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Pix4Dmapper

From EverybodyWiki Bios & Wiki







Pix4Dmapper
Developer(s)Pix4D
Initial release2014 (2014)
Stable release
4.5 / July 15, 2019 (2019-07-15)
Engine
    Operating systemMicrosoft Windows, Linux
    Available in English, Spanish, Mandarin (zh-CH, zh-TW), Russian, German, French, Japanese, Italian, Korean
    Typephotogrammetry
    LicenseProprietary
    Websitewww.pix4d.com/product/pix4dmapper-photogrammetry-software

    Search Pix4Dmapper on Amazon.

    Pix4Dmapper is a photogrammetry[1] and 3D modeling[2][3] software developed by Pix4D on desktop and cloud. It creates georeferenced 2D, 3D maps and 3D models[2][3] out of images or videos captured by drones, UAVs or any cameras. It is used for close-range[4], aerial[5] and UAV [6] photogrammetry and allows users to analyze, visualize and share their projects.

    Applications[edit]

    The major applications are:

    Languages[edit]

    Desktop version: English, Spanish, Mandarin (zh-CH, zh-TW), Russian, German, French, Japanese, Italian and Korean.
    Cloud version: English and Japanese.

    Inputs[edit]

    Images: Images in jpg and tiff format captured by any camera (compact, DSLR, thermal, multispectral, fisheye, 360°, large-frame etc.)
    Videos: Video up to 4k resolution in avi, mov, wmv, and mp4 format (4k resolution recommended)

    Outputs[edit]

    2D: Nadir orthomosaics, Orthomosaics from user-defined orthoplane, Google tiles, Index maps (Thermal, DVI, NDVI, SAVI, etc.), Georeferenced annotations

    2.5D: Nadir DSMs[28] and DTMs[29], DTMs from user-defined orthoplane

    3D:, Full 3D textured mesh, 3D PDF for easy sharing of 3D mesh, Tiled Level-of-detail (LoD) mesh, point cloud, Contour lines, Georeferenced annotations

    Animations: .mp4 and .avi formats and flythrough waypoints in .csv format.

    Technical requirements[edit]

    Desktop version requires 64-bit machines with at least 4 CPU cores and 16GB of RAM, Microsoft Windows 7 / 8 / 8.1 / 10 (Linux version is available upon request), using a graphics card compatible with OpenGL 3.2 and at least 2 GB of RAM.

    See also[edit]

    References[edit]

    1. ↑ Britanica, "What is photogrammetry". 2019.
    2. ↑ 2.0 2.1 Trout, Christopher. “Pix4D Turns Your 2D Aerial Photographs into 3D Maps on the Fly”, “Engadget”, 7 May 2011. Retrieved 24 October 2016.
    3. ↑ 3.0 3.1 Rumpler, Markus; Daftry, Shreyansh; Tscharf, Alexander; Prettenthaler, Rudolf; Hoppe, Christof; Mayer, Gerhard; Bischof, Horst."AUTOMATED END-TO-END WORKFLOW FOR PRECISE AND GEO-ACCURATE RECONSTRUCTIONS USING FIDUCIAL MARKERS", International Society for Photogrammetry and Remote Sensing, Zurich, 7 September 2014. Retrieved on 17 January 2017.
    4. ↑ xyht.com "State of close range photogrammetry". June 25, 2014.
    5. ↑ Olivia B. Waxman, Time (magazine) "Aerial photography has changed the world". May 30, 2018.
    6. ↑ Kotaro Lizuka, Taylor & Francis "Advantages of unmanned aerial vehicle (UAV) photogrammetry". Jul 18, 2018. doi:10.1080/23312041.2018.1498180.
    7. ↑ Pascal Sirguey, Julien Boeuf, Ryan Cambridge, Steven Mills (Aug 18, 2016). Evidences of Sub-Optimal Photogrammetric Modelling In RPAS-based Aerial Surveys (PDF).CS1 maint: Multiple names: authors list (link) Search this book on
    8. ↑ 8.0 8.1 F. Bachmann, R. Herbst, R. Gebbers, V.V. Hafner (Sep 2, 2013). Micro UAV based georeferenced orthophoto generation in VIS+NIR for precision agriculture (PDF).CS1 maint: Multiple names: authors list (link) Search this book on
    9. ↑ Shahab Moeini, Azzeddine Oudjehane, Tareq Baker, Wade Hawkins (Aug 8, 2017). Application of an interrelated UAS - BIM system for construction progress monitoring, inspection and project management1 (PDF).CS1 maint: Multiple names: authors list (link) Search this book on
    10. ↑ Juergen Landauer, ResearchGate Automating Archaeological Documentation with Robotics Tools. April 1, 2019. Search this book on
    11. ↑ Juergen Landauer, ResearchGate Towards automating drone flights for archaeological site documentation. Sep 1, 2018. Search this book on
    12. ↑ Khaula Alkaabi, Abdelgadir Abuelgasim (Sep 8, 2019). Applications of Unmanned Aerial Vehicle (UAV) Technology for Research and Education in UAE (PDF). Search this book on
    13. ↑ Áthila Gevaerd Montibeller (July 1, 2017). Estimating energy fluxes and evapotranspiration of corn and soybean with an unmanned aircraft system in Ames, Iowa. Search this book on
    14. ↑ Christoph Strecha, Olivier Küng, Pascal Fua (Feb 10, 2012). Automatic mapping from ultra-light uav imagery (PDF).CS1 maint: Multiple names: authors list (link) Search this book on
    15. ↑ Jakub Markiewicz, Dorota Zawieska MDPI Markiewicz, Jakub; Zawieska, Dorota (Feb 1, 2019). "The influence of the cartographic transformation of TLS data on the quality of the automatic registration". Applied Sciences. 9 (3): 509. doi:10.3390/app9030509.
    16. ↑ Bernhard Draeyer / Christoph Strecha (Feb 2014). How accurate are UAV surveying methods? (PDF). Search this book on
    17. ↑ Anne Rautio, Kirsti Korkka-Niemi, Veli-Pekka Salonen (Jun 30, 2017). Thermal infrared remote sensing in assessing ground / surface water resources related to the Hannukainen mining development site, Northern Finland (PDF).CS1 maint: Multiple names: authors list (link) Search this book on
    18. ↑ Jae Kang Lee, Min Jun Kim, Jung Ok Kim, Jin Soo Kim, Tri Dev Acharya, Dong Ha Lee MDPI Lee, Jae Kang; Kim, Min Jun; Kim, Jung Ok; Kim, Jin Soo; Acharya, Tri Dev; Lee, Dong Ha (Nov 15, 2018). "Crack Detection Assisted by an Unmanned Aerial Vehicle for Wonjudaegyo Bridge in Korea". Proceedings. 4: 23. doi:10.3390/ecsa-5-05835.
    19. ↑ Daniel Heina, Steven Bayera , Ralf Bergera , Thomas Krafta , Daniela Lesmeisterb (Jun 9, 2017). "An integrated rapid mapping system for disaster management" (PDF). Isprs - International Archives of the Photogrammetry. 42W1: 499–504. Bibcode:2017ISPAr42W1..499H. doi:10.5194/isprs-archives-XLII-1-W1-499-2017.CS1 maint: Multiple names: authors list (link)
    20. ↑ H.A. Follas, D.L Stewart, J. Lester (Apr 3, 2016). Effective post-disaster reconnaissance using unmanned aerial vehicles for emergency response, recovery and research (PDF).CS1 maint: Multiple names: authors list (link) Search this book on
    21. ↑ Jingxuan Sun, Boyang, Yifan Jiang, Chih-yung Wen MDPI Sun, Jingxuan; Li, Boyang; Jiang, Yifan; Wen, Chih-Yung (Oct 25, 2016). "A Camera-Based Target Detection and Positioning UAV System for Search and Rescue (SAR) Purposes". Sensors. 16 (11): 1778. doi:10.3390/s16111778. PMC 5134437. PMID 27792156.
    22. ↑ Dustin W. Gabbert , Mehran Andalibi , Jamey D. Jacob (Sep 7, 2015). System Development for Wildfire SUAS.CS1 maint: Multiple names: authors list (link) Search this book on
    23. ↑ Lim, Ye Seuli / La, Phu Hien / Park, Jong Soo3 / Lee, Mi Hee / Pyeon, Mu Wook / Kim, Jee-In (Dec 9, 2015). Calculation of Tree Height and Canopy Crown from Drone Images Using Segmentation.CS1 maint: Multiple names: authors list (link) Search this book on
    24. ↑ E. Prado, F. Sánchez, A. Rodríguez-Basalo, A. Altuna, A. Cobo, ResearchGate Prado, E.; Sánchez, F.; Rodríguez-Basalo, A.; Altuna, A.; Cobo, A. (April 1, 2019). "Semi-automatic method of fan surface assessment to achieve Gorgonian population structure in le Danois bank, Cantabrian sea". Isprs - International Archives of the Photogrammetry. 4210: 167–173. Bibcode:2019ISPAr4210..167P. doi:10.5194/isprs-archives-XLII-2-W10-167-2019.
    25. ↑ Fister, W., Goldman, N., Mayer, M., Suter, M., and Kuhn, N. J, Geographica Helvetica Fister, Wolfgang; Goldman, Nina; Mayer, Marius; Suter, Manuel; Kuhn, Nikolaus J. (Mar 15, 2019). "Testing of photogrammetry for differentiation of soil organic carbon and biochar in sandy substrates". Geographica Helvetica. 74: 81–91. doi:10.5194/gh-74-81-2019.
    26. ↑ D. Zawieskaa, J. Markiewicza, A. Turek b, K. Bakulaa, M. Kowalczyka, Z. Kurczyńskia, W. Ostrowskia, P. Podlasiaka (Jul 19, 2016). Multi-criteria GIS analyses with the use of UAVs for the needs of spatial planning.CS1 maint: Multiple names: authors list (link) Search this book on
    27. ↑ R. J. Stone (2015). Keynote paper: Virtual & Augmented reality technologies for applications in cultural heritage: A human factors perspective (PDF). Search this book on
    28. ↑ Assessing the Accuracy and Repeatability of Automated Photogrammetrically Generated Digital Surface Models from Unmanned Aerial System Imagery. Nov 16, 2017. ISBN 9786052450376. Search this book on
    29. ↑ Recep HALICIOGLU, Hediye KIRLI AKIN (2015). International Advanced Researches & Engineering Congress 2017 Proceeding Book. Search this book on
    30. ↑ Cheng, Eric (Oct 30, 2015). Aerial Photography and Videography Using Drones. ISBN 9780134122830. Search this book on
    31. ↑ Ngadiman, Norhayati & Kaamin, Masiri & Sahat, Suhaila & Mokhtar, Mardiha & Ahmad, Nor Farah Atiqah & Kadir, Aslila & Razali, Siti. ResearchGate Ngadiman, Norhayati; Kaamin, Masiri; Sahat, Suhaila; Mokhtar, Mardiha; Ahmad, Nor Farah Atiqah; Kadir, Aslila Abd; Razali, Siti Nooraiin Mohd (Sep 1, 2018). "Production of orthophoto map using UAV photogrammetry: A case study in UTHM Pagoh campus". American Institute of Physics Conference Series. 2016 (1): 020112. Bibcode:2018AIPC.2016b0112N. doi:10.1063/1.5055514.
    32. ↑ L. Jurjević a, M. Gašparović ISPRS 3D data acquisition based on opencv for close-range photogrammetry applications (PDF). Jun 9, 2017. Search this book on
    33. ↑ Koutsoudis, Vidmar, Ioannakis, Arnaoutogloua, Pavlidis, Chamzas (Dec 10, 2012). 3Multi-image 3D reconstruction data evaluation (PDF).CS1 maint: Multiple names: authors list (link) Search this book on
    34. ↑ Alexander Zarnowski, Anna Banaszek, Sebastian Banaszek (Dec 10, 2015). "Application of technical measures and software in constructing photorealistic 3D models of historical building using ground-based and aerial (UAV) digital images" (PDF). Reports on Geodesy and Geoinformatics. 99 (1): 54–63. Bibcode:2015RGG....99...12Z. doi:10.2478/rgg-2015-0012.CS1 maint: Multiple names: authors list (link)
    35. ↑ G. Verhoeven, M. Doneus, Ch. Briese (Mar 4, 2015). Computer vision techniques: towards automated orthophoto production.CS1 maint: Multiple names: authors list (link) Search this book on
    36. ↑ Roberts, Debadeepta, Truong, Sinha, Shah, Kapoor, Hanrahan, Joshi (Jan 14, 2017). Submodular Trajectory Optimization for Aerial 3D Scanning (PDF). arXiv:1705.00703. Bibcode:2017arXiv170500703R.CS1 maint: Multiple names: authors list (link) Search this book on


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