• Crystal structure of (1S,2S,4S,5R)-2-hydroxymethyl-5-ethynyl-1-azabicyclo[ 2.2.2]octane, (HOCH2) (HC2)(C7H11N) 

  Wartchow, Rudolf; Schräke, O.; Braje, W.M.; Hoffmann, H.M.R. (Berlin, Boston : De Gruyter, 1999)

  [no abstract]
• Crystal structure of triholmium pentagallium dodecaoxide, Ho3Ga2(GaO4)3 and of tridysprosium pentagallium dodecaoxide, Dy3Ga2(GaO4)3 

  Patzke, G.; Wartchow, Rudolf; Binnewies, M. (Berlin, Boston : De Gruyter, 1999)

  [no abstract]
• Crystal structure of hexapraseodymium(III) trinitride tetrasulfide chloride, Pr6N3S4Cl 

  Meyer, M.; Schleid, T. (Berlin, Boston : De Gruyter, 1999)

  [no abstract]
• Crystal structure of strontium praseodym trigallium heptaoxide, (Sr0.5Pr0.5)2Ga3O7 

  Gesing, T.M.; Uecker, R.; Buhl, J.-C. (Berlin, Boston : De Gruyter, 1999)

  [no abstract]
• Crystal structure of strontium praseodym aluminate, SrPrAlO4 

  Gesing, T.M.; Uecker, R.; Buhl, J.-C. (Berlin, Boston : De Gruyter, 1999)

  [no abstract]
• Crystal structure of praseodym gallate, Pr4Ga2O9 

  Gesing, T.M.; Uecker, R.; Buhl, J.-C. (Berlin, Boston : De Gruyter, 1999)

  [no abstract]
• Crystal structure of distrontium praseodym gallium pentaoxide, Sr2PrGaO5 

  Gesing, T.M.; Uecker, R.; Buhl, J.-C. (Berlin, Boston : De Gruyter, 1999)

  [no abstract]
• Crystal structure of lithium zinc arsenate hydrate, LiZnAsO4 · H2O 

  Gesing, T.M. (Berlin, Boston : De Gruyter, 1999)

  [no abstract]
• Crystal structure of hexasodium trizinc tetraarsenate trihydrate, Na6Zn3(AsO4)4 3H2O 

  Gesing, T.M.; Wartchow, Rudolf (Berlin, Boston : De Gruyter, 1999)

  [no abstract]
• Aktiver Scheinwerfer mit DMD-Technologie zur Erzeugung vollständiger Lichtverteilungen 

  Knöchelmann, Marvin; Wolf, Alexander; Kloppenburg, Gerolf; Lachmayer, Roland (Düsseldorf : VDI Verlag GmbH, 2018-06-05)

  In diesem Beitrag wird der Prototyp eines aktiven Scheinwerfers vorgestellt, der durch den Einsatz eines Mikrospiegelarrays (DMD) hochaufgelöste Lichtverteilungen generieren kann. Mit der eingesetzten verzeichnenden ...
• Zur Bewertung von High Sensitivity GNSS-Empfängern bei der Kombination in Multi-Sensor-Systemen 

  Kersten, Tobias; Paffenholz, Jens-André (Bonn : DGON, 2018-11-16)

  Die instantan mit stationären, terrestrischen Laserscannern (TLS) aufgenommen dreidimensionalen Punktwolken beziehen sich generell auf ein lokales Horizontsystem, dessen Lage und Orientierung gegenüber einem übergeordnetem ...
• Separation of Isotopologues in Ultra-High-Resolution Ion Mobility Spectrometry 

  Kirk, Ansgar T.; Raddatz, Christian-Robert; Zimmermann, Stefan (Washington D.C. : American Chemical Society, 2017)

  Ion mobility spectrometry provides ion separation in the gas phase mainly based on differing ion-neutral collision cross sections, enabling powerful analysis of many isomers. However, the separation also has a miniscule ...
• Electron Capture Detector with Non-Radioactive Electron Source 

  Bunert, Erik; Kirk, Ansgar T.; Oermann, Jens; Zimmermann, Stefan (Basel : MDPI, 2017)

  Gas chromatographs equipped with electron capture detectors (ECD) are widely used for the analysis of electron affine substances. Achieving limits of detection in the low pptv-range, electron capture detectors are the most ...
• Quantitative Detection of Benzene in Toluene- and Xylene-Rich Atmospheres Using High-Kinetic-Energy Ion Mobility Spectrometry (IMS) 

  Langejuergen, Jens; Allers, Maria; Oermann, Jens; Kirk, Ansgar T.; Zimmermann, Stefan (Washington D.C. : American Chemical Society, 2014)

  One major drawback of ion mobility spectrometry (IMS) is the dependence of the response to a certain analyte on the concentration of water or the presence of other compounds in the sample gas. Especially for low proton ...
• Nanostructured materials and their application in thermoelectric energy harvesting 

  Bittner, Michael (Hannover : Institutionelles Repositorium der Leibniz Universität Hannover, 2018)

  Thermoelectric materials can, reversibly and without any moving parts, convert thermal energy into electrical energy by coupling an entropic and an electrical flux with each other. This ability is becoming increasingly ...
• Crystal structure of 1,8-dimethyl-7α-methoxy-10α-(triisopropylsilyloxy)- (2β) - 12-oxatricyclo[6.3.1.02,7] dodecane-3β,4α-diol, [(C3H7)3SiO](CH3)2(OH)2(OCH3)(C11H12O) 

  Wittenberg, J.; Hoffmann, H.M.R.; Wartchow, Rudolf (Berlin, Boston : De Gruyter, 2000)

  [no abstract]
• Crystal structure of cobalt chromium germanium, CoCrGe 

  Wirringa, J.; Wartchow, Rudolf; Binnewies, M. (Berlin, Boston : De Gruyter, 2000)

  [no abstract]
• Crystal structure of (1S,2R,4S)-2-bromomethyl-1-azabicyclo[2.2.2]·octan-5-one, C8H12BrNO 

  Wartchow, Rudolf; Frackenpohl, J.; Hoffmann, H.M.R. (Berlin, Boston : De Gruyter, 2000)

  [no abstract]
• Refinement of the crystal structure of diindium disilicate, In2(Si2O7) 

  Patzke, G.R.; Wartchow, Rudolf; Binnewies, M. (Berlin, Boston : De Gruyter, 2000)

  [no abstract]
• Crystal structure of strontium praseodum gallium oxide, SrPrGaO4 

  Gesing, T.M.; Uecker, R.; Buhl, J.-C. (Berlin, Boston : De Gruyter, 2000)

  [no abstract]

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