblicke, sondern beinhalten vor allem interessante Physik.}, language = {de} } @article{Vollmer1995, author = {Vollmer, Michael}, title = {"Wenn das Licht in Farben sich erbricht ...", Teil 2}, series = {In: Physik in unserer Zeit 26 (1995) 4, 176 - 184}, journal = {In: Physik in unserer Zeit 26 (1995) 4, 176 - 184}, doi = {10.1002/piuz.19950260406}, pages = {176 -- 184}, year = {1995}, language = {de} }