Preview

Crede Experto: transport, society, education, language

Advanced search

Modified methodology for confirming ADS-B data with correction of temperature values when estimating the flight altitude

https://doi.org/10.51955/2312-1327_2023_4_28

Abstract

The International Civil Aviation Organization indicates the need to confirm the ADS-B data. The ADS-B messages include information about the horizontal and vertical location. Information about the altitude of an aircraft in civil aviation is of great importance. The article proposes a modified methodology for confirming ADS-B data when performing flights on local airlines, which allows us to estimate and compare the geometric and barometric altitude of aircraft flight transmitted in a standard ADS-B message. The proposed modification of the method consists is correcting the temperature values, using the full barometric Laplace formula, taking into account the ADS-B quality parameters. In a level flight, with no ground velocity vector data, temperature is corrected using the airspeeds (TAS, IAS) transmitted in the ADS-B message. The method uses a maximum permissible error of 90 m. It is also proposed to determine the air temperature according to geometric and barometric altitude data transmitted in the standard ADS-B message. The determination of air temperature at altitudes involves the use of the ADS-B data from the aircraft that completed take-off. To determine the temperature according to the data of the aircraft completed landing, statistics of data from several aircraft is needed.

About the Author

A. S. Kalintsev
The State Scientific Research Institute of Civil Aviation (GosNII GA)
Russian Federation

Andrey S. Kalintsev

67, k. 1, Mihalkovskay street Moscow, 125438



References

1. Averin V. G., Aronzon B. A., Babaev N. S. (1976). Tables of physical quantities: reference book. Moscow: Atomizdat Publ., 1976. 1006 p. (in Russian)

2. Broido A. G., Zvereva S. V., Kurbatova A. V., Ushakova T. V. (1984). Book of problems on general meteorology. Leningrad : Gidrometeoizdat, 1984. 312 p. (in Russian).

3. de Haan S. (2013b). An improved correction method for high quality wind and temperature observations derived from Mode-S EHS. KNMI, 2013. 54 p.

4. de Haan S., de Haij M., Sondij J. (2013a). The use of a commercial ADS-B receiver to derive upper air wind and temperature observations from Mode-S EHS information in The Netherlands. De Bilt, The Netherlands : KNMI, 2013. 45 p.

5. Find Ellipsoidal Height from Orthometric Height. Mathworks. Available at: https://uk.mathworks.com/help/map/ref/egm96geoid.html (accessed 18 April 2023).

6. Gracey W. (1980). Measurement of Aircraft Speed and Altitude. NASA Reference Publication 1046, 1980. 308 p.

7. Kalintsev A. S., Rubtsov E. A., Plyasovskih A. P. (2021). Confirmation of ADS-B data in the aerodrome traffic zone by gating method. T-Comm. 15(7): 39-49. (in Russian)

8. Kalintsev A., Rubtsov E., Povarenkin N. (2022). Application of ADS-B for Providing Surveillance at Civil Aviation Regional Aerodromes. Proceedings of 10th International Conference on Recent Advances in Civil Aviation. Singapore : Springer Nature Singapore, 2023. 371-382.

9. Lowry J. T. (1999). Performance of Light Aircraft (AIAA Education Series). Washington: DC, 1999. 475 p.

10. Matveev L. T. (2000). Atmospheric physics. Saint Petersburg: Gidrometeoizdat, 2000.780 p. (in Russ.).

11. Plyasovskih А. Р., Rubtsov Е. А. (2019). Reliability estimation method of ADS-B information for surface movement guidance and control system. Vestnik Saint Petersburg State University of Civil Aviation. 3(24): 90-102. (in Russian)

12. Plyasovskih А. Р., Rubtsov Е. А. (2020). Theoretical substantiation of confirmation of the validity of information about the location of the object on the work area of the aerodrome. T-Comm. 14(3): 32- 40. DOI 10.36724/2072-8735-2020-14-3-32-40. (in Russian)

13. Plyasovskikh A. P., Rubtsov E. A., Kalintsev A. S., Davidenko V. Yu. (2023). Confirmation of ADSB Messages by aircraft flight altitude. Crede Experto: transport, society, education, language. 1(36): 118-133. DOI 10.51955/2312-1327_2023_1_118. (in Russian)

14. Rubtsov E. A., Kudryakov S. A., Dalinger I. M., Kalintsev A. S. (2023). ADS-B data gating technique and its probabilistic models. Civil Aviation High Technologies. 26(4): 50–63. DOI: 10.26467/2079- 0619-2023-26-4-50-63.

15. Sviyazov E. M., Glotova A. S. (2018) The forecast and recovery of sea-level standard pressure, using hydrodynamic models and actual data of surface meteorological observations. Vestnik Udmurt University. 28(4): 441-446. (in Russian)

16. Taib N. A. Ali B. S. (2016). An Analysis of Geometric Altitude Data in ADS-B Messages. Proceedings of the 2016 International Technical Meeting of The Institute of Navigation, 2016. 697- 704.

17. True Airspeed from Indicated Airspeed Calculation. Mathworks. Available at: https://uk.mathworks.com/help/aeroblks/true-airspeed-from-indicated-airspeed-calculation.html (accessed 18 April 2023).

18. Use of Barometric Altitude and Geometric Altitude Information in ADS-B Message for ATC Applications," presented at the The Eight Meeting Of The Southeast Asia and Bay of Bengal SubRegional ADS-B Implementation Working Group (SEA/BOB ADS-B WG/8) Provisional Agenda, Yangon, Myanmar, 2012. 4 p.


Review

For citations:


Kalintsev A.S. Modified methodology for confirming ADS-B data with correction of temperature values when estimating the flight altitude. Crede Experto: transport, society, education, language. 2023;(4):28-49. (In Russ.) https://doi.org/10.51955/2312-1327_2023_4_28

Views: 11

JATS XML


Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.


ISSN 2312-1327 (Online)