Ing. Tomáš Koutecký, Ph.D.

E-mail:   Tomas.Koutecky@vut.cz 
Dept.:   Institute of Machine and Industrial Design
Dept. of Reverse Engineering and Additive Technologies
Position:   Assistant Professor
Room:   D5/439

Education and academic qualification

  • 08.07.2005-12.06.2008, Brno, Bc., Mechanical Engineering, BUT FME
  • 13.06.2008-24.06.2010, Brno, Ing., Mechanical Engineering Design, Institute of Machine and Industrial Design, BUT FME
  • 14.07.2010-29.06.2015, Brno, Ph.D., Design and Process Engineering, Institute of Machine and Industrial Design, BUT FME

2008 - Bc., Mechanical Engineering, BUT FME

2010 - Ing., Mechanical Engineering Design, Institute of Machine and Industrial Design, BUT FME

2015 - Ph.D., Design and Process Engineering, Institute of Machine and Industrial Design, BUT FME

Career overview

  • 01.06.2011-31.08.2011, Brno, Technical staff, Institute of Machine and Industrial Design, BUT FME
  • 01.09.2011-31.08.2015, Brno, Assistant, Institute of Machine and Industrial Design, BUT FME

01.09.2015 - until now - Assistant Professor, Institute of Machine and Industrial Design, BUT FME

Pedagogic activities

  • seminars in CAD (3CD) course
  • seminars in Machine Design - Mechanisms, 3D Print and Solidworks (6KM) course
  • seminars in Reverse Engineering and Surface Modeling (ZM2) course
  • seminars in 3D Optical Digitization and Inspection of Machine Parts (ZRI-A) course

Projects

Introduction of Problem Based Learning to Mechanical Engineering Curricula., initiation: 1.5.2009 ending: 30.4.2012

Development of additive technologies for the production of artifacts in the field of industrial design and unique parts in mechanical engineering., initiation: 01.01.2014, ending: 31.12.2016

Supervised courses:

Publications:

  • HRUBOŠ, D.; KOUTECKÝ, T.; PALOUŠEK, D.:
    An experimental study for determination of an application method and TiO2 powder to ensure the thinnest matte coating layer for 3D optical scanning, Elsevier
    journal article in Web of Science
  • KOUTECKÝ, T.; ZIKMUND, T.; GLITTOVÁ, D.; PALOUŠEK, D.; ŽIVČÁK, J.; KAISER, J.:
    X-ray micro-CT measurement of large parts at very low temperature, American Institute of Physics
    journal article in Web of Science
  • KOUTECKÝ, T.; PALOUŠEK, D.; BRANDEJS, J.:
    Sensor planning system for fringe projection scanning of sheet metal parts, Elsevier
    journal article in Web of Science
  • KOUTECKÝ, T.; PALOUŠEK, D.; BRANDEJS, J.:
    Application of a reflectance model to the sensor planning system,
    PROCEEDINGS OF SPIE - Automated Visual Inspection and Machine Vision, pp.953005-1-953005-13, ISBN 9781628416909, (2015), SPIE
    conference paper
    akce: SPIE Optical Metrology 2015, Mnichov, 21.06.2015-25.06.2015
  • PALOUŠEK, D.; OMASTA, M.; KOUTNÝ, D.; BEDNÁŘ, J.; DOKOUPIL, F.; KOUTECKÝ, T.:
    Effect of matte coating on 3D optical measurement accuracy, Elsevier
    journal article in Web of Science
  • KOUTECKÝ, T.; PALOUŠEK, D.; BRANDEJS, J.:
    Method of photogrammetric measurement automation using TRITOP system and industrial robot,
    OPTIK, Vol.124, (2013), No.18, pp.3705-3709, ISSN 0030-4026, Elsevier GmbH
    journal article - other

List of publications at Portal BUT

Abstracts of most important papers:

  • HRUBOŠ, D.; KOUTECKÝ, T.; PALOUŠEK, D.:
    An experimental study for determination of an application method and TiO2 powder to ensure the thinnest matte coating layer for 3D optical scanning, Elsevier
    journal article in Web of Science

    Matte coating used for optical 3D scanning was investigated. The goal was to produce thinnest possible layer with sufficient covering effect. Three different TiO2 powders and two spraying guns were tested. Spraying was affected by agglomeration and sedimentation of TiO2 primary particles. Coating layer with thickness of 200–600 nm was produced by both guns.
  • KOUTECKÝ, T.; ZIKMUND, T.; GLITTOVÁ, D.; PALOUŠEK, D.; ŽIVČÁK, J.; KAISER, J.:
    X-ray micro-CT measurement of large parts at very low temperature, American Institute of Physics
    journal article in Web of Science

    Method how to inspect parts at very low temperatures by X-ray computed tomography is proposed. Cooling system for CT imaging of parts with length up to 300 mm at the extreme temperature conditions of -40°C is presented. The system is demonstrated on measurement of plastic part. Method of how to interpret the thermal changes using tools of the commercial software VGStudio MAX is also presented.
  • KOUTECKÝ, T.; PALOUŠEK, D.; BRANDEJS, J.:
    Sensor planning system for fringe projection scanning of sheet metal parts, Elsevier
    journal article in Web of Science

    Sensor planning system for scanning of parts with shiny surfaces is proposed. Reflectance model is used to simulate visual properties of the surface. Reflectivity function model fitted to the experimentally obtained material data. Detailed simulation and comparison of simulation and scanning is presented.
  • PALOUŠEK, D.; OMASTA, M.; KOUTNÝ, D.; BEDNÁŘ, J.; DOKOUPIL, F.; KOUTECKÝ, T.:
    Effect of matte coating on 3D optical measurement accuracy, Elsevier
    journal article in Web of Science

    The aim of this study is to gain basic information about matte coating thickness in the area of 3D optical digitization. Thickness measurement was performed for two matting materials; chalk spray and titanium coating. A 3D optical scanner ATOS III, Triple Scan was used for data capturing and evaluation. The scanner technology is based on active fringe projection and triangulation. Fifteen measurements for chalk material and fifteen for titanium coating were carried out. The measurement conditions included the effects of lighting, operation, imperfections of coating materials deposition, etc. The results show significant differences between chalk and titanium matting materials.
  • KOUTECKÝ, T.; PALOUŠEK, D.; BRANDEJS, J.:
    Method of photogrammetric measurement automation using TRITOP system and industrial robot,
    OPTIK, Vol.124, (2013), No.18, pp.3705-3709, ISSN 0030-4026, Elsevier GmbH
    journal article - other

    This paper deals with a method of TRITOP photogrammetric system automation. The method of photogrammetric measurement automation via the TRITOP system and an industrial robot is presented.