Development of an autonomous robotic complex in reforestation and afforestation
https://doi.org/10.26897/1997-6011-2024-4-133-140
Abstract
The purpose of the study is to automate the process of creating forest cultures. The object of the research is the design and technical solution of an autonomous reforestation robot for planting seedlings of coniferous forest crops (pine, spruce). Land degradation and desertification is a significant problem for ensuring food security in the Russian Federation. More than 100 million hectares of agricultural land are at risk of loss of fertility due to large-scale degradation and desertification. The lack of qualified personnel and low-productivity manual labor do not allow for the most effective use of the tight deadlines for reforestation work. At present, there is an urgent need for advanced developments in the field of technical and economic aspects of forest culture. All known serial models of reforestation machines use the manual labor of the operator to feed seedlings to the working bodies of the device for further planting in the ground in the direction of the machine. In this regard, the productivity of these complexes directly depends on and is limited by the personal skills of the operator. The use of an autonomous unmanned robot, such as the Svyatobor complex being developed, will eliminate the human factor, standardize the quality of planting seedlings, and use the terms of reforestation and forest management work as efficiently as possible. Along with the issue of standardizing the quality of planting seedlings, significant savings in time and resources are achieved by eliminating the need for soil preparation due to the introduction of machine vision, the use of a robot track platform and a special plow that performs opening of the fertile layer directly at the place of planting each seedling. The article describes the concept of the Svyatobor complex, including the main elements and stages of its preparation for work. The results of the development of careful capture of seedlings of coniferous forest-forming species are presented.
About the Authors
R. А. KhakhaevRussian Federation
Ruslan A. Khakhaev, graduate student
141005, Moscow region, Mytishchi, 1st Institutskaya str., 1
V. A. Savchenkova
Russian Federation
Vera A. Savchenkova, DSc (Agro), associate professor of the Higher Attestation Commission
141005, Moscow region, Mytishchi, 1st Institutskaya str., 1
References
1. Bobkov D.A., Nikiforov A.I., Mukhlynin D.N. Russian experience and features of legal regulation of forest reclamation plantations (forest belts) on the lands of agricultural appointments. 2020. № 8. P. 65-67.
2. Vladimirov I.A., Khaibulina E.R. Legal regime of agricultural lands // International Journal of Humanities and Natural Sciences. 2019. V. 9, No 1. P. 142-144.
3. Drapalyuk M.V., Stasyuk V.V., Zelikov V.A. (2021) New designs of universal forest planting machines for planting seedlings with an open and closed root system. Forest engineering journal], Vol. 11. No. 4 (44). P. 112-123. DOI: https://doi.org/10.34220/issn.2222-7962/2021.4/10
4. Rottensteiner C. Mechanisierte Pflanzung von Forstballenpflanzen. Universitat fur Bodenkultur Wien Department fur Waldund Bodenwissenschaften Institut fur Forsttechnik. Wien. 2009. p. 77.
5. Equipment for reforestation and timber stand improvement. Forest Service Equipment Development Center. Fort Missoula, Missoula, Montana. 1980. 266 p.
6. Rantala J. A techno economic evaluation of Bracke and M-Planter tree planting devices. Silva Fennica. 2009. no. 43 (4). P. 659-667.
7. Ersson T. Possible concepts for mechanized tree planting in Southern Sweden – an introductory essay on forest technology. Sveriges lantbruksuniversitet. – Umea, 2010. 54 p.
8. Bartenev I.M., Popov I.V. Modern development of structures of forest planters abroad / I.M. Bartenev, I.V. Popov // Forest Engineering Journal. 2014. V. 4. – № 2(14). P. 203-216.
9. Asmolovskij M.K. Sostoyanie i perspektivy mekhanizacii posadki lesnyh kul’tur [Status and prospects of mechanization planting] Trudy BGTU [Proceedings of BSTU]. Minsk: BGTU. 2015. no. 1(174). P. 119-123.
10. Alyabjev A.F. Evaluation of the efficiency of technological complexes of machines and the creation of new mechanization tools for reforestation. Moscow. 2011. 39 p.
11. Bartenev I.M. Automation of planting process. Scientific Journal of KubSAU. Krasnodar: 2012, no. 75. 13 p. Available at: http://ej.kubagro.ru/2012/01/pdf/33.pdf.
12. Selimenkov R.Yu., Mironov A.V. Efficiency of innovative technologies in forest reproduction. Problems of territory’s development. Vologda. VolNC RAS. 2011. no. 3 (55). P. 51-58.
13. Korshunov N.A., Savchenkova V.A., Perminov A.V., Konyushenkov M.E. Promising areas of application of unmanned aircraft systems in the forest complex. Forestry information. Moscow: FBU “VNIILM” 2022. no. 2. P. 34-46.
14. Certificate of registration of electronic resource no. 2023621092 dated 04.04.2023. Architecture of the autonomous robot Svyatobor for afforestation and reforestation works / R.A. Khakhaev. M ОFERNiO, 2023.
Review
For citations:
Khakhaev R.А., Savchenkova V.A. Development of an autonomous robotic complex in reforestation and afforestation. Prirodoobustrojstvo. 2024;(4):133-140. (In Russ.) https://doi.org/10.26897/1997-6011-2024-4-133-140