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    1. STATISTIKA CITACÍ
    2. CITACE ČLÁNKŮ PUBLIKOVANÝCH V ČASOPISECH
    3. CITACE ČLÁNKŮ PUBLIKOVANÝCH VE SBORNÍCÍCH
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Počet citací článků publikovaných v časopisech: 857
Počet citací článků publikovaných ve sbornících: 74
Počet citací, které neuvádějí přesný zdroj mých prací: 22
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CITACE ČLÁNKŮ PUBLIKOVANÝCH V ČASOPISECH
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Autrata R., Schauer P.: Scintilátory pro rastrovací elektronový mikroskop. Slaboproudý obzor 38 (1977), p.511. Práce, které uvádějí citaci:
  1. Bok, J: Cathodoluminescence mechanism of YAG:Ce single crystals (Mechanismus katodoluminisce monokrystalu YAG:Ce). PhD Thesis, Masaryk University Brno, Czech Republic (2014).


Autrata R., Schauer P., Kvapil Jos., Kvapil Ji.: A single crystal of YAG:Ce - new fast scintillator in SEM. J. Phys E: Sci. Instrum. 11 (1978), p.707. Práce, které uvádějí citaci:
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  4. Autrata, R; Schauer, P; Kvapil, J; Kvapil, J: Cathodoluminescent efficiency of Y3Al5O12 and YAlO3 single-crystals in dependence on Ce-3+ and other dopants concentration. Cryst. Res. Technol. 18 7 (1983), p.907-913.
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Autrata R., Schauer P., Kvapil Ji., Kvapil Jos.: Die Anwendung der Einkristall-Scintillatoren und Sichtschrime in Elektronenmikroskopen. Beitr. Elektronenmikroskop. Direktabb. Oberfl. 18 (1985), p.97. Práce, které uvádějí citaci:
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Schauer, P.; Autrata, R.: Light Transport in Single-Crystal Scintillation Detectors in SEM. Scanning 14 6 (1992), p.325-333. Práce, které uvádějí citaci:
  1. Schauer, P; Autrata, R: Coatings of single crystal scintillators for electron detectors in SEM. EUREM 92, 10th European Congress on Electron Microscopy, Granada, Spain 1 (1992), p.107-108.
  2. Schauer, P; Autrata, R: Efficiency of SEM/STEM Scintillation Electron Detectors with Edge Guided Signal. Multinational Congress on Electron Microscopy, Parma (1993), p.357-358.
  3. Hejna, J: Detection of topographic contrast in the scanning electron microscope at low and medium resolution by different detectors and detector systems. Scanning Microsc 8 2 (1994), p.143-164.
  4. Autrata, R; Schauer, P: Cathodoluminescent properties of single crystal materials for electron microscopy. Scanning Microscopy (Supplement) 9 (1995), p.1-12.
  5. Kirkland, EJ; Thomas, MG: A high efficiency annular dark field detector for STEM. Ultramicroscopy 62 1-2 (1996), p.79-88.
  6. Schauer, P; Autrata, R: Computer Designed Scintillation Detectors for SEM. 5th Seminar of Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Brno, Czech Republic (1996), p.73-74.
  7. Schauer, P; Autrata, R: Some Methods for Investigation of Detector Components for Electron Microscopy. 5th Seminar of Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Brno, Czech Republic (1996), p.47-50.
  8. Schauer, P; Autrata, R: Computer optimized design of BSE scintillation detector for SEM. EUREM-11, the Eleventh European Congress on Electron Microscopy (Edited and Published by the CESM, Brussels 1998), Dublin, Ireland (1996), p.369-370.
  9. Schauer, P; Autrata, R: Scintillator-photocathode matching in scintillation detector for S(T)EM. J.Computer-Assisted Microsc. 9 (1997), p.105-106.
  10. Reimer, L: Electron Detectors and Spectrometers. in: Scanning Electron Microscopy - Physics of Image Formation and Microanalysis, Springer-Verlag, Berlin Heidelberg, 1998 Chapter 5 (1998), p.171-205.
  11. Birtchenko, RN; Filippov, MN; Rau, EI; Robinson, VNE; Sedov, NN: Investigation of Light Collection Efficiency and Light Transport in BSE Scintillation Detectors in SEM. Proc. 14th International Congress on Electron Microscopy (ICEM 14), Vol 1: General Interest And Instrumentation, Cancun (Mexico) 1 (1998), p.77-78.
  12. Schauer, P; Autrata, R: Performance of detector elements for electron microscopes. 12th European Congress on Electron Microscopy, Brno, Czech Republic 3 I (2000), p.455-458.
  13. Filippov, MN; Rau, EI; Sennov, RA; Boyde, A; Howell, RGT: Light collection efficiency and light transport in backscattered electron scintillator detectors in scanning electron microscopy. Scanning 23 5 (2001), p.305-312.
  14. Schauer, P; Autrata, R: Optimization of scintillation detector for SEM. EMC 2004 - 13th European Microscopy Congress, Antwerp, Belgium I 69-70 (2004).
  15. Schauer, P; Autrata, R: Monte Carlo Simulation Code for Photon Collection in S(T)EM Scintillation Detectors. 7th Multinational Congress on Microscopy, Portoroz, Slovenia 199-200 (2005).
  16. Schauer, P; Autrata, R: Extended Algorithm for Optimization of Photon Transport in Scintillation Detector. Dreiländertagung Microscopy Conference 2005, Davos, Switzerland 325-333 (2005).
  17. Konvalina, I; Mullerova, I: The trajectories of secondary electrons in the scanning electron microscope. Scanning 28 5 (2006), p.245-256.
  18. Schauer, P: Extended algorithm for simulation of light transport in single crystal scintillation detectors for S(T)EM. Scanning 29 6 (2007), p.249-253.
  19. Konvalina, I: Quantification of detection efficiency of the detector of secondary electrons in SEM. PhD Thesis, Brno University of Technology, Czech Republic (2008).
  20. Hejna, J: Detektory elektronow w elektronowych mikroskopach skaningowych wysoko prozniowych. Prace Naukowe Instytutu Materia?éoznawstwa i Mechaniki Technicznej Politechniki Wroclawskiej. Monografie 66 27 (2010), p.3-215.
  21. Kinugasa, S; Tojo, A; Sakai, T; Fujita, T: Silver-enhanced immunogold scanning electron microscopy using vibratome sections of rat kidneys: detection of albumin filtration and reabsorption. Med. Mol. Morphol. 43 4 (2010), p.218-225.
  22. Novak, L: Methods for quantification of detection channel for secondary electrons in scanning electron microscope. PhD Thesis, Masaryk University, Brno (2011).
  23. Danilatos, GD: Backscattered electron detection in environmental SEM. J. Microsc. 245 2 (2012), p.171-185.
  24. Schauer, P; Bok, J: Study of spatial resolution of YAG:Ce cathodoluminescent imaging screens. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 308 (2013), p.68-73.
  25. Bok, J; Schauer, P: Apparatus for temperature-dependent cathodoluminescence characterization of materials. Meas. Sci. Technol. 25 7 (2014), p.A.No. 075601.
  26. Bok, J: Cathodoluminescence mechanism of YAG:Ce single crystals (Mechanismus katodoluminisce monokrystalu YAG:Ce). PhD Thesis, Masaryk University Brno, Czech Republic (2014).
  27. Schauer, P; Lalinsky, O; Kucera, M: Prospective scintillation electron detectors for S(T)EM based on garnet film scintillators. Microsc. Res. Tech. 82 3 (2019), p.272-282.
  28. Schauer, P; Lalinsky, O; Kucera, M: Overview of S(T)EM electron detectors with garnet scintillators: Some potentials and limits. Microsc. Res. Tech. DOI: 10.1002/jemt.23634 84 4 (2021), p.753-770.
  29. Schauer, P: Comparison of photon transport efficiency in simple scintillation electron detector configurations for scanning electron microscope. Microsc. Res. Tech. 85 5 (2022), p.1870-1883.


Hibino, M.; Irie, K.; Autrata, R.; Schauer, P.: Characteristics of YAG Single Crystals for Electron Scintillators of STEM. J. Electron. Microsc. 41 6 (1992), p.453-457. Práce, které uvádějí citaci:
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  5. Gron, OA: The Development and Study of a Mattauch-Herzog Mass Spectrograph with Various Plasma Sources. Master Thesis, Indiana University (2002).
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  9. Fritz, R: Quantitative Untersuchungen der Zusammensetzung von kubischen III/V-Verbindungshalbleitern mittels HAADF-STEM. PhD Thesis, Philips University Marburg, Germany (2013).
  10. Bok, J; Schauer, P: Apparatus for temperature-dependent cathodoluminescence characterization of materials. Meas. Sci. Technol. 25 7 (2014), p.A.No. 075601.
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Autrata, R.; Schauer, P.: Cathodoluminescent Properties of Single Crystal Materials for Elecron Microscopy. Scanning Microscopy (Supplement) 9 (1996), p.1-12. Práce, které uvádějí citaci:
  1. Schauer, P; Autrata, R: Some Methods for Investigation of Detector Components for Electron Microscopy. 5th Seminar of Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Brno, Czech Republic (1996), p.47-50.
  2. Schauer, P; Autrata, R: Scintillator-photocathode matching in scintillation detector for S(T)EM. J.Computer-Assisted Microsc. 9 (1997), p.105-106.
  3. Sakuma, Y; Nishishiro, H; Kitamura, M; Koike, Y; Sekiguchi, T: Cathodoluminescence technique (III) Application. Denshi kenbikyo 34 2 (1999), p.130-134.
  4. Schauer, P; Autrata, R: Performance of detector elements for electron microscopes. 12th European Congress on Electron Microscopy, Brno, Czech Republic 3 I (2000), p.455-458.
  5. Autrata, R; Schauer, P: Improvement of Single Crystal Scintillator Properties in SEM Detectors. 8th Inter. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalsky Dvur (Brno) (2002), p.47-48.
  6. Schauer, P; Autrata, R: Experimental setup for cathodoluminescence spectra measurement. 15th International Congress on Electron Microscopy (ICEM 15), Durban, South Africa 3 (2002), p.337-338.
  7. Schauer, P; Autrata, R: Cathodoluminescence Spectra Measurement. 7th Inter. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalsky Dvur (Brno) Proc (2002), p.67-70.
  8. Schauer, P; Autrata, R: Experimental and simulative methods for scintillation detector optimization. 9th Inter. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalsky Dvur (Brno) (2004), p.67-68.
  9. Vedrenne, N; Hug, G; Fleury, B: Optimisation of a high resolution highly sensitive detector for fast electrons. Proc. 13th European Microscopy Congress - EMC 2004, Antwerp, Belgium (2004), p.IM02.P02.
  10. Horak, P; Schauer, P: Cathodoluminescence of polysilanes. 9th Inter. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalsky Dvur (Brno) (2004), p.31-32.
  11. Schauer, P: Decay Time Optimization of YAG:Ce Scintillator for S(T)EM Electron Detector. IMC 16 - 16th International Microscopy Congress, Sapporo, Japan 2 665 (2006).
  12. Schauer, P: Decay Kinetics of Scintillation Crystals for SEM Electron Detectors. 10th Internat. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalsky Dvur (Brno) (2006), p.63-64.
  13. Schauer, P: Enhancement of single crystal scintillators for scintillation detectors in S(T)EM. 8th Multinational Congress on Microscopy, Prague, Czech Republic (2007), p.105-106.
  14. Horak, P: Study of Degradability and Metastability in Organo-Silicon Materials (Studium degradability a metastability v organo-kremikovych materialech). PhD Thesis, Brno Technology University, Czech Republic (2007).
  15. Novak, L; Mullerova, I: Single electron response of the scintillator-light guide-photomultiplier detector. J. Microsc.-Oxf. 233 1 (2009), p.76-83.
  16. Bok, J; Schauer, P: Afterglow of YAG:Ce single crystal scintillators for S(T)EM electron detectors. MCM 2011 - 10th Multinational Congress on Microscopy 2011, Urbino, Italy 61-62 (2011).
  17. Novak, L: Methods for quantification of detection channel for secondary electrons in scanning electron microscope. PhD Thesis, Masaryk University, Brno (2011).
  18. Schauer, P: Optimization of decay kinetics of YAG:Ce single crystal scintillators for S(T)EM electron detectors. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 269 21 (2011), p.2572-2577.
  19. Schauer, P; Bok, J: Current state and prospects of scintillation materials for detectors in SEM. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalsky Dvur (Brno) 67-68 (2012).
  20. Schauer, P; Lalinsky, O; Kucera, M; Lucenicova, Z; Hanus, M: Effect of Mg co-doping on cathodoluminescence properties of LuGAGG:Ce single crystalline garnet films. Opt. Mater. 72 (2017), p.359-366.
  21. Linderhof, F; Mashlan, M: Conversion electron Mossbauer spectrometer with a YAG: Ce scintillator. Hyperfine Interactions 240 1 (2019), p.119.
  22. Schauer, P; Lalinsky, O; Kucera, M: Prospective scintillation electron detectors for S(T)EM based on garnet film scintillators. Microsc. Res. Tech. 82 3 (2019), p.272-282.


Schauer, P.; Autrata, R.: Inquiry of Detector Components for Electron Microscopy. Fine Mechanics and Optics 42 11 (1997), p.332-334. Práce, které uvádějí citaci:
  1. Schauer, P; Autrata, R: Cathodoluminescent Properties of Single Crystals for S(T)EM Detectors. 6th Inter. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalsky Dvur (Brno) (1998), p.60-63.
  2. Schauer, P; Autrata, R: Performance of YAG: Ce single crystal screens for TEM. Proceedings of the 14th International Congress on Electron Microscopy (ICEM 14), Cancun, Mexico (1998), p.633-634.
  3. Horak, P; Schauer, P: Degradation of Poly [methyl (phenyl) silylene] cathodoluminescence. 2nd European Weathering Symposium - Natural and Artificial Ageing of Polymers, Gothenburg, Sweden (2005), p.311-319.
  4. Horak, P; Schauer, P: Cathodoluminescence as a method for the study of degradation of polysilanes. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 252 2 (2006), p.303-307.
  5. Nedela, D: Cathodoluminescence study of polysilane composites (Studium katodoluminiscence polysilanovych kompozitu). Master Thesis, Brno Technology University, Czech Republic (2008).
  6. Schauer, P; Horak, P; Schauer, F; Kuritka, I; Nespurek, S: Study of degradation and regeneration of silicon polymers using cathodoluminescence. EMC 2008 - 14th European Microscopy Congress, Aachen, Germany (2008), p.789-790.
  7. Bok, J; Schauer, P: LabVIEW controlled cathodoluminescence equipment. MC 2009 - Microscopy Conference 2009, Graz, Austria 1 55-56 (2009).
  8. Bok, J; Schauer, P: LabVIEW-based control and data acquisition system for cathodoluminescence experiments. Rev. Sci. Instrum. 82 11 (2011), p.A.No 113109.
  9. Bok, J; Schauer, P: Afterglow of YAG:Ce single crystal scintillators for S(T)EM electron detectors. MCM 2011 - 10th Multinational Congress on Microscopy 2011, Urbino, Italy 61-62 (2011).


Schauer, P.; Autrata, R.: Scintillator-Photocathode Matching in Scintillation Detector for S(T)EM. J. Computer Assisted Microsc. 9 2 (1997), p.119-120. Práce, které uvádějí citaci:
  1. Schauer, P; Autrata, R: Performance of detector elements for electron microscopes. 12th European Congress on Electron Microscopy, Brno, Czech Republic 3 I (2000), p.455-458.


Handlir, R.; Schauer, F.; Nespurek, S.; Kuritka, I.; Weiter, M.; Schauer, P.: Metastable States in Poly(methylphenylsilylene) Induced by UV Radiation and Electron Beam. J. Non-Crystalline Solids 230 (1998), p.669-672. Práce, které uvádějí citaci:
  1. Nespurek, S: Thin polysilylene films. Their electronic and photoelectrical properties. Mater. Sci. Eng. C-Biomimetic Supramol. Syst., Spec. 8-9 SI (1999), p.319-327.
  2. Schauer, F: Space-charge-limited transient photoconductivity in polymers. Czech. J. Phys. 49 5 (1999), p.871-882.
  3. Nagase, T; Kishimoto, K; Naito, H: High resolution measurement of localized-state distributions from transient photoconductivity in amorphous and polymeric semiconductors. J. Appl. Phys. 86 9 (1999), p.5026-5035.
  4. Horvath, P; Schauer, F; Salyk, O; Kuritka, I; Nespurek, S; Zemek, J; Fidler, V: Luminescence in plasma polysilylenes prepared from organosilanes. J. Non-Cryst. Solids, Part. 266 (2000), p.989-993.
  5. Schauer, F; Nespurek, S; Horvath, P; Zemek, J; Fidler, V: Luminescence as a tool for crosslinking determination in plasma polysilylenes prepared from organosilanes. Synth. Met. 109 1-3 (2000), p.321-325.
  6. Dokoupil, N; Kuritka, I; Schauer, F: One-Dimensional Plasmatic Polysilylenes?. Proc. on 6th Seminary of Physics and Chemistry Molecular Systems, Brno, ISBN 80-214-1893-1 (2000), p.157-167.
  7. Schauer, F; Kuritka, I; Dokoupil, N; Horvath, P: Nanostructural effects in plasmatically prepared polysilylenes. Physica E 14 1-2 (2002), p.272-276.
  8. Schauer, F: Possibilities and perspective of photovoltaic conversion in organic materials. Czech. J. Phys. 53 12 (2003), p.1245-1255.
  9. Schauer, F; Dokoupil, N; Horvath, P; Kuritka, I; Nespurek, S; Pospisil, J: Comparative study of photodegradation and metastability in solution-processed and plasmatic polysilylenes. Macromol. Symp. 212 (2004), p.563-569.
  10. Kuritka, I; Schauer, F; Saha, PS; Zemek, J; Jiricek, P; Nespurek, S: UV degradability of polysilanes for nanoresists examined by electron spectroscopies and photoluminescence. Czech. J. Phys. 56 1 (2006), p.41-50.
  11. Horak, P; Schauer, P: Analysis of electron beam degraded poly [methyl (phenyl) silylene]. 8th Multinational Congress on Microscopy, Prague, Czech Republic (2007), p.257-258.
  12. Horak, P: Study of Degradability and Metastability in Organo-Silicon Materials (Studium degradability a metastability v organo-kremikovych materialech). PhD Thesis, Brno Technology University, Czech Republic (2007).
  13. Nedela, D: Cathodoluminescence study of polysilane composites (Studium katodoluminiscence polysilanovych kompozitu). Master Thesis, Brno Technology University, Czech Republic (2008).
  14. Urbanek, P: Polysilane photodegradability (Fotodegradace polysilanu). Master Thesis, Tomas Bata University, Zlin, Czech Republic (2010).
  15. Urbanek, P: Electronic Properties of Thin Polymer Films:A Study of Structure between Nano- and Microscale (Elektronicke vlastnosti tenkych polymernich vrstev: Studie struktury mezi nano-a mikroskalou). PhD Thesis, Tomas Bata University, Zlin, Czech Republic (2014).
  16. Urbanek, P; Kuritka, I: Thickness dependent structural ordering, degradation and metastability in polysilane thin films: A photoluminescence study on representative sigma-conjugated polymers. J. Lumines. 168 (2015), p.261-268.
  17. Gmucova, K; Nadazdy, V; Schauer, F; Kaiser, M; Majkova, E: Electrochemical Spectroscopic Methods for the Fine Band Gap Electronic Structure Mapping in Organic Semiconductors. J. Phys. Chem. C 119 28 (2015), p.15926-15934.


Yamamoto, K.; Takayoshi, T.; Hibino, M.; Schauer, P.; Autrata, R.: Improvement of Light Collection Efficiency of Lens-Coupled YAG Screen TV System for a High-Voltage Electron Microscope. Microsc. Res. Technique 49 6 (2000), p.596-604. Práce, které uvádějí citaci:
  1. Hayashi, S; Usuda, K; Mitsui, G; Shibutani, T; Dote, E; Adachi, K; Fujihara, M; Shimbo, Y; Sun, W; Kono, R; Tsuji, H; Kong, K: Urinary yttrium excretion and effects of yttrium chloride on renal function in rats. Biol. Trace Elem. Res. 114 1-3 (2006), p.225-235.
  2. David, SL; Michail, CM; Valais, IG; Roussou, M; Nirgianaki, E; Toutountzis, AE; Fountos, G; Liaparinos, PF; Kandarakis, IS; Panayiotaki: Evaluation of the luminescence efficiency of YAG:Ce powder scintillating screens for use in digital mammography detectors. 2008 Ieee Nuclear Science Symposium And Medical Imaging Conference (2008 Nss/mic) 1-9 (2009), p.3225-3228.
  3. David, SL; Michail, CM; Roussou, M; Nirgianaki, E; Toutountzis, AE; Valais, IG; Fountos, G; Liaparinos, PF; Kandarakis, I; Panayiotakis: Evaluation of the Luminescence Efficiency of YAG:Ce Powder Scintillating Screens for Use in Digital Mammography Detectors. IEEE Trans. Nucl. Sci., Part. 57/P 3 (2010), p.951-957.
  4. Kitamura, Y; Usuda, K; Shimizu, H; Fujimoto, K; Kono, R; Fujita, A; Kono, K: Urinary Monitoring of Exposure to Yttrium, Scandium, and Europium in Male Wistar Rats. Biol. Trace Elem. Res. 150 1-3 (2012), p.322-327.
  5. Schauer, P; Bok, J: Study of spatial resolution of YAG:Ce cathodoluminescent imaging screens. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 308 (2013), p.68-73.
  6. Lagarde, B; Bordessoule, M; Cauchon, G; Dalle, D; Desjardins, K; Hustache, S; Miron, C; Nicolas, C; Polack, F: A high resolution soft X-ray scintillation detector based on the Young-Weierstrass points of a lens shaped YAG crystal. 11th International Conference On Synchrotron Radiation Instrumentation (sri 2012); Journal of Physics Conference Series 425 (2013), p.A.N.UNSP 152002.
  7. Bok, J; Schauer, P: Apparatus for temperature-dependent cathodoluminescence characterization of materials. Meas. Sci. Technol. 25 7 (2014), p.A.No. 075601.
  8. Bok, J: Cathodoluminescence mechanism of YAG:Ce single crystals (Mechanismus katodoluminisce monokrystalu YAG:Ce). PhD Thesis, Masaryk University Brno, Czech Republic (2014).
  9. Schauer, P; Lalinsky, O; Kucera, M: Prospective scintillation electron detectors for S(T)EM based on garnet film scintillators. Microsc. Res. Tech. 82 3 (2019), p.272-282.


Schauer, P.; Autrata, R.: Performance of Detector Elements for Electron Microscopes. Fine Mechanics and Optics 45 10 (2000), p.268-270. Práce, které uvádějí citaci:
  1. Schauer, P; Autrata, R: Optimization of scintillation detector for SEM. EMC 2004 - 13th European Microscopy Congress, Antwerp, Belgium I 69-70 (2004).
  2. Schauer, P: Comparison of photon transport efficiency in simple scintillation electron detector configurations for scanning electron microscope. Microsc. Res. Tech. 85 5 (2022), p.1870-1883.


Horak, P.; Schauer, P.: Cathodoluminescence as a method for the study of degradation of polysilanes. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 252 2 (2006), p.303-307. Práce, které uvádějí citaci:
  1. Wandrol, P; Horak, P: Problems of the YAP:Ce Scintillator Use in Detectors of Signal Electrons in SEM. Proc. Microscopy Conference 2007 - 33rd Conference, International Forum for Advanced Microscopy, Saarbrucken, Germany (2007), p.84-85.
  2. Horak, P; Schauer, P: Analysis of electron beam degraded poly [methyl (phenyl) silylene]. 8th Multinational Congress on Microscopy, Prague, Czech Republic (2007), p.257-258.
  3. Schauer, P; Schauer, F; Kuritka, I; Nespurek, S: Cathodoluminescence study of electron beam formed defects in polysilanes. MC 2009 - Microscopy Conference 2009, Graz, Austria 3 383-384 (2009).
  4. Dostie, S; Aktik, C; Scarlete, M: Photophysics and photochemistry of polysilanes for electronic applications. in: Macromolecules Containing Metal and Metal-Like Elements: Photophysics and Photochemistry of Metal-Containing Polymers, Wiley 10 (2010), p.205-254.
  5. Schauer, F; Schauer, P; Kuritka, I; Bao, H: Conjugated Silicon-Based Polymer Resists for Nanotechnologies: EB and UV Meditated Degradation Processes in Polysilanes. Mater. Trans. 51 2 (2010), p.197-201.
  6. Urbanek, P; Kuritka, I; Urbanek, M: The influence of thickness and used solvent on luminescence and photodegradation of polysilane thin films. Nanocon 2011 (2011), p.94-100.
  7. Schauer, P: Optimization of decay kinetics of YAG:Ce single crystal scintillators for S(T)EM electron detectors. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 269 21 (2011), p.2572-2577.
  8. Bok, J; Schauer, P: LabVIEW-based control and data acquisition system for cathodoluminescence experiments. Rev. Sci. Instrum. 82 11 (2011), p.A.No 113109.
  9. Bok, J; Schauer, P: Apparatus for temperature-dependent cathodoluminescence characterization of materials. Meas. Sci. Technol. 25 7 (2014), p.A.No. 075601.
  10. Bok, J: Cathodoluminescence mechanism of YAG:Ce single crystals (Mechanismus katodoluminisce monokrystalu YAG:Ce). PhD Thesis, Masaryk University Brno, Czech Republic (2014).
  11. Sandor, M; Nistor, CL; Petcu, C; Purcar, V; Vuluga, M; Nitu, S; Trica, B; Donescu, D: Oxidative Degradation of Polyether Polyol - Silica Hybrids Prepared by Sol - Gel Process. Rev. Chim. 67 10 (2016), p.2053-2058.
  12. Adamovich, ED; Alexandrov, PL; Gradov, OV: Lock-In/Phase-Sensitive Spectral Nanovoltmetric Patch-Clamp with Frequency Discrimination (phi-omega-Patch-Clamp) as Simple Technology for Single Ion Channel Registration in Cellular Biomedicine..... European Journal of Medicine. Series B 4 1 (2017), p.30-58.
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Schauer, P.: Extended Algorithm for Simulation of Light Transport in Single Crystal Scintillation Detectors for S(T)EM. Scanning 29 6 (2007), p.249-253. Práce, které uvádějí citaci:
  1. Novak, L: Methods for quantification of detection channel for secondary electrons in scanning electron microscope. PhD Thesis, Masaryk University, Brno (2011).
  2. Schauer, P: Optimization of decay kinetics of YAG:Ce single crystal scintillators for S(T)EM electron detectors. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 269 21 (2011), p.2572-2577.
  3. Danilatos, GD: Backscattered electron detection in environmental SEM. J. Microsc. 245 2 (2012), p.171-185.
  4. Schauer, P; Bok, J: Study of spatial resolution of YAG:Ce cathodoluminescent imaging screens. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 308 (2013), p.68-73.
  5. Bok, J; Lalinsky, O; Hanus, M; Onderisinova, Z; Kelar, J; Kucera, M: GAGG:Ce single crystalline films: New perspective scintillators for electron detection in SEM. Ultramicroscopy 163 (2016), p.1-5.
  6. Schauer, P; Lalinsky, O; Kucera, M: Perspective scintillation electron detectors for S(T)EM. IMC 19 - 19th International Microscopy Congress 2018, Sydney, Australia (2018).
  7. Schauer, P; Lalinsky, O; Kucera, M: Prospective scintillation electron detectors for S(T)EM based on garnet film scintillators. Microsc. Res. Tech. 82 3 (2019), p.272-282.
  8. Schauer, P; Lalinsky, O; Kucera, M: Overview of S(T)EM electron detectors with garnet scintillators: Some potentials and limits. Microsc. Res. Tech. DOI: 10.1002/jemt.23634 84 4 (2021), p.753-770.
  9. Schauer, P: Comparison of photon transport efficiency in simple scintillation electron detector configurations for scanning electron microscope. Microsc. Res. Tech. 85 5 (2022), p.1870-1883.


Schauer, F.; Schauer, P.; Kuritka, I.; Bao, H.: Conjugated Silicon-Based Polymer Resists for Nanotechnologies: EB and UV Meditated Degradation Processes in Polysilanes. Mater. Trans. 51 2 (2010), p.197-201. Práce, které uvádějí citaci:
  1. Urbanek, P: Polysilane photodegradability (Fotodegradace polysilanu). Master Thesis, Tomas Bata University, Zlin, Czech Republic (2010).
  2. Schauer, F; Nadazdy, V; Lanyi, S; Rohovec, J; Kuritka, I; Touskova, J; Tousek, J: CdS nanoparticles surfactant removal transport study by transient charge measurements. World Renewable Energy Congress 2011 - Photovoltaic Technology (PV), Linkoping, Sweden (2011), p.2823-2829.
  3. Yang, Y; Lu, C; Dias, EA; Lipson, RH; Baines, KM: Direct patterning of polysilanes and polygermanes using interference lithography. Appl. Organomet. Chem. 25 9 (2011), p.665-668.
  4. Urbanek, P; Kuritka, I; Urbanek, M: The influence of thickness and used solvent on luminescence and photodegradation of polysilane thin films. Nanocon 2011 (2011), p.94-100.
  5. Tkacova, M; Schauer, F: Influence of solvents on UV degradation of polysilanes films. Proceedings 20. International Conference on Applied Physics of Condensed Matter, Slovak University of Technology, Slovakia (2014), p.217.
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  7. Somdee, A; Suewattana, M; Sinsarp, A; Chunwachirasiri, W: Effect of skeleton conformation on the electronic structure of 50\% Ti substituted polysilanes from density functional calculations. Synth. Met. 202 (2015), p.98-102.
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  9. Erdogan, E; Postacioglu, N; Giz, A: Segmental Shadowing Effect on Ultraviolet Depolymerization and Resulting Molecular Weight Distribution. Proceedings of the World Congress on Mechanical, Chemical, and Material Engineering (MCM 2015) (2015), p.252-1 to 252-9.
  10. Schauer, F; Tkacova, M; Nadazdy, V; Gmucova, K; Ozvoldova, M; Tkac, L; Chlpik, J: Electronic structure of UV degradation defects in polysilanes studied by Energy Resolved - Electrochemical Impedance Spectroscopy. Polym. Degrad. Stabil. 126 (2016), p.204-208.
  11. Okamura, H; Iseki, M; Degawa, K; Matsumoto, A; Minokami, K; Miyauchi, S: Fabrication of Photocrosslinked Polysilane/diarylfluorene Blended Films with Tunable Refractive Indices. J. Photopolym Sci. Technol. 30 6 (2017), p.683-688.
  12. Schauer, F; Tkac, L; Ozvoldova, M; Nadazdy, V; Gmucova, K; Jergel, M; Siffalovic, P: Effect of crystallinity on UV degradability of poly[methyl(phenyl)silane] by energy- resolved electrochemical impedance spectroscopy. AIP Adv. 7 5 (2017), p.AN 055002.
  13. Okamura, H; Matsumoto, A; Minokami, K; Miyauchi, S: Photo-thermal Dual Curing of Polysilane/diarylfluorene Blends -Fabrication of Films with High and Tunable Refractive Indices-. J. Photopolym Sci. Technol. 31 4 (2018), p.503-510.
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Schauer, P.: Optimization of decay kinetics of YAG:Ce single crystal scintillators for S(T)EM electron detectors. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 269 21 (2011), p.2572-2577. Práce, které uvádějí citaci:
  1. Bok, J; Schauer, P: LabVIEW-based control and data acquisition system for cathodoluminescence experiments. Rev. Sci. Instrum. 82 11 (2011), p.A.No 113109.
  2. Bok, J; Schauer, P: Mechanism of electron-photon conversion in YAG:Ce scintillator for SEM electron detectors. MC 2013 - Microscopy Conference 2013, Regensburg, Germany 121-122 (2013).
  3. Fritz, R: Quantitative Untersuchungen der Zusammensetzung von kubischen III/V-Verbindungshalbleitern mittels HAADF-STEM. PhD Thesis, Philips University Marburg, Germany (2013).
  4. Schauer, P; Bok, J: Study of spatial resolution of YAG:Ce cathodoluminescent imaging screens. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 308 (2013), p.68-73.
  5. Lalinsky, O; Bok, J; Schauer, P; Frank, L: Performance of YAG:Ce Scintillators for Low-Energy Electron Detectors in S(T)EM. IMC 2014 - The International Microscopy Congress 2014, Prague, Czech Rep. Sep 2014 Vol. IT-4 (2014), p.P-3232.
  6. Bok, J; Schauer, P: Apparatus for temperature-dependent cathodoluminescence characterization of materials. Meas. Sci. Technol. 25 7 (2014), p.A.No. 075601.
  7. Bok, J: Cathodoluminescence mechanism of YAG:Ce single crystals (Mechanismus katodoluminisce monokrystalu YAG:Ce). PhD Thesis, Masaryk University Brno, Czech Republic (2014).
  8. Bok, J; Schauer, P: Performance of SEM Scintillation Detector Evaluated by Modulation Transfer Function and Detective Quantum Efficiency Function. Scanning 36 4 (2014), p.384-393.
  9. Niu, XJ; Xu, JY; Zhou, D; Wang, SX; Zhang, HJ: Synthesis and Growth of Ce,Pr:YLuAG Crystal for LED Application. J. Inorg. Mater. 30 11 (2015), p.1183-1188.
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  11. Schauer, P; Lalinsky, O; Kucera, M; Lucenicova, Z; Hanus, M: Effect of Mg co-doping on cathodoluminescence properties of LuGAGG:Ce single crystalline garnet films. Opt. Mater. 72 (2017), p.359-366.
  12. Osipov, VV; Shitov, VA; Lukyashin, KE; Maksimov, RN; Ishchenko, AV; Platonov, VV: Ce:YAG transparent ceramics based on nanopowders produced by laser ablation method: Fabrication, optical and scintillation properties. Nanosyst.-Phys. Chem. Math. 8 3 (2017), p.351-359.
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  19. Schauer, P; Lalinsky, O; Kucera, M: Overview of S(T)EM electron detectors with garnet scintillators: Some potentials and limits. Microsc. Res. Tech. DOI: 10.1002/jemt.23634 84 4 (2021), p.753-770.
  20. Delpiano, SC: Measuring sub-second isomers using photon activation. PhD Thesis, University of Wollongong, School of Physics, Australia (2023).
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Bok, J.; Schauer, P.: LabVIEW-based control and data acquisition system for cathodoluminescence experiments. Rev. Sci. Instrum. 82 11 (2011), p.A.No.113109. Práce, které uvádějí citaci:
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  2. Kim, DJ; Fisk, Z: A LabVIEW based template for user created experiment automation. Rev. Sci. Instrum. 83 12 (2012), p.A.No 123705.
  3. Bok, J; Schauer, P: Quality assessment of scintillation detector in SEM using MTF. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalsky Dvur (Brno) 9-10 (2012).
  4. Li, W; Zhou, S; Zhang, X; Fan, L; Xiong, J: Degaussing power supply error signal acquisition and processing method. Computer System Application (Chinese) 21 10 (2012), p.130-134.
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  10. Zhu, Qg; Wang, Ye; Mu, Xm: Monitoring System of 10kV Distribution Network by Power Line Carrier. Electrical Measurement & Instrumentation 51 2 (2014), p.10.
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  12. Bok, J; Schauer, P: Apparatus for temperature-dependent cathodoluminescence characterization of materials. Meas. Sci. Technol. 25 7 (2014), p.A.No. 075601.
  13. Bok, J: Cathodoluminescence mechanism of YAG:Ce single crystals (Mechanismus katodoluminisce monokrystalu YAG:Ce). PhD Thesis, Masaryk University Brno, Czech Republic (2014).
  14. Bok, J; Schauer, P: Effect of oxidation annealing at different temperatures on cathodolu minescence properties of YAG:Ce single crystals. ICL 2014 - 17th International Conference on Luminescence and Optical Spectroscopy of Condensed Matter, Wroclaw, Poland Proc (2014), p.P-180.
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  16. Ovejero Mayoral, MDC: Perfeccionamiento de un sistema para verificar tratamientos de radioterapia y diseno del nuevo entorno VeRa. PhD Thesis, Universidad de Sevilla (2015).
  17. Lalinsky, O; Schauer, P; Kucera, M; Onderisinova, Z; Hanus, M: Cathodoluminescence study of LuAG:CeGdGa single crystalline films. ICOM2015 Book of Abstracts - The 4th International Conference on the Physics of Optical Materials and Deices, Budva, Montenegro (2015), p.125.
  18. Lalinsky, O; Schauer, P; Kucera, M; Hanus, M; Lucenicova, Z: New detectors for low-energy BSE. 15th Inter. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalsky Dvur (Brno) 34-35 (2016).
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  21. Lalinsky, O; Schauer, P; Kucera, M; Lucenicova, Z; Hanus, M: Effect of Mg-doping on cathodoluminescence properties of GAGG:Ce single crystalline films. ICDIM 2016 - International Conference on Defects in Insulating Materials, Lyon, France Proc (2016), p.Th-P-28.
  22. Schauer, P; Lalinsky, O; Lucenicova, Z; Kucera, M: Multicomponent garnet film scintillators for SEM electron detectors. EMC 2016 - 16th European Microscopy Congress, Lyon, France Aug 2016 (2016), p.374-375.
  23. Tong, G; Sun, X; Dong, Y; Han, X: Research and Design on Water Sound Acquisition System of Deep Sea Ultrahigh Pressure Environment. Destech Transactions on Engineering and Technology Research, doi: 10.12783/dtetr/icca2016/6013 (2016).
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  25. Ovejero, MC; Vega-Leal, AP; Gallardo, MI; Espino, JM; Selva, A; Cortes-Giraldo, MA; Arrans, R: LabVIEW-based control and acquisition system for the dosimetric characterization of a silicon strip detector. Rev. Sci. Instrum. 88 2 (2017), p.025104.
  26. Zheng, Y; Fan, R; Zhang, Y; Qiu, C; Liu, D; Tian, D: Control Software for TOF-SIMS Based on LabVIEW Object Oriented Programming. Journal of Chinese Mass Spectrometry Society 38 5 (2017), p.591-598.
  27. Schauer, P; Lalinsky, O; Kucera, M; Lucenicova, Z: Superfast scintillators for SEM electron detectors. MCM2017 - 13th Multinational Congress on Microscopy, Rovinj, Croatia (2017), p.132-134.
  28. Lalinsky, O; Schauer, P; Lucenicova, Z; Kucera, M: Improved cathodoluminescence performance of Mg-doped LuAG:Ce(GdGa)single crystalline films. SCINT 2017 - 14th Int. Conference on Scintillating Materials and their Applications, Chamonix, France (2017), p.123-124.
  29. Lalinsky, O; Schauer, P; Rathaiah, M; Kucera, M: Stable Ce4+ Centres - A Tool to Optimize Cathodoluminescence Performance in Garnet Scintillators. Proceedings of Recent Trends In Charged Particle Optics And Surface Physics Instrumentation (2018), p.44-44.
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Schauer, P.; Bok, J.: Study of spatial resolution of YAG:Ce cathodoluminescent imaging screens. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 308 (2013), p.68-73. Práce, které uvádějí citaci:
  1. Bok, J: Cathodoluminescence mechanism of YAG:Ce single crystals (Mechanismus katodoluminisce monokrystalu YAG:Ce). PhD Thesis, Masaryk University Brno, Czech Republic (2014).
  2. Romptis, D: A Single-shot Nonlinear Autocorrelation Approach for Time-Resolved Physics in the Vacuum Ultraviolet Spectral Range. PhD Thesis, Fakultät für Mathematik, Informatik und Naturwissenschaften Fachbereich Physikder Universität Hamburg (2015).
  3. Bok, J; Horodysky, P; Krzyanek, V: Effect of oxidation annealing on optical properties of YAG:Ce single crystals. Opt. Mater. 46 (2015), p.591-595.
  4. Patt, M: Bulk and surface sensitive energy-filtered photoemission microscopy using synchrotron radiation for the study of resistive switching memories. PhD Thesis, Jülich: Forschungszentrum Jülich GmbH Zentralbibliothek, Verlag, Schriften des Forschungszentrums Jülich Reihe Schlüsselte (2016).
  5. Bok, J; Horacek, M; Kolarik, V; Urbanek, M; Matejka, M; Krzyanek, V: Measurements of current density distribution in shaped e-beam writers. Microelectron. Eng. 149 (2016), p.117-124.
  6. Kucera, M; Onderisinova, Z; Bok, J; Hanus, M; Schauer, P; Nikl, M: Scintillation response of Ce3+ doped GdGa-LuAG multicomponent garnet films under e-beam excitation. J. Lumines. 169 (2016), p.674-677.
  7. Schauer, P; Lalinsky, O; Lucenicova, Z; Kucera, M: Multicomponent garnet film scintillators for SEM electron detectors. EMC 2016 - 16th European Microscopy Congress, Lyon, France Aug 2016 (2016), p.374-375.
  8. Rejman, M: uminescence properties of phosphors in high power LED applications (Luminiscencni vlastnosti fosforu ve vysoce vykonnych LED aplikacich). PhD Thesis, Institute of Physics of CAS, Prague, Czech Republic (2016).
  9. Bok, J; Lalinsky, O; Hanus, M; Onderisinova, Z; Kelar, J; Kucera, M: GAGG:Ce single crystalline films: New perspective scintillators for electron detection in SEM. Ultramicroscopy 163 (2016), p.1-5.
  10. Kucera, M; Prusa, P: LPE-Grown Thin-Film Scintillators. in: Nanocomposite, Ceramic, And Thin Film Scintillators, Pan Stanford Publishing Chapter 5 (2017), p.155-226.
  11. Trofimov, A: Microstructure, Luminescence, and Performance of Garnet Polycrystalline Ceramic Scintillators. PhD Thesis, Clemson University (2018).
  12. Lalinsky, O; Schauer, P: New garnet scintillators for detectors with superfast response. Fine Mechanics and Optics (Jemna mechanika a optika) 64 1 (2019), p.18-20.
  13. Schauer, P; Lalinsky, O; Kucera, M: Prospective scintillation electron detectors for S(T)EM based on garnet film scintillators. Microsc. Res. Tech. 82 3 (2019), p.272-282.
  14. Lalinsky, O; Schauer, P; Kucera, M: Influence of Mg-to-Ce Concentration Ratio on Cathodoluminescence in LuAG and LuGAGG Single-Crystalline Films. Phys. Status Solidi A-Appl. Mat. 216 8 (2019), p.A.N.1801016.
  15. Schauer, P; Lalinsky, O; Kucera, M: Overview of S(T)EM electron detectors with garnet scintillators: Some potentials and limits. Microsc. Res. Tech. DOI: 10.1002/jemt.23634 84 4 (2021), p.753-770.


Bok, J.; Schauer, P.: Performance of SEM scintillation detector evaluated by modulation transfer function and detective quantum efficiency function. Scanning 35 (2013), p.384-393. Práce, které uvádějí citaci:
  1. Bok, J: Cathodoluminescence mechanism of YAG:Ce single crystals (Mechanismus katodoluminisce monokrystalu YAG:Ce). PhD Thesis, Masaryk University Brno, Czech Republic (2014).
  2. Healy, OE; Mott, RB: Real-World Electron Detector Performance in Scanning Electron Microscopes. Microscopy and Microanalysis 22 S3 (2016), p.596-597.
  3. Bok, J; Lalinsky, O; Hanus, M; Onderisinova, Z; Kelar, J; Kucera, M: GAGG:Ce single crystalline films: New perspective scintillators for electron detection in SEM. Ultramicroscopy 163 (2016), p.1-5.
  4. Schauer, P; Lalinsky, O; Kucera, M; Lucenicova, Z; Hanus, M: Effect of Mg co-doping on cathodoluminescence properties of LuGAGG:Ce single crystalline garnet films. Opt. Mater. 72 (2017), p.359-366.
  5. Schauer, P; Lalinsky, O; Kucera, M; Lucenicova, Z: Superfast scintillators for SEM electron detectors. MCM2017 - 13th Multinational Congress on Microscopy, Rovinj, Croatia (2017), p.132-134.
  6. Schauer, P; Lalinsky, O; Kucera, M: Perspective scintillation electron detectors for S(T)EM. IMC 19 - 19th International Microscopy Congress 2018, Sydney, Australia (2018).
  7. McGregor, DS: Materials for Gamma-Ray Spectrometers: Inorganic Scintillators. Ann. Rev. Mater. Res. 48 (2018), p.245-277.
  8. Schauer, P; Lalinsky, O; Kucera, M: Prospective scintillation electron detectors for S(T)EM based on garnet film scintillators. Microsc. Res. Tech. 82 3 (2019), p.272-282.
  9. Schauer, P; Lalinsky, O; Kucera, M: Overview of S(T)EM electron detectors with garnet scintillators: Some potentials and limits. Microsc. Res. Tech. DOI: 10.1002/jemt.23634 84 4 (2021), p.753-770.
  10. Schauer, P: Comparison of photon transport efficiency in simple scintillation electron detector configurations for scanning electron microscope. Microsc. Res. Tech. 85 5 (2022), p.1870-1883.


Bok, J.; Schauer, P.: Apparatus for temperature-dependent cathodoluminescence characterization of materials. Meas. Sci. Technol. 25 (2014), p.A.No.075601. Práce, které uvádějí citaci:
  1. Bok, J; Horodysky, P; Krzyanek, V: Effect of oxidation annealing on optical properties of YAG:Ce single crystals. Opt. Mater. 46 (2015), p.591-595.
  2. Kenieche, D: Etude théorique et pratique de la cathodoluminescence en vue de la détermination de l'influence des défauts dans les semiconducteurs II-VI. PhD Thesis, Universite des Freres Mentouri-Constantine Faculte des Sciences Exactesdepartement de Physique (2016).
  3. Kucera, M; Onderisinova, Z; Bok, J; Hanus, M; Schauer, P; Nikl, M: Scintillation response of Ce3+ doped GdGa-LuAG multicomponent garnet films under e-beam excitation. J. Lumines. 169 (2016), p.674-677.
  4. Daoud, K: Etude theorique et pratique de la cathodoluminescence en vue de la determination de l influence des defauts dans les semiconducteurs II-VI. PhD Thesis, Universite Des Freres Mentouri-Constantine, Algeria (2016).
  5. Bok, J; Lalinsky, O; Hanus, M; Onderisinova, Z; Kelar, J; Kucera, M: GAGG:Ce single crystalline films: New perspective scintillators for electron detection in SEM. Ultramicroscopy 163 (2016), p.1-5.
  6. Moravek, T: Study of the surface charge recombination in dielectric barrier discharges (Studium rekombinace povrchoveho naboje v dielektrickych barierovych vybojich). PhD Thesis, Masaryk University Brno, Czech Republic (2017).
  7. Kucera, M; Prusa, P: LPE-Grown Thin-Film Scintillators. in: Nanocomposite, Ceramic, And Thin Film Scintillators, Pan Stanford Publishing Chapter 5 (2017), p.155-226.
  8. Navratil, Z; Moravek, T; Rahel, J; Cech, J; Lalinsky, O; Trunec, D: Diagnostics of pre-breakdown light emission in a helium coplanar barrier discharge: the presence of neutral bremsstrahlung. Plasma Sources Sci. Technol. 26 5 (2017).
  9. Schauer, P; Lalinsky, O; Kucera, M; Lucenicova, Z; Hanus, M: Effect of Mg co-doping on cathodoluminescence properties of LuGAGG:Ce single crystalline garnet films. Opt. Mater. 72 (2017), p.359-366.
  10. Lalinsky, O; Schauer, P; Rathaiah, M; Kucera, M: Cathodoluminescence study of LuAG:Ce,Mg and LuGAGG:Ce,Mg single crystalline films - Mg-rich extension. LumDeTr 2018 - Luminescent Detectors and Transformers of Ionizing Radiation, Prague, Czech Republic 208 (2018).
  11. Lalinsky, O; Schauer, P: New garnet scintillators for detectors with superfast response. Fine Mechanics and Optics (Jemna mechanika a optika) 64 1 (2019), p.18-20.
  12. Schauer, P; Lalinsky, O; Kucera, M: Prospective scintillation electron detectors for S(T)EM based on garnet film scintillators. Microsc. Res. Tech. 82 3 (2019), p.272-282.
  13. Lalinsky, O; Schauer, P; Kucera, M: Influence of Mg-to-Ce Concentration Ratio on Cathodoluminescence in LuAG and LuGAGG Single-Crystalline Films. Phys. Status Solidi A-Appl. Mat. 216 8 (2019), p.A.N.1801016.
  14. Schauer, P; Lalinsky, O; Kucera, M: Overview of S(T)EM electron detectors with garnet scintillators: Some potentials and limits. Microsc. Res. Tech. DOI: 10.1002/jemt.23634 84 4 (2021), p.753-770.
  15. Schauer, P: Comparison of photon transport efficiency in simple scintillation electron detector configurations for scanning electron microscope. Microsc. Res. Tech. 85 5 (2022), p.1870-1883.


Kucera, M.; Onderisinova, Z.; Bok, J.; Hanus, M.; Schaur, P.; Nikl, M.: Scintillation response of Ce3+ doped GdGa-LuAG multicomponent garnet films under e-beam excitation. J. Lumin. 169 (2016), p.674-677. Práce, které uvádějí citaci:
  1. Kucera, M; Onderisinova, Z; Hanus, M; Prusa, P; Bok, J; Schauer, P; Lalinsky, O; Nikl, M: Improved scintillation response of Ce doped GGAG garnet films: A pathway to high LY materials. SCINT 2015 - 13th International Conference on Inorganic Scintillators and Their Applications, Berkeley, USA Proc (2015), p.O14-1.
  2. Onderisinova, Z; Kucera, M; Hanus, M; Lalinsky, O; Bok, J; Schauer, P; Nikl, M: Cathodoluminescence decay kinetics of Ce3+ doped LuAG:GdGa multicomponent garnets. SCINT 2015 - 13th International Conference on Inorganic Scintillators and Their Applications, Berkeley, USA Proc (2015), p.O5-6.
  3. Prusa, P; Kucera, M; Mares, JA; Onderisinova, Z; Hanus, M; Babin, V; Beitlerova, A; Nikl, M: Composition Tailoring in Ce-Doped Multicomponent Garnet Epitaxial Film Scintillators. Cryst. Growth Des. 15 8 (2015), p.3715-3723.
  4. Babin, V; Hanus, M; Krasnikov, A; Kucera, M; Nikl, M; Zazubovich, S: Determination of the position of the 5d excited levels of Ce3+ ions with respect to the conduction band in the epitaxial films of the multicomponent (Lu,Gd)(3)(Ga,Al)(5)O-12:Ce garnets. Opt. Mater. 62 (2016), p.465-474.
  5. Babin, V; Chernenko, K; Kucera, M; Nikl, M; Zazubovich, S: Photostimulated luminescence and defects creation processes in Ce3+-doped epitaxial films of multicomponent Lu3-xGdxGayAl5-yO12 garnets. J. Lumines. 179 (2016), p.487-495.
  6. Bok, J; Lalinsky, O; Hanus, M; Onderisinova, Z; Kelar, J; Kucera, M: GAGG:Ce single crystalline films: New perspective scintillators for electron detection in SEM. Ultramicroscopy 163 (2016), p.1-5.
  7. Kucera, M; Prusa, P: LPE-Grown Thin-Film Scintillators. in: Nanocomposite, Ceramic, And Thin Film Scintillators, Pan Stanford Publishing Chapter 5 (2017), p.155-226.
  8. Schauer, P; Lalinsky, O; Kucera, M; Lucenicova, Z; Hanus, M: Effect of Mg co-doping on cathodoluminescence properties of LuGAGG:Ce single crystalline garnet films. Opt. Mater. 72 (2017), p.359-366.
  9. Babin, V; Chernenko, K; Hanus, M; Krasnikov, A; Kucera, M; Nikl, M; Zazubovich, S: On the origin of the ultraviolet photoluminescence in the Ce3+-doped epitaxial films of multicomponent (Lu,Gd)(3)(Ga,Al)(5)O-12 garnets. Phys. Status Solidi B-Basic Solid State Phys. 254 4 (2017), p.AN UNSP 1600570.
  10. Babin, V; Buryi, M; Chlan, V; Fomichov, Y; Kamada, K; Laguta, VV; Nikl, M; Pejchal, J; Stepankova, H; Yoshikawa, A; Zagorodniy, Y; Zazu: Influence of gallium content on Ga3+ position and photo-and thermally stimulated luminescence in Ce3+-doped multicomponent (Y,Lu)(3)GaxAl(5)xO(12) garnets. J. Lumines. 200 (2018), p.141-150.
  11. Laube, M; den Engelsen, D; Jansen, T; Fern, G; Harris, P; Ireland, T; Silver, J; Justel, T: On the Photo- and Cathodoluminescence of LaB3O6:Gd, Bi, Y3Al5O12:Pr, Y3Al5O12:Gd, Lu3Al5O12: Pr, and Lu3Al5O12: Gd. ECS J. Solid State Sci. Technol. 7 12 (2018), p.R206-R214.
  12. Zhang, HZ; Zhang, XM; Cheng, Z; Xu, Y; Yang, JX; Meng, FG: Photoluminescence properties and site-preferable distribution of Ce3+ in Na2Ca1-xSrxSi2O6 (x=0-1) blue-emitting phosphors. J. Alloy. Compd. 764 (2018), p.853-860.
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  15. Song, Z; Liu, QL: Effects of Neighboring Polyhedron Competition on the 5d Level of Ce3+ in Lanthanide Garnets. J. Phys. Chem. C 123 14 (2019), p.8656-8662.
  16. Lisicyn, VM; Vaganov, VA; Lisicyna, LA; Karipbajev, ZT; Kemere, M; Tulegenova, AT; Czjuj, J; Pancenko, JN: Ljuminescencija YAG:Ce-ljuminoforov pri vozbuzdenii lazernym UF-izlucenijem. Izvestija vyssich ucebnych zavedenij. Fizika 63 6 (2020), p.94-99.
  17. Lisitsyn, VM; Vaganov, VA; Lisitsyna, LA; Karipbayev, ZT; Kemere, M; Tulegenova, AT; Ju, Y; Panchenko, YN: Luminescence of YAG:Ce Phosphors Excited by UV Laser Radiation. Russ. Phys. J. 63 6 (2020), p.1003-1009.
  18. Lisitsyn, VM; Tulegenova, AT; Lisitsyna, LA; Vaganov, VA; Soshchin, NP; Polisadova, EF; Abdullin, KA; Ju, YY: Photo and cathodoluminescence of commercial YAG:Ce based phosphors in UV region. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 478 (2020), p.120-124.
  19. Schauer, P; Lalinsky, O; Kucera, M: Overview of S(T)EM electron detectors with garnet scintillators: Some potentials and limits. Microsc. Res. Tech. DOI: 10.1002/jemt.23634 84 4 (2021), p.753-770.
  20. Ma, WQ; Jiang, BX; Feng, XQ; Huang, X; Wang, W; Sreebunpeng, K; Zhang, L: On fast LuAG:Ce scintillation ceramics with Ca2+ co-dopants. J. Am. Ceram. Soc. 104 2 (2021), p.966-973.


Schauer, P.; Lalinsky, O.; Kucera, M; Lucenicova, Z.; Hanus, M.: Effect of Mg co-doping on cathodoluminescence properties of LuGAGG:Ce single crystalline garnet films. Optical Materials 72 (2017), p.359-366. Práce, které uvádějí citaci:
  1. Lalinsky, O; Schauer, P; Rathaiah, M; Kucera, M: Cathodoluminescence study of LuAG:Ce,Mg and LuGAGG:Ce,Mg single crystalline films - Mg-rich extension. LumDeTr 2018 - Luminescent Detectors and Transformers of Ionizing Radiation, Prague, Czech Republic 208 (2018).
  2. Schauer, P; Lalinsky, O; Kucera, M: Perspective scintillation electron detectors for S(T)EM. IMC 19 - 19th International Microscopy Congress 2018, Sydney, Australia (2018).
  3. Lalinsky, O; Schauer, P; Rathaiah, M; Kucera, M: Stable Ce4+ Centres - A Tool to Optimize Cathodoluminescence Performance in Garnet Scintillators. Proceedings of Recent Trends In Charged Particle Optics And Surface Physics Instrumentation (2018), p.44-44.
  4. Prusa, P; Kucera, M; Babin, V; Bruza, P; Parkman, T; Panek, D; Beitlerova, A; Mares, JA; Hanus, M; Lucenicova, Z; Pokorny, M; Nikl, M: Tailoring and Optimization of LuAG:Ce Epitaxial Film Scintillation Properties by Mg Co-Doping. Cryst. Growth Des. 18 9 (2018), p.4998-5007.
  5. Babin, V; Herman, P; Kucera, M; Nikl, M; Zazubovich, S: Effect of Mg2+ co-doping on the photo- and thermally stimulated luminescence of the (Lu,Gd)(3)(Ga,Al)(5)O-12:Ce epitaxial films. J. Lumines. 215 (2019).
  6. Lalinsky, O; Schauer, P: New garnet scintillators for detectors with superfast response. Fine Mechanics and Optics (Jemna mechanika a optika) 64 1 (2019), p.18-20.
  7. Khanin, VM; Vrubel, II; Polozkov, RG; Venevtsev, ID; Rodnyi, PA; Tukhvatulina, T; Chernenko, K; Drozdowski, W; Witkowski, ME; Makowski,: Complex Garnets: Microscopic Parameters Characterizing Afterglow. J. Phys. Chem. C 123 37 (2019), p.22725-22734.
  8. Schauer, P; Lalinsky, O; Kucera, M: Prospective scintillation electron detectors for S(T)EM based on garnet film scintillators. Microsc. Res. Tech. 82 3 (2019), p.272-282.
  9. Lalinsky, O; Schauer, P; Kucera, M: Influence of Mg-to-Ce Concentration Ratio on Cathodoluminescence in LuAG and LuGAGG Single-Crystalline Films. Phys. Status Solidi A-Appl. Mat. 216 8 (2019), p.A.N.1801016.
  10. Zapadlik, O; Pejchal, J; Kucerkova, R; Beitlerova, A; Nikl, M: Composition-Engineered GSAG Garnet: Single-Crystal Host for Fast Scintillators. Cryst. Growth Des. 21 12 (2021), p.7139-7149.
  11. Schauer, P; Lalinsky, O; Kucera, M: Overview of S(T)EM electron detectors with garnet scintillators: Some potentials and limits. Microsc. Res. Tech. DOI: 10.1002/jemt.23634 84 4 (2021), p.753-770.
  12. Chewpraditkul, W; Pattanaboonmee, N; Sakthong, O; Chewpraditkul, W; Yamaji, A; Kurosawa, S; Kamada, K; Yoshikawa, A; Makowski, M; et al: Scintillation characteristics and temperature quenching of radio- and photoluminescence of Mg2+-codoped (Lu,Gd)(3)Al2.4Ga2.6O12:Ce garnet crystals. Opt. Mater. 121 (2021), p.AN 111595.
  13. Witkiewicz-Lukaszek, S; Gorbenko, V; Zorenko, T; Syrotych, Y; Mares, JA; Nikl, M; Sidletskiy, O; Bilski, P; Yoshikawa, A; Zorenko, Y: Composite Detectors Based on Single-Crystalline Films and Single Crystals of Garnet Compounds. Materials 15 3 (2022), p.AN 1249.
  14. Kuznetsova, D; Dubov, V; Bondarev, A; Dosovitskiy, G; Mechinsky, V; Retivov, V; Kucherov, O; Saifutyarov, R; Korzhik, M: Tailoring of the Gd-Y-Lu ratio in quintuple (Gd, Lu, Y)(3)Al2Ga3O12:Ce ceramics for better scintillation properties. J. Appl. Phys. 132 20 (2022), p.AN 203104.
  15. Korzhik, M; Retivov, V; Bondarau, A; Dosovitskiy, G; Dubov, V; Kamenskikh, I; Karpuk, P; Kuznetsova, D; Smyslova, V; Mechinsky, V; Pust: Role of the Dilution of the Gd Sublattice in Forming the Scintillation Properties of Quaternary (Gd,Lu)(3)Al2Ga3O12: Ce Ceramics. Crystals 12 9 (2022), p.AN 1196.
  16. Martinazzoli, L; Nargelas, S; Bohacek, P; Cala, R; Dusek, M; Rohlicek, J; Tamulaitis, G; Auffray, E; Nikl, M: Compositional engineering of multicomponent garnet scintillators: towards an ultra-accelerated scintillation response. Mater. Adv. 3 17 (2022), p.6842-6852.
  17. Gorbenko, V; Zorenko, T; Shakhno, A; Popielarski, P; Osvet, A; Batentschuk, M; Fedorov, A; Mahlik, S; Lesniewski, T; Majewska, N; Zoren: Single Crystalline Films of Ce3+-Doped Y3MgxSiyAl5-x-yO12 Garnets: Crystallization, Optical, and Photocurrent Properties. Materials 16 5 (2023), p.AN 1869.
  18. Chen, L; Bai, Z; Liu, Q; Luo, W: Study on Luminescence Properties of Gd2O2S: Tb3+ Phosphors with Different Excitation Sources. Proceedings of SPIE - The International Society for Optical Engineering, Int. Conf. on Optoel. Inf. and Func. Mater, Guangzhou, 2023 12781 (2023), p.AN 1278134.


Lalinsky, O.; Schauer, P.: Casove korelovane citani jednotlivych fotonu: Nova metoda pro studium doznivani katodoluminiscence. Fine Mechanics and Optics 62 10 (2017), p.248-250. Práce, které uvádějí citaci:
  1. Lalinsky, O; Schauer, P: New garnet scintillators for detectors with superfast response. Fine Mechanics and Optics (Jemna mechanika a optika) 64 1 (2019), p.18-20.


Schauer, P.; Lalinsky, O.; Kucera, M.: Prospective scintillation electron detectors for S(T)EM based on garnet film scintillators. Microsc. Res. Tech. 82 (2019), p.272-282. Práce, které uvádějí citaci:
  1. Kuznecova, DJ: Chimiceskije osnovy technologii polucenija poroskov YAG:Ce dlja ljuminescentnych materialov. PhD Thesis, Inst. chim. reak. i osobo cistych chim. vescestv, Nacionalnyj issledovatelskyj centr, Kurcatovskij institut, Moscow, Russia (2020).
  2. Schauer, P; Lalinsky, O; Kucera, M: Overview of S(T)EM electron detectors with garnet scintillators: Some potentials and limits. Microsc. Res. Tech. DOI: 10.1002/jemt.23634 84 4 (2021), p.753-770.
  3. Crha, J: Development of microstructured scintillators for high-resolution neutron imaging of construction materials. PhD Thesis, Czech Technical University, Prague, Czech Republic, Faculty of Civil Engineering, Experimental Centre (2021).
  4. Prusa, P; Kucera, M; Vedda, A; Fasoli, M; Moretti, F; Hanus, M; Lucenicova, Z; Vrba, T; Nikl, M: Substantial reduction of trapping by Mg co-doping in LuAG:Ce, Mg epitaxial garnet films. J. Lumines. 238 (2021), p.AN 118230.
  5. Schauer, P: Comparison of photon transport efficiency in simple scintillation electron detector configurations for scanning electron microscope. Microsc. Res. Tech. 85 5 (2022), p.1870-1883.
  6. Kucera, M; Rathaiah, M; Nikl, M; Beitlerova, A; Lalinsky, O: Scintillation properties of YAlO3:Ce perovskite co-doped by Mg2+ions. Opt. Mater. 132 (2022), p.AN 112779.


Lalinsky, O; Schauer, P; Kucera, M.: Influence of Mg-to-Ce Concentration Ratio on Cathodoluminescence in LuAG and LuGAGG Single-Crystalline Films. Physica Status Solidi A 216 8 (2019), p.A.N.1801016. Práce, které uvádějí citaci:
  1. Chewpraditkul, W; Pattanaboonmee, N; Chewpraditkul, W; Sakthong, O; Yamaji, A; Kamada, K; Kurosawa, S; Yoshikawa, A; Drozdowski, W; Wit: Scintillation Characteristics of Mg2+-Codoped Y0.8Gd2.2(Al5-xGax)O-12:Ce Single Crystals. IEEE Trans. Nucl. Sci., Part. 67/1 6 (2020), p.910-914.
  2. Chewpraditkul, W; Pattanaboonmee, N; Sakthong, O; Chewpraditkul, W; Yoshino, M; Horiai, T; Yoshikawa, A; Gushchina, L; Kamada, K; Kuros: Luminescence and Scintillation Properties of Mg2+-Codoped Lu0.6Gd2.4Al2Ga3O12:Ce Single Crystal. IEEE Trans. Nucl. Sci., Part. 67/1 6 (2020), p.904-909.
  3. Prusa, P; Kucera, M; Vedda, A; Fasoli, M; Moretti, F; Hanus, M; Lucenicova, Z; Vrba, T; Nikl, M: Substantial reduction of trapping by Mg co-doping in LuAG:Ce, Mg epitaxial garnet films. J. Lumines. 238 (2021), p.AN 118230.
  4. Witkiewicz-Lukaszek, S; Gorbenko, V; Zorenko, T; Syrotych, Y; Kucerkova, R; Mares, JA; Nikl, M; Sidletskiy, O; Fedorov, A; Kurosawa, S;: New types of composite scintillators based on the single crystalline films and crystals of Gd-3(Al,Ga)(5)O-12:Ce mixed garnets. Mater. Sci. Eng. B-Adv. Funct. Solid-State Mater. 264 (2021), p.AN 114909.
  5. Witkiewicz-Lukaszek, S; Gorbenko, V; Zorenko, T; Syrotych, Y; Mares, JA; Nikl, M; Sidletskiy, O; Bilski, P; Yoshikawa, A; Zorenko, Y: Composite Detectors Based on Single-Crystalline Films and Single Crystals of Garnet Compounds. Materials 15 3 (2022), p.AN 1249.
  6. Kucera, M; Rathaiah, M; Nikl, M; Beitlerova, A; Lalinsky, O: Scintillation properties of YAlO3:Ce perovskite co-doped by Mg2+ions. Opt. Mater. 132 (2022), p.AN 112779.
  7. Gorbenko, V; Zorenko, T; Shakhno, A; Popielarski, P; Osvet, A; Batentschuk, M; Fedorov, A; Mahlik, S; Lesniewski, T; Majewska, N; Zoren: Single Crystalline Films of Ce3+-Doped Y3MgxSiyAl5-x-yO12 Garnets: Crystallization, Optical, and Photocurrent Properties. Materials 16 5 (2023), p.AN 1869.
  8. Nargelas, S; Solovjovas, A; Talochka, Y; Podlipskas, Z; Kucera, M; Lucenicova, Z; Tamulaitis, G: Influence of heavy magnesium codoping on emission decay in Ce-doped multicomponent garnet scintillators. J. Mater. Chem. C Early Acc. (2023).


Schauer, P; Lalinsky, O; Kucera, M.: Overview of S(T)EM electron detectors with garnet scintillators: Some potentials and limits. Microsc. Res. Tech. 84 4 (2021), p.753-770. Práce, které uvádějí citaci:
  1. Schauer, P: Comparison of photon transport efficiency in simple scintillation electron detector configurations for scanning electron microscope. Microsc. Res. Tech. 85 5 (2022), p.1870-1883.
  2. Fodchuk, I; Kotsyubynsky, A; Velychkovych, A; Hutsuliak, I; Boychuk, V; Kotsyubynsky, V; Ropyak, L: The Effect of Ne+ Ion Implantation on the Crystal, Magnetic, and Domain Structures of Yttrium Iron Garnet Films. Crystals 12 10 (2022), p.AN 1485.
  3. Witkiewicz-Lukaszek, S; Gorbenko, V; Zorenko, T; Syrotych, Y; Mares, JA; Nikl, M; Sidletskiy, O; Bilski, P; Yoshikawa, A; Zorenko, Y: Composite Detectors Based on Single-Crystalline Films and Single Crystals of Garnet Compounds. Materials 15 3 (2022), p.AN 1249.
  4. Syrotych, Y; Witkiewich-Lukaszek, S; Gorbenko, V; Zorenko, T; Kucerkova, R; Mares, JA; Nikl, M; Sidletskiy, O; Kamada, K; Yoshikawa, A: New types of composite scintillators based on the single crystalline films and crystals of Gd3Al5-xGaxO12: Ce garnets. Optical Materials: X 17 (2023), p.100227.
  5. Gorbenko, V; Zorenko, T; Shakhno, A; Popielarski, P; Osvet, A; Batentschuk, M; Fedorov, A; Mahlik, S; Lesniewski, T; Majewska, N; Zoren: Single Crystalline Films of Ce3+-Doped Y3MgxSiyAl5-x-yO12 Garnets: Crystallization, Optical, and Photocurrent Properties. Materials 16 5 (2023), p.AN 1869.
  6. Inkrataite, G; Keil, JN; Zarkov, A; Justel, T; Skaudzius, R: The effect of boron and scandium doping on the luminescence of LuAG:Ce and GdAG:Ce for application as scintillators. J. Alloy. Compd. 966 (2023), p.AN 171634.


Schauer, P.: Comparison of photon transport efficiency in simple scintillation electron detector configurations for scanning electron microscope. Microsc. Res. Tech., doi: 10.1002/jemt.24048 85 (2022). Práce, které uvádějí citaci:
  1. Cao, F; Lu, SM; Wang, L; Zheng, MY; Quek, SY: Modified porous starch for enhanced properties: Synthesis, characterization and applications. Food Chemistry 415 (2023), p.AN 135765.
  2. Nasution, MKM; Syah, R; Elveny, M: Nanotechnology on Perspective Computer Science. in Software Engineering Application in Systems Design, Proceedings of the Computational Methods in Systems and Software 2022 (2023), p.418-429.

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Autrata R., Schauer P., Kvapil Jos., Kvapil Ji.: Scintilacni detektor v rastrovacim elektronovem mikroskopu. Sbornik sympozia o stavu a perspektivach scintilacnich detektoru a jejich vyuziti, Harrachov, (1980), p.80. Práce, které uvádějí citaci:
  1. Meil'Man, ML; Kolomiitsev, AI; Baskakova, ZM; Bagdasarov, KS; Kevorkov, AM: Determination of the content of rare-earth elements in yttrium-aluminum garnet crystals by the method of absorption spectrophotometry. Journal of Applied Spectroscopy 43 5 (1985), p.1250-1254.


Autrata R., Schauer P., Kvapil Jos., Kvapil Ji.: A single crystal of Y3Al5O12:Ce3+ as a scintillator in SEM and transparent screen in electron optical devices. 10th. International Congress on Electron Microscopy, Vol. I, Hamburg, (1982), p.451. Práce, které uvádějí citaci:
  1. Seiler, H: Secondary Electron Emission in the Scanning Electron Microscope. J. Appl. Phys. 54 (1983), p.R1.
  2. Reimer, L: Interaction of Electrons with Bulk Specimens. Quantitative Electron Microscopy 25 (1984), p.217.


Autrata R., Schauer P., Kvapil Ji., Kvapil Jo.: Influence of Ce3+ and other dopants concentration in single crystals of Y3Al5O12 and YAlO3 on their cathodoluminescent properties. European meeting on crystal growth, Prague, (1982), p.435. Práce, které uvádějí citaci:
  1. Autrata, R; Schauer, P; Kvapil, J; Kvapil, J: A single-crystal of YAlO3-Ce3+ as a fast scintillator in sem. Scanning 5 2 (1983), p.91-96.
  2. Luthe, N; Plattner, H; Haacke, B; Walther, P; Muller, M: Lectin Binding Sites in Paramecium Tetraurelia cells. Histochemistry 85 5 (1986), p.365-376.


Autrata R., Schauer P., Kvapil Ji., Kvapil Jos.: Single-crystal electron detectors. 8th. European Congress on Electron Microscopy, Vol. I, Budapest, (1984), p.617. Práce, které uvádějí citaci:
  1. Berger, SD; McMullan, D: Parallel Recording for an Electron Spectrometer on a Scanning Transmission Electron Microscope. Ultramicroscopy 28 (1989), p.122.
  2. Autrata, R: Backscattered Electron Imaging Using Single Crystal Scintillator Detectors. Scanning Microsc. 3 3 (1989), p.739.


Schauer P., Autrata R.: Influence of single crystal yttrium aluminates surfaces on their cathodoluminescent properties. 7th. Czechoslovak conference on electronics and vacuum physics, Vol. 1, Bratislava, (1985), p.265. Práce, které uvádějí citaci:
  1. Autrata, R: Backscattered Electron Imaging Using Single Crystal Scintillator Detectors. Scanning Microsc. 3 3 (1989), p.739.


Hibino M., Irie K., Autrata R., Schauer P.: YAG single crystals for scintillators of STEM. XIIth International Congress for Electron Microscopy, San Francisco, (1990), p.166. Práce, které uvádějí citaci:
  1. Faruqi, AR; Andrews, HN; Raeburn, C: A large-area cooled-ccd detector for electron-microscopy. Nucl. Instrum. Methods Phys. Res. Sect. A-Accel. Spectrom. Dect. Assoc. 348 2-3 (1994), p.659-663.
  2. Kirkland, EJ; Thomas, MG: A high efficiency annular dark field detector for STEM. Ultramicroscopy 62 1-2 (1996), p.79-88.


Schauer P., Autrata R.: Coatings of Single Crystal Scintillators for Electron Detectors in SEM. 10th European Congress on Electron Microscopy, Vol. I, Granada, Spain, (Sept 1992), p.107. Práce, které uvádějí citaci:
  1. Autrata, R; Schauer, P: Cathodoluminescent properties of single crystal materials for electron microscopy. Scanning Microscopy (Supplement) 9 (1995), p.1-12.
  2. Novak, L; Mullerova, I: Single electron response of the scintillator-light guide-photomultiplier detector. J. Microsc.-Oxf. 233 1 (2009), p.76-83.
  3. Schauer, P: Optimization of decay kinetics of YAG:Ce single crystal scintillators for S(T)EM electron detectors. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 269 21 (2011), p.2572-2577.
  4. Novak, L: Methods for quantification of detection channel for secondary electrons in scanning electron microscope. PhD Thesis, Masaryk University, Brno (2011).
  5. Schauer, P; Bok, J: Study of spatial resolution of YAG:Ce cathodoluminescent imaging screens. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 308 (2013), p.68-73.


Autrata R., Schauer P.: Collection of Low-Energy Signal Electrons in the Rotationally Symmetric Electrostatic Field of a Detector. Three Countries' EM Conference, BEDO 1993, Zurich, Switzerland, (Sept 1993). Práce, které uvádějí citaci:
  1. Reimer, L: Electron Detectors and Spectrometers. in: Scanning Electron Microscopy - Physics of Image Formation and Microanalysis, Springer-Verlag, Berlin Heidelberg, 1998 Chapter 5 (1998), p.171-205.


Schauer P., Autrata R.: Efficiency of SEM/STEM Scintillation Electron Detectors with Edge Guided Signal. Multinational Congress on Electron Microscopy, Parma, Italy, (Sept 1993), p.357-358. Práce, které uvádějí citaci:
  1. Frank, L; Mullerova, I; Delong, A: Microscopy with Slow-Electrons. Czech J Phys 44 3 (1994), p.195-238.
  2. Schauer, P; Autrata, R: Computer optimized design of BSE scintillation detector for SEM. EUREM-11, the Eleventh European Congress on Electron Microscopy (Edited and Published by the CESM, Brussels 1998), Dublin, Ireland (1996), p.369-370.
  3. Frank, L; Mullerova, I: Diffraction contrast in cathode lens equipped Low-Energy SEM. Proc. 11th European Congress on Microscopy - EUREM 11, Dublin, Ireland, 1996 (1996).
  4. Autrata, R; Schauer, P; Madea, D: Single crystal scintillators for BSE detectors in SEM. EUREM-11, the Eleventh European Congress on Electron Microscopy (Edited and Published by the CESM, Brussels 1998), Dublin, Ireland 1 467 (1996).
  5. Zeidler, D; Kemen, T: Particle beam system. US Patent 8,598,525 (2013).


Schauer, P.; Autrata, R.: Time Response of Single Crystal Scintillation Detectors for SEM/STEM. 13th International Congress on Electron Microscopy (ICEM 13), Vol. I, Paris, France, (July 1994), p.227-228. Práce, které uvádějí citaci:
  1. Zuo, JM: Electron detection characteristics of slow-scan CCD camera. Ultramicroscopy 66 1-2 (1996), p.21-33.
  2. Reimer, L: Electron Detectors and Spectrometers. in: Scanning Electron Microscopy - Physics of Image Formation and Microanalysis, Springer-Verlag, Berlin Heidelberg, 1998 Chapter 5 (1998), p.171-205.


Autrata, R.; Schauer, P.: Behaviour of Planar and Annular YAG Single Crystal Detectors for LVSEM Operation. 13th International Congress on Electron Microscopy (ICEM 13), Vol. I, Paris, France, (July 1994), p.71-72. Práce, které uvádějí citaci:
  1. Mullerova, I; Frank, L: Scanning low-energy electron microscopy. Advances In Imaging And Electron Physics, Vol 128; ADVANCES IN IMAGING AND ELECTRON PHYSICS 128 (2003), p.309-443.
  2. Vedrenne, N; Hug, G; Fleury, B: Optimisation of a high resolution highly sensitive detector for fast electrons. Proc. 13th European Microscopy Congress - EMC 2004, Antwerp, Belgium (2004), p.IM02.P02.


Schauer, P.; Autrata, R.: Some Methods for Investigation of Detector Components for Electron Microscopy. 5th Seminar of Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Brno, Czech Republic, (June 1996), p.47-50. Práce, které uvádějí citaci:
  1. Horak, P: Study of Degradability and Metastability in Organo-Silicon Materials (Studium degradability a metastability v organo-kremikovych materialech). PhD Thesis, Brno Technology University, Czech Republic (2007).
  2. Hejna, J: Detektory elektronow w elektronowych mikroskopach skaningowych wysoko prozniowych. Prace Naukowe Instytutu Materia?éoznawstwa i Mechaniki Technicznej Politechniki Wroclawskiej. Monografie 66 27 (2010), p.3-215.
  3. Novak, L: Methods for quantification of detection channel for secondary electrons in scanning electron microscope. PhD Thesis, Masaryk University, Brno (2011).


Schauer, P.; Autrata, R.: Computer Designed Scintillation Detectors for SEM. 5th Seminar of Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Brno, Czech Republic, (June 1996), p.73-74. Práce, které uvádějí citaci:
  1. Hejna, J: Detektory elektronow w elektronowych mikroskopach skaningowych wysoko prozniowych. Prace Naukowe Instytutu Materia?éoznawstwa i Mechaniki Technicznej Politechniki Wroclawskiej. Monografie 66 27 (2010), p.3-215.


Schauer, P.; Autrata, R.: Computer optimized design of BSE scintillation detector for SEM. EUREM-11, the Eleventh European Congress on Electron Microscopy (Edited and Published by the CESM, Brussels 1998), Vol. 1, Dublin, Ireland, (Aug 1996), p.369. Práce, které uvádějí citaci:
  1. Frank, L; Mullerova, I: Strategies for low- and very-low-energy SEM. J Electron Microsc 48 3 (1999), p.205-219.
  2. Mullerova, I; Frank, L: Scanning low-energy electron microscopy. Advances In Imaging And Electron Physics, Vol 128; ADVANCES IN IMAGING AND ELECTRON PHYSICS 128 (2003), p.309-443.


Schauer, P.; Autrata, R.: Cathodoluminescent Properties of Single Crystals for S(T)EM Detectors. 6th Inter. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalský Dvůr (Brno), (Jun 1998), p.60-63. Práce, které uvádějí citaci:
  1. Hejna, J: Detektory elektronow w elektronowych mikroskopach skaningowych wysoko prozniowych. Prace Naukowe Instytutu Materia?éoznawstwa i Mechaniki Technicznej Politechniki Wroclawskiej. Monografie 66 27 (2010), p.3-215.


Schauer, P.; Autrata, R.: Performance of YAG:Ce Single Crystal Screens for TEM. 14th International Congress on Electron Microscopy (ICEM 14), Vol. 1, Cancun, Mexico, (Aug 1998), p.633-634. Práce, které uvádějí citaci:
  1. Schauer, P; Autrata, R: Study of TEM fluorescent screens. 4th Multinational Congress on Electron Microscopy, Veszprem Hungary (1999), p.167-168.
  2. Schauer, P; Autrata, R: Performance of detector elements for electron microscopes. 12th European Congress on Electron Microscopy, Brno, Czech Republic 3 I (2000), p.455-458.
  3. Schauer, P; Vlcek, I; Autrata, R: Improved Recording System for the Study of Single Crystal Imaging Screens. 5th Multinational Congress on Electron Microscopy, Lecce, Italy Proc (2001), p.533-534.
  4. Bauer, E: Instrumentation. in: Surface Microscopy with Low Energy Electrons, Springer, New York, NY, 2014 Chapter 3 (2014), p.89-188.
  5. Baturin, SS; Baryshev, SV: Electron emission projection imager. Rev. Sci. Instrum. 88 3 (2017), p.AN 033701.
  6. Schweizer, P: Manipulation of individual defects in 2D and layered materials. PhD Thesis, der Technischen Fakultät, der Friedrich-Alexander-Universität, Erlangen-Nürnberg (2019).


Autrata, R.; Schauer, P.: Single Crystal Scintillation Detectors for LVSEM. 14th International Congress on Electron Microscopy (ICEM 14), Vol. 1, Cancun, Mexico, (Aug 1998), p.437-438. Práce, které uvádějí citaci:
  1. Autrata, R; Jirák, J: Scanning electron microscopy at low vacuum in specimen chamber. EUREM 12 - 12th European Congress on Electron Microscopy, Brno, Czech Republic I I 211 (2000).
  2. Autrata, R; Schauer, P; Jirak, J: Detection of backscattered electrons for biological specimens study. 5th Multinational Congress on Electron Microscopy, Lecce, Italy (2001), p.519-520.
  3. Mullerova, I; El-Gomati, MM; Frank, L: Imaging of the boron doping in silicon using low energy SEM. Ultramicroscopy 93 3-4 (2002), p.223-243.
  4. Mullerova, I; Frank, L: Scanning low-energy electron microscopy. Advances In Imaging And Electron Physics, Vol 128; ADVANCES IN IMAGING AND ELECTRON PHYSICS 128 (2003), p.309-443.
  5. Mullerova, I; Frank, L: Contrast at very low energies of the gold/carbon specimen for resolution testing. Scanning 26 1 (2004), p.18-24.
  6. Autrata, R; Schauer, P: Nanoresolution BSE images created using a new type of YAG II scintillator. EMC 2004 - 13th European Microscopy Congress, Antwerp, Belgium I 75-76 (2004).
  7. Zeidler, D; Kemen, T: Particle beam system. US Patent 8,598,525 (2013).


Schauer, P.; Autrata, R.: Performance of Detector Elements for Electron Microscopes. 12th European Congress on Electron Microscopy, Vol. 3, Brno, Czech Republic, (Jul 2000), p.I 455. Práce, které uvádějí citaci:
  1. Hejna, J: Detektory elektronow w elektronowych mikroskopach skaningowych wysoko prozniowych. Prace Naukowe Instytutu Materia?éoznawstwa i Mechaniki Technicznej Politechniki Wroclawskiej. Monografie 66 27 (2010), p.3-215.


Schauer, P.; Vlcek, I.; Autrata, R.: Improved Recording System for the Study of Single Crystal Imaging Screens. 5th Multinational Congress on Electron Microscopy, Lecce, Italy, (Sep 2001), p.533-534. Práce, které uvádějí citaci:
  1. Schauer, P; Autrata, R: Experimental and simulative methods for scintillation detector optimization. 9th Inter. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalsky Dvur (Brno) (2004), p.67-68.


Autrata, R.; Schauer, P.; Jirak, J.: Detection of backscattered electrons for biological speciments study. 5th Multinational Congress on Electron Microscopy, Lecce, Italy, (Sep 2001), p.519-520. Práce, které uvádějí citaci:
  1. Nedela, V; Hrib, J; Havel, L; Hudec, J; Runstuk, J: Imaging of Norway spruce early somatic embryos with the ESEM, Cryo-SEM and laser scanning microscope. Micron 84 (2016), p.67-71.


Schauer, P.; Autrata, R.: Experimental Setup for Cathodoluminescence Spectra Measurement. 15th International Congress on Electron Microscopy (ICEM 15), Vol. 3, Durban, South Africa, (Sep 2002), p.337-338. Práce, které uvádějí citaci:
  1. Schauer, P; Autrata, R: Cathodoluminescence Spectra Measurement. 7th Inter. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalsky Dvur (Brno) Proc (2002), p.67-70.
  2. Schauer, P; Nespurek, S; Schauer, F; Autrata, R: Cathodoluminescence study of silicon polymers. Fine Mechanics and Optics (Jemna mechanika a optika) 48 (2003), p.156-157.
  3. Schauer, P; Nespurek, S; Schauer, F; Autrata, R: Electron beam degradation study of silicon polymers. 6th Multinational Congress on Microscopy, Pula, Croatia (2003), p.205-206.
  4. Schauer, P; Autrata, R: Experimental and simulative methods for scintillation detector optimization. 9th Inter. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalsky Dvur (Brno) (2004), p.67-68.
  5. Bok, J: Cathodoluminescence kinetics of scintillators and resists for e-beam devices (Kinetika katodoluminiscence scintilatoru a rezistu pro pristroje s elektronovym svazkem). Master Thesis, Masaryk University Brno, Czech Republic (2010).


Autrata, R.; Schauer, P.: New Fast and Efficient YAP Scintillator for the Detection i SEM. 15th International Congress on Electron Microscopy (ICEM 15), Vol. 3, Durban, South Africa, (Sep 2002), p.347-348. Práce, které uvádějí citaci:
  1. Novak, L; Mullerova, I: Single electron response of the scintillator-light guide-photomultiplier detector. J. Microsc.-Oxf. 233 1 (2009), p.76-83.
  2. Novak, L: Methods for quantification of detection channel for secondary electrons in scanning electron microscope. PhD Thesis, Masaryk University, Brno (2011).


Schauer, P.; Autrata, R.: Cathodoluminescence Spectra Measurement. 8th Inter. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalský Dvůr (Brno), (Jul 2002), p.67-70. Práce, které uvádějí citaci:
  1. Horak, P; Schauer, P: Cathodoluminescence of polysilanes. 9th Inter. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalsky Dvur (Brno) (2004), p.31-32.


Schauer, P.; Nespurek, S.; Schauer, F.; Autrata, R.: Optimization of Poly-(Methylphenylsilylene) Specimens for Cathodoluminescence Measurement. 31st Microscopy Conference - International Forum for Advanced Microscopy, Dresden, Germany, (Sept 2003), p.156-157. Práce, které uvádějí citaci:
  1. Horak, P; Schauer, P: Degradation of Poly [methyl (phenyl) silylene] cathodoluminescence. 2nd European Weathering Symposium - Natural and Artificial Ageing of Polymers, Gothenburg, Sweden (2005), p.311-319.
  2. Horak, P; Schauer, P: Cathodoluminescence as a method for the study of degradation of polysilanes. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 252 2 (2006), p.303-307.
  3. Horak, P: Study of Degradability and Metastability in Organo-Silicon Materials (Studium degradability a metastability v organo-kremikovych materialech). PhD Thesis, Brno Technology University, Czech Republic (2007).


Schauer, P.; Autrata, R.: Optimization of scintillation detector for SEM. EMC 2004 - 13th European Microscopy Congress, Vol. I, Antwerp, Belgium, (Aug 2004), p.69-70. Práce, které uvádějí citaci:
  1. Schauer, P: Decay Time Optimization of YAG:Ce Scintillator for S(T)EM Electron Detector. IMC 16 - 16th International Microscopy Congress, Sapporo, Japan 2 665 (2006).
  2. Szilagyi, JM: Extreme ultraviolet spectral streak camera. Masteers Thesis, University of Central Florida (2010).
  3. Schauer, P: Optimization of decay kinetics of YAG:Ce single crystal scintillators for S(T)EM electron detectors. Nucl. Instrum. Methods Phys. Res. Sect. B-Beam Interact. Mater. Atoms 269 21 (2011), p.2572-2577.


Autrata, R.; Schauer, P.: Nanoresolution BSE images created using a new type of YAG II scintillator. EMC 2004 - 13th European Microscopy Congress, Vol. I, Antwerp, Belgium, (Aug 2004), p.75-76. Práce, které uvádějí citaci:
  1. Wandrol, P; Roubalikova, L; Autrata, R: Imaging of Tooth Surface Using the Different Detection Modes in SEM. Proc. 7th Multinational Congress on Microscopy, Portoroz, Slovenia (2005), p.489-490.
  2. Wandrol, P; Autrata, R: Detection of Low Energy Backscattered Electrons in SEM. Proc. Dreilandertagung Microscopy Conference 2005, Davos, Switzerland (2005), p.61-62.
  3. Wandrol, P; Matejkova, J; Autrata, R: SEM Observation of Multilayer Semiconductor Structures Using Different Detection Modes. Proc. Dreilandertagung Microscopy Conference 2005, Davos, Switzerland (2005), p.338-339.


Schauer, P.; Autrata, R.: Monte Carlo Simulation Code for Photon Collection in S(T)EM Scintillation Detectors. 7th Multinational Congress on Microscopy, Portoroz, Slovenia, (June 2005), p.199-200. Práce, které uvádějí citaci:
  1. Horak, P: Study of Degradability and Metastability in Organo-Silicon Materials (Studium degradability a metastability v organo-kremikovych materialech). PhD Thesis, Brno Technology University, Czech Republic (2007).


Schauer, P.; Autrata, R.: Extended Algorithm for Optimization of Photon Transport in Scintillation Detector. Dreiländertagung Microscopy Conference 2005, Davos, Switzerland, (Aug 2005), p.55. Práce, které uvádějí citaci:
  1. Schauer, P: Decay Time Optimization of YAG:Ce Scintillator for S(T)EM Electron Detector. IMC 16 - 16th International Microscopy Congress, Sapporo, Japan 2 665 (2006).


Horák, P.; Schauer, P.: Degradation of Poly[methyl(phenyl)silylene] cathodoluminescence. 2nd European Weathering Symposium - Natural and Artificial Ageing of Polymers, Gothenburg, Sweden, (June 2005), p.311-319. Práce, které uvádějí citaci:
  1. Sula, P: Characterization of poly (phenylmethylsilylene) by selected thermal analysis methods (Charakterizácia poly(fenylmetylsilylénu) vybranymi metódami termickej analyzy). Master Thesis, Tomas Bata University, Zlin, Czech Republic (2012).


Horák, P.; Schauer, P.: Analysis of electron beam degraded poly[methyl(phenyl)silylene]. 8th Multinational Congress on Microscopy, Prague, Czech Rep., (June 2007), p.257-258. Práce, které uvádějí citaci:
  1. Sula, P: Characterization of poly (phenylmethylsilylene) by selected thermal analysis methods (Charakterizácia poly(fenylmetylsilylénu) vybranymi metódami termickej analyzy). Master Thesis, Tomas Bata University, Zlin, Czech Republic (2012).


Bok, J.; Schauer, P.: Quality assessment of scintillation detector in SEM using MTF. 13th Inter. Seminar on Recent Trends in Charged Particle Optics and Surface Physics Instrumentation, Skalský Dvůr (Brno), (June 2012), p.9-10. Práce, které uvádějí citaci:
  1. Bok, J; Schauer, P: Mechanism of electron-photon conversion in YAG:Ce scintillator for SEM electron detectors. MC 2013 - Microscopy Conference 2013, Regensburg, Germany 121-122 (2013).


Kucera, M.; Onderisinova, Z.; Hanus, M.; Prusa, P.; Bok, J.; Schauer, P.; Lalinsky, O.; Nikl, M.: Improved scintillation response of Ce doped GGAG garnet films: A pathway to high LY materials. SCINT 2015 - 13th International Conference on Inorganic Scintillators and Their Applications, Berkeley, USA, (June 2015), p.O14-1. Práce, které uvádějí citaci:
  1. Onderisinova, Z; Kucera, M; Hanus, M; Lalinsky, O; Bok, J; Schauer, P; Nikl, M: Cathodoluminescence decay kinetics of Ce3+ doped LuAG:GdGa multicomponent garnets. SCINT 2015 - 13th International Conference on Inorganic Scintillators and Their Applications, Berkeley, USA Proc (2015), p.O5-6.


Onderisinova, Z.; Kucera, M.; Hanus, M.; Lalinsky, O.; Bok, J.; Schauer, P.; Nikl, M.: Cathodoluminescence decay kinetics of Ce3+ doped LuAG:GdGa multicomponent garnets. SCINT 2015 - 13th International Conference on Inorganic Scintillators and Their Applications, Berkeley, USA, (June 2015), p.O5-6. Práce, které uvádějí citaci:
  1. Kucera, M; Onderisinova, Z; Hanus, M; Prusa, P; Bok, J; Schauer, P; Lalinsky, O; Nikl, M: Improved scintillation response of Ce doped GGAG garnet films: A pathway to high LY materials. SCINT 2015 - 13th International Conference on Inorganic Scintillators and Their Applications, Berkeley, USA Proc (2015), p.O14-1.


Schauer, P.; Lalinsky, O.; Lucenicova, Z.; Kucera, M.: Multicomponent garnet film scintillators for SEM electron detectors, doi: 10.1002/9783527808465.EMC2016.5236. EMC 2016 -The 16th European Microscopy Congress, Lyon, France, (Aug 2016), p.IM03-232. Práce, které uvádějí citaci:
  1. Schauer, P; Lalinsky, O; Kucera, M; Lucenicova, Z; Hanus, M: Effect of Mg co-doping on cathodoluminescence properties of LuGAGG:Ce single crystalline garnet films. Opt. Mater. 72 (2017), p.359-366.
  2. McDonald, KA; Schweitzer, GK: Synthesis of GAGG: Ce3+ powder for ceramics using mechanochemical and solution combustion methods. Journal of the American Ceramic Society 101 9 (2018), p.3837-3749.

Celkem: 74 citací mých prací ve sbornících.
===========================

Poznámka: Uvedený seznam není a ani nemůže být vyčerpávající.

 

OSTATNÍ CITACE
Především pokud je citováno nepřesně, nebo je citován jiný zdroj než časopis či sborník.


Citace, které neuvádějí přesný zdroj mých prací: . Práce, které uvádějí citaci:
  1. Comins, NR; Thirlwall, JT; Arris, J: Scintillator Lifetime Studies. Proceedings of EM Soc. of Southern Africa, Durban 1981 (1981), p.19.
  2. : Scintillation Disc. Firemni literatura EBTEC, Shoemaker Lane, P. O. Box 465, Agawam, USA (1982).
  3. : Planotec P 47 Scintillator Scheiben. Firemni literatura PLANO, Marburg, Friedrichsplatz 9, Germany (1982).
  4. Bauer, B; Egg, B: Ein Optimiert Ruckstreuelektronen Detektor fur das Rasterelektronen Mikroskop. Forschungsnachrict Max-Plank Institut fur Biologische Kybernetik, Tubengen, BRD (1983).
  5. Walther, P; Ariano, BM; Kriz, S; Muller, M: High Resolution SEM Detection of Protein A Gold (15 nm) Marked Surface Antigens Using Backscattered Electrons. Beitr. Elektronenmikroskop. Direktabb. Oberfl. 16 (1983), p.539.
  6. Autrata, R: Detection of Backscattered Electron in Scanning Electron Microscope. Slaboproudy Obzor 45 (1984), p.577.
  7. Walther, P: Beitrage zur Verfesserung der Oberflacheninformation in der Rasterelektronenmikroskopie Biologischer Objekte. Doktor Diss. Arbeit ETH Zurich, Nr. 7647, Universitatstr. 1 (1985).
  8. : . Katalog fy SPI Supplies (1985-86), West Chester, PA 19380, USA (1985), p.91.
  9. Studer, D; et al: Collodial Gold Particles Detected on Highly Structured Surface of Small Samples by BSE in the SEM. Proc. 4th. Pfeffernkorn Conf., Grand Canyon, 1985 (1985).
  10. Walther, P; et al: Detection of Small (5-15 nm) Gold Labelled Surface Antigens Using BSE. Proc. 4th Pfefferkorn Conf., Grand Canyon, 1985 (1985).
  11. Walther, P; Hermann, R; Studer, D; Muller, M: Detection of Small 5-15 nm Gold Labelled Surface Antigens by Backscattered Electrons. Dreilandertagung Elektronenmikroskopie 1985, Konstanz (1985), p.74.
  12. Walther, P; Muller, M: Detection of small (5-15 nm) gold-labelled surface antigens using backscattered electrons. Science of Biological Specimen Preparation (1986), p.195-201.
  13. Studer, D; Hermann, R: Collodial Gold Particles Detected on Highly Structured Surfaces of Large Samples by Backscattered Electrons in the Scanning Electron Microscope. Sci. Biolog. Specimen Preparation, SEM Inc. O'Hare, 1986 (1986), p.203.
  14. Egerton, RF; Crozier, PA: Parallel Recording with a GATAN 607 Energy-Loss Spectrometer. Proc. XIth. Conf. on Electron Microsc., Kyoto 1986 (1986), p.525.
  15. : . Prospektova literatura fy Taylor Engineering Inc., 11506 Highwiew Avenue, Wheaton, MD 20902, USA (1987).
  16. McMullan, D: . Adv. Electr. 74 (1988), p.147.
  17. Mares, JA; Kvapil, J: Prehled vlastnosti laserovych krystalu YAG:Nd a YAP:Nd. Jemna Mech. Opt. 34 (1989), p.55.
  18. Wood, CEC; Tabatabaei, SA; Mimomye, LV; Grober, LM: Reconstruction Controlled Dopant Incorporation and Coercion Effects in Molecular-Beam Epitaxial Germanium Grown on Gallium-Arsenide. J Appl Phys 76 4 (1994), p.2197-2201.
  19. Takaoka, A; Hasegawa, T; Yoshida, K; Mori, H: Microscopic tomography with ultra-HVEM and applications. Ultramicroscopy 108 3 (2008), p.230-238.
  20. Novak, L: Methods for quantification of detection channel for secondary electrons in scanning electron microscope. PhD Thesis, Masaryk University, Brno (2011).
  21. Hawkes, PW: The tongue of the mind. Ultramicroscopy 116 (2012), p.138-156.
  22. Hawkes, PW: Electron Optics and Electron Microscopy Conference Proceedings and Abstracts: A Supplement. in: Advances in Imaging and Electron Physics, Volume 190, Elsevier Inc., ISSN 1076-5670 (2015), p.143-175.

Celkem: 22 citací, které neuvádějí přesný zdroj mých prací.
=====================================

Poznámka: Uvedený seznam není a ani nemůže být vyčerpávající.


Celkem všech citací: 953.
================

 

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