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Received 10.01.2022

Revised 14.05.2022

Accepted 14.06.2022

Retrieved from Iss. 111, 2022

Pages 99 -105

  • 120 Views

Suggested citation

Dovgopolyuk, L., Ignatov, S., & Neizvestna, N. (2022). MODERN PROGRAMS FOR PROCESSING DATA OF GEODESIC DIMENSIONS. Automobile Roads and Road Construction, (111), 99-105. https://doi.org/10.33744/0365-8171-2022-111-099-105

MODERN PROGRAMS FOR PROCESSING DATA OF GEODESIC DIMENSIONS

Lyudmyla Dovgopolyuk Serhiy Ignatov Natalia Neizvestna

Abstract

Modern software used for processing field geodetic surveys was studied. Every year, geodetic production faces new tasks that require a quick and correct solution. The modern level of automation of geodetic work is characterized by the widespread distribution of electronic total stations and satellite receivers, digital aerial photography complexes, field portable computers, as well as multifunctional software packages. This requires the use of new technologies and an automated information processing system, which includes the availability of a software complex for processing field measurement materials, means of automated data entry and graphical information, programs for processing graphics and automated drawing, devices for outputting graphic and textual information. The software for processing the received data of geodetic measurements should be such that the most complex tasks are performed, and at the same time it is easy to use. The development of software tools for processing geodetic measurements will help to reduce the time for camera data processing. The article evaluates the software in terms of the possibility of their practical implementation in the field of geodesy, as well as in terms of accessibility, comprehensibility and the presence of additional functions. An analysis of the functionality of the most widespread in Ukraine modern software complexes for processing the results of ground surveying, such as: CADdy, FieldWorks, Topograd, Topocad, and CREDO, designed for processing the results of geodetic measurements and designing the construction, reconstruction, repair of highways and transport interchanges, was carried out. including public roads, city streets and roads of all technical categories. Based on the analysis of the functionality of modern software complexes designed to process the results of geodetic measurements and the design, reconstruction and capital repair of highways, appropriate conclusions were formed

Keywords:

geodetic research, geodetic data processing, error detection, computer programs, software

References

  1. Balakirskyi, V.B., Zakharov, S.V., Lytvynenko, Yu.O., & Kuryshko, R.V. (2014). Use of geodetic equipment and GIS technologies for the formation of geospatial data. Bulletin of V.N. Karazin Kharkiv National University. Series “Ecology”, 11(1140), 9-13.
  2. Bieliatynskyi, A.O., Utechenko, T.O., & Rieznik, O.M. (n.d.). Complex CREDO – modern technologies for the development of projects of transport structures and highways. Science-Based Technologies, 1(1), 99-101. doi: 10.18372/2310-5461.1.5089.
  3. Dorozhko, Ye.V. (2017). Construction of a digital terrain model based on geodetic measurements. Municipal Economy of Cities: Scientific and Technical Collection. Series “Technical Sciences and Architecture”, 139, 60-62.
  4. Nazarov, A.S., Neumyvakin, Yu.K., & Perskyi, M.I. (2009). Automated processing of topographic-geodetic and land-cadastre works materials (using the CREDO complex as an example). Moscow: Credo-Dialog SP.
  5. NPO “CREDO-Dialog”. (2000). Software complex for processing engineering surveys, digital terrain modeling, design of general plans and highways: User manual. Vol. 5. Description of the CAD_CREDO system. Highway design. Minsk.
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  7. NPO “CREDO-Dialog”. (2004). Software complex for processing engineering surveys, digital terrain modeling, design of general plans and highways: User manual. Vol. 7. Description of the CREDO_MIX system. Digital project model. Minsk.
  8. NPO “CREDO-Dialog”. (2004). Software complex for processing engineering surveys, digital terrain modeling, design of general plans and highways: User manual. Vol. 1. Description of the CREDO_DAT system. Engineering-geodetic and land management works. Minsk.
  9. User manual for DAT 5.3 “Processing of field engineering-geodetic data”. (n.d.). Retrieved from http://www.credo-dialogue.com/getattachment/ce89a4a8-abce-4139-b059-2e9a3080f3ff/Kontseptsiaj-seti.aspx.
  10. Purkin, V.I. (2007). Fundamentals of automated design of highways (based on the Credo software complex). Moscow: Credo-Dialog SP.
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https://doi.org/10.33744/0365-8171-2022-111-099-105

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