Automated planning for material shaping operations in additive/subtractive Solid Freeform Fabrication. View details for DOI 10.1016/j.biomaterials.2006.11.002, View details for Web of Science ID 000243219000028, View details for DOI 10.1016/j.ssi.2006.12.016, View details for Web of Science ID 000245616100005, View details for Web of Science ID 000242538600013, View details for Web of Science ID 000250953500015, View details for Web of Science ID 000248984600013, View details for Web of Science ID 000254563600177, View details for Web of Science ID 000246435400008, View details for DOI 10.1109/JMEMS.2006.883566, View details for Web of Science ID 000242983300005, View details for DOI 10.1016/j.jpowsour.2006.03.021, View details for Web of Science ID 000241412000026, View details for DOI 10.1016/j.jpowsour.2006.04.123, View details for Web of Science ID 000241412000021, View details for DOI 10.1016/j.jpowsour.2006.03.054, View details for Web of Science ID 000241412000024, View details for Web of Science ID 000241056900097, View details for DOI 10.1088/0957-4484/17/15/019, View details for Web of Science ID 000239693600019, View details for DOI 10.1016/j.mee.2006.01.262, View details for Web of Science ID 000237581900246, View details for Web of Science ID 000235136600017, View details for Web of Science ID 000239520400013, View details for Web of Science ID 000249884000138, View details for Web of Science ID 000237146500002, View details for Web of Science ID 000234543400034, View details for Web of Science ID 000236994500235, View details for Web of Science ID 000234113600006, View details for Web of Science ID 000233602600023, View details for DOI 10.1016/j.snb.2004.10.058, View details for Web of Science ID 000230330300158, View details for DOI 10.1243/095440505X32463, View details for Web of Science ID 000231697100004, View details for DOI 10.1109/TIM.2005.847233, View details for Web of Science ID 000229250800023, View details for DOI 10.1016/j.tsf.2004.09.059, View details for Web of Science ID 000227509100025, View details for Web of Science ID 000228243600027, View details for DOI 10.1016/j.nimb.2004.10.009, View details for Web of Science ID 000226213800014, View details for Web of Science ID 000227142400026, View details for Web of Science ID 000243098600027, View details for Web of Science ID 000228764100015, View details for DOI 10.1016/j.ssi.2004.09.061, View details for Web of Science ID 000225990500161, View details for Web of Science ID 000224658100071, View details for Web of Science ID 000223720000082, View details for Web of Science ID 000223778000003, View details for DOI 10.1016/j.jpowsour.2004.03.036, View details for Web of Science ID 000222559300008, View details for DOI 10.1109/JLT.2004.829231, View details for Web of Science ID 000222708600010, View details for Web of Science ID 000221843400125, View details for DOI 10.1108/13552540410551360, View details for Web of Science ID 000223628300004, View details for Web of Science ID 000189447200008, View details for Web of Science ID 000224927900015, View details for Web of Science ID 000221436900015, View details for Web of Science ID 000189496100028, View details for DOI 10.1016/S0378-7753(03)00802-4, View details for Web of Science ID 000187023700011, View details for DOI 10.1080/0020754021000032040, View details for Web of Science ID 000184005800004, View details for Web of Science ID 000184637800021, View details for Web of Science ID 000181515100005, View details for Web of Science ID 000222969800016, View details for Web of Science ID 000184053200016, View details for Web of Science ID 000186761000021, View details for Web of Science ID 000222632800017, View details for Web of Science ID 000184053200061, View details for Web of Science ID 000179344600008, View details for Web of Science ID 000178129700025, View details for Web of Science ID 000177236000027, View details for Web of Science ID 000176753400033, View details for Web of Science ID 000178011900174, View details for Web of Science ID 000171269400011, View details for Web of Science ID 000171079400001, View details for Web of Science ID 000186891500007, View details for Web of Science ID 000174008900023, View details for Web of Science ID 000172441200008, View details for Web of Science ID 000170149900007, View details for Web of Science ID 000169955500002, View details for Web of Science ID 000173444800003, View details for Web of Science ID 000089960600018, View details for Web of Science ID 000085966600012, View details for Web of Science ID 000087206400001, View details for Web of Science ID 000168248000025, View details for Web of Science ID 000168423900006, View details for Web of Science ID 000168584000238, View details for Web of Science ID 000088899600019, View details for Web of Science ID 000080437300004, View details for Web of Science ID 000088256800049, View details for Web of Science ID 000088256800013, View details for Web of Science ID 000088256800014, View details for Web of Science ID 000088256800027, View details for Web of Science ID 000088256800084, View details for Web of Science ID 000079197700023, View details for Web of Science ID 000088256800080, View details for Web of Science ID 000075513300022, View details for Web of Science ID 000082420400064, View details for Web of Science ID 000076920300017, View details for Web of Science ID 000082420400026, View details for Web of Science ID 000082420400083, View details for Web of Science ID 000073491100007, View details for Web of Science ID 000082420200061, View details for Web of Science ID A1997XZ13000002, View details for Web of Science ID 000082420200015, View details for Web of Science ID A1996UN96800008, View details for Web of Science ID A1996UG37600008, View details for Web of Science ID A1996TT53600021, View details for Web of Science ID A1996TZ96300022, View details for Web of Science ID 000082420300015, View details for Web of Science ID 000082420300005, View details for Web of Science ID A1996BF68P00172, View details for Web of Science ID A1994BA72M00428, View details for Web of Science ID A1994BC13M00055, View details for Web of Science ID A1993KZ54500002, View details for Web of Science ID A1992JQ08300002, View details for Web of Science ID A1992HQ43700011, View details for Web of Science ID A1991BT14J00183, View details for Web of Science ID A1988N430000001, View details for Web of Science ID A1987H820300025, View details for Web of Science ID A1987L656000004, Sir Christopher Hinton Lecture, Royal Academy of Engineering (1991), Engineer of the Year, American Society of Mechanical Engineers, Pittsburgh, PA Section (1991 - 1992), Corresponding member, Austrian Academy of Science, Vienna, Austria (1996), Award for Excellence, Literati Club (2002), Most Outstanding Paper in the 2001 volume, Rapid Prototyping Journal (2002), The AM Strickland Prize for Best Paper in 2005, The Institution of Mechanical Engineers, London, UK (2005), Tedori-Callinan Lecture, University of Pennsylvania (2006), Fellow, American Association for the Advancement of Science (AAAS) (2007), Woodruff Colloquium in the Theme of Energy, Georgia Institute of Technology, Atlanta, GA (2008), Munushian Lecture, University of Southern California (2009), PhD, University of Vienna, Physics (1975), Department: Materials Science and Engineering, NPL Affiliate Program Manager, NPL Administrator, Plasma-enhanced atomic layer deposition of tungsten nitride. Effect of Cation Non-Stoichiometry and Crystallinity on the Ionic Conductivity of Atomic Layer Deposited Y:BaZrO3 Films. View details for Web of Science ID 000330163100003, View details for Web of Science ID 000330158900093, View details for DOI 10.1016/j.tsf.2013.05.092, View details for Web of Science ID 000321111100029, View details for DOI 10.1016/j.actamat.2013.03.027, View details for Web of Science ID 000319304400032. Atomic Layer Deposition of Lead Sulfide Quantum Dots on Nanowire Surfaces. Direct Extraction of Photosynthetic Electrons from Single Algal Cells by Nanoprobing System. Logar, M., Xu, S., Acharya, S., Prinz, F. B. Observing the Nucleation Phase of Atomic Layer Deposition In Situ. Impact of Accompanying Hydrogen Generation on Metal Nanotube Electrodeposition. Tim Holme | ENERGY - Stanford University Thian, D., Yemane, Y. T., Logar, M., Xu, S., Schindler, P., Winterkorn, M. M., Provine, J., Prinz, F. B. Langston, M. C., Dasgupta, N. P., Jung, H. J., Logar, M., Huang, Y., Sinclair, R., Prinz, F. B. Thickness effects of yttria-doped ceria interlayers on solid oxide fuel cells, Nickel Silicide Nanowire Arrays for Anti-Reflective Electrodes in Photovoltaics. Prior to joining QuantumScape, he was a Research Associate at Stanford University from June 2008 to January 2011. Our results show that this method can be applied to various device-fabrication processes, presenting new opportunities for various nanofabrication schemes and manifesting the benefits of self-assembly. Mr. Hettrich is QuantumScapes Chief Financial Officer. The resulting micro-SOFC electrolyte membrane showed a hexagonal-pyramid array nanostructure and achieved a power density of 1.34 W/cm(2) at 500 C. This study presents atomic scale characterization of grain boundary defect structure in a functional oxide with implications for a wide range of electrochemical and electronic behavior. Friedrich Prinz's Profile | Stanford Profiles s) are accessible superseding the use of extrinsic doping, which generally produces orders of magnitude smaller values. QuantumScape was worth $54 billion on the stock market shortly after it went public in 2020. The key to our technology is a patented solid ceramic electrolyte separator, the material that keeps the anode and cathode from touching and moves lithium ions from one side of the battery to the other during charge and discharge. Fritz Prinz Net Worth, Biography, and Insider Trading For Pt clusters supported on HOPG with vacancy aggregations, this study shows a strong driving force for nucleation and a much enhanced tendency for particle ripening. B., Fasching, R., Prinz, F. B. Surface modification of platinum thin film electrodes towards a defined rouhgness and microporosity. Ms. Fong holds a B.S. What is QuantumScape? The flame reduction method has unique advantages of a high temperature (>1000 C), ultrafast heating rate, tunable reduction environment, and open-atmosphere operation, so it enables rapid formation of oxygen vacancies (less than one minute) without damaging the nanowire morphology and crystallinity and is even applicable to various metal oxides. Low Temperature Direct Methanol Fuel Cell with YSZ Electrolyte. The catalytic performance was measured using as little as 1 cycle of Pt ALD, which corresponded to a surface mass loading of 10 ng/cm(2). An, J., Kim, Y. Human fibroblast and hASC stiffness was also ascertained for comparison. Fritz B Prinz, Quantumscape Corp: Profile and Biography Seo, Y. H., Kim, L. H., Prinz, F. B., Ryu, W. Electrochemical tuning of vertically aligned MoS2 nanofilms and its application in improving hydrogen evolution reaction. Using such nanofilms after different degree of Li intercalation, we show the significant improvement of the hydrogen evolution reaction activity. [3] In 2012, QuantumScape began working with German automaker Volkswagen . In the future, arrays of micro-SOFCs with high power density may enable a range of mobile and portable power applications. Effect of High Surface Area Pd Electrodes on SOFC Performance at 350 degrees C. Komadina, J., Motoyama, M., Kim, Y. His focus is on micro and nano research in the field of energy, where he researches new materials and methods for efficient energy conversion and storage. Mr. Singh co-founded QuantumScape and has served as its Chief Executive Officer since QuantumScapes incorporation in May 2010. Pt) are one of the main contributors to low-temperature (<500 C) fuel cell costs, significant efforts have been made to lower the noble metal loading in constructing fuel cell electrodes. Density functional theory was used to simulate Sr and Ba precursors, and several precursors were selected and used to grow films via ALD as test cases for the precursor selection method. Bai, S., Ryu, W., Fasching, R. J., Grossman, A. R., Prinz, F. B. Cup-shaped yttria-doped barium zirconate membrane fuel cell array, Improved Solid Oxide Fuel Cell Performance with Nanostructured Electrolytes, Nonprecious Metal Catalysts for Low Temperature Solid Oxide Fuel Cells, Enhancing Oxide Ion Incorporation Kinetics by Nanoscale Yttria-Doped Ceria interlayers, Crater patterned 3-D proton conducting ceramic fuel cell architecture with ultra thin Y:BaZrO3 electrolyte. QuantumScape History: Founding, Timeline, and Milestones HEMMERLE, J. S., Terk, M., GURSOZ, E. L., Prinz, F. B., Doyle, T. E. Integrated miniaturized biosensors for clinical analyzers and in vivo applications. Fritz Prinz - Insider Trading Tracker - Fintel Interlayering 17.5 nm of Yttria-doped ceria (YDC) thin films between bulk yttria-stabilized-zirconia electrolyte and a porous Pt cathode enhanced the performance of low-temperature solid oxide fuel cells. View details for Web of Science ID 000298643100032, View details for DOI 10.1557/mrs.2011.265, View details for Web of Science ID 000299230300018, View details for DOI 10.1016/j.mee.2011.06.003, View details for Web of Science ID 000297400900009, View details for DOI 10.1016/j.ssi.2011.07.004, View details for Web of Science ID 000295892700007. QuantumScape CEO Jagdeep Singh, who founded the company in 2010 with fellow Stanford scientists Fritz Prinz and Tim Holme, believes the electric battery share of the overall vehicle market. Prinz, F., B., Gowrishankar, V., Hutton, D., Fluhrer, C., Dasgupta, N. Water Removal from Proton Exchange Membrane Fuel Cells via Electroosmotic Pumping. In comparing hASC-iPSCs to their origin cell, the hASC, the reprogrammed cell is significantly less stiff, indicating that greater differentiation potentials may correlate with a lower cellular modulus. Prinz, F., B., Fasching, R., Aschauer, E., Jobst, G., Urban, G. THE ENGINEERING DESIGN RESEARCH-CENTER OF CARNEGIE-MELLON-UNIVERSITY. Jiang, X., Guer, T. M., Prinz, F. B., Bent, S. F. Silicon-based Thin Film Solid Oxide Fuel Cell Array, Proton Conductivity Studies of Y-Doped Barium Zirconate: Theoretical and Experimental Approaches. Dadlani, A. L., Trejo, O., Acharya, S., Torgersen, J., Petousis, I., Nordlund, D., Sarangi, R., Schindler, P., Prinz, F. B. Huang, H., Gur, T. M., Saito, Y., Prinz, F. Geometric artefact suppressed surface potential measurements, Nanoscale electrochemical probes for single cell analysis.