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AUTOMATIC LASER BEAM DEFLECTION RECORDER WITH FIBER-OPTICAL CONVERTER

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ARTICLE ANNOTATION

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This article discusses the issue of improving geodetic instruments and methods for conducting alignment measurements using photoelectric and optoelectronic means of recording displacements relative to a given reference line with a laser radiation source. The relevance of the need to increase the efficiency and level of automation of cross-section measurements when performing field observations of deformations, displacements, and settlements of dams and hydraulic structures is substantiated. The table shows the main types of alignment measurements, which present the methods and means of each type used separately depending on the required accuracy and length of the alignment line. The advantages and disadvantages of each type of alignment measurement are also noted, with regard to the possibility of automating the measurement process. Based on a comparative analysis, a type of cross-sectional measurement was selected using a laser radiation source, which acts as a reference line. A brief review of modern devices and means of scanning a laser beam and photoelectric registration with respect to a laser radiation source has been carried out, providing high efficiency and accuracy of alignment measurements, on the basis of which an optical-electronic straightness deviation recorder has been developed using a fibre-optic converter of a linear-circular type. The functional and electronic diagrams of the recorder are presented. A computational assessment of the relative accuracy of the recorder’s target measurements and a calculation of the level of luminous fl ux in the perceived area of the analyzer were carried out. Keywords: gate measurements, device, deformation, reference line, recorder, field observations, laser beam, fiber optics.

AUTHORS

N.Yusupbekov

Islom Karimov nomidagi Toshkent davlat texnika universiteti

N.Zahidov

Islom Karimov nomidagi Toshkent davlat texnika universiteti

Tags

# деформация# device# прибор# deformation# deformatsiya# laser beam# лазерный луч# регистратор# recorder# tolali optika# волоконная оптика# asbob# створные измерения# опорная линия# натурные наблюдения# stvor o‘lchovlari# tayanch chiziq# registrator# tabiiy kuzatuv# lazer nuri# gate measurements# reference line# field observations# fibre optics

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References

Bodner, V.A., Alferov, A.V. (1986). Izmeritel’nyye pribory [Measuring instruments]. (pp. 90-114). Moscow: Publ. house of Standards.

Sharapova, V.M., Polishuka, E.S. (eds.) (2012). Datchiki [Sensors] (624 p.) Moscow: Tehnosphera Publ.

Integral’nyye mikroshemy [Integrated circuits]. (1985). (528 p.). Moscow: Energoatomizdat Publ.

Kamen, H. (1982). Elektronnyye sposoby izmereniy v geodezii [Electronic methods of measurements in geodesy] (pp. 17-60). Moscow: Nedra Publ.

Katys, G.P. (1990). Obrabotka vizual’noy informatsii [Processing of visual information] (pp. 134- 159). Moscow: Mashinostroyeniye Publ.

Kotyuk, A.F. (2007). Datchiki v sovremennykh izmereniyakh [Sensors in modern measurements] (p. 95). Moscow: Goryachaya liniya – Telekom Publ.

Mikushih, A.V., Sajnev, A.M., Sedinin, V.I. (2010). Tsifrovyye ustroystva i mikroprotsessory [Digital devices and microprocessors] (pp. 28-34). St. Petersburg: BHV – Piterburg Publ.

Rannev, G.G. (2010). Izmeritel’nyye informatsionnyye sistemy [Measuring information systems] (pp. 46-55). Moscow: Izdatelskiy tsentr Akademiya.

Slit target mark and methods of its use for cross-sectional measurements (1989). Patent Kanada, No. 1142347, MPK G 01 c 15/00.

Shilo, V.L. (1988). Populyarnyye tsifrovyye mikrochemy [Popular digital microcircuits] (352 p.). Moscow: Radio i svyaz’ Publ.

Perel’man, B.L. (ed.) (1981). Tranzistory dlya apparatury shirokogo primeneniya [Transistors for widely used equipment] (656 p.). Moscow: Radio i svyaz’ Publ.

Valiyeva, A.R. (2016). Obosnovaniye primeneniya lazernogo skanirovaniya v otsenke deformatsiy vysotnykh konstruktsiy [Rationale for the use of laser scanning in assessing the deformation of high-rise structures]. Izv. vuzov “Geodeziya i aerosyomka” – News from Universities “Geodesy and Aerial Photography” (4), 60-63, 0536-101Х.

Yusupbekov, N.R., Aliyev, R.A., Yusupbekov, A.R., Aliyev, P.P. (2013). Vychislitel’nyy intellekt i yego sostavlyayushhiye [Computational intelligence and its components]. Khimicheskaya tekhnologiya. Kontrol’ i upravleniye – Chemical Technology. Control’ and management (3), 78. Tashkent.

Yusupbekov, N.R., Zahidov, N.M. (2023).Remote aligment fixing devise with vizir marks in base LCD indicator. Chemical Technology Control and Management(2), 22-29.

Yambayev, H.K. (1990). Spetsial’nyye pribory dlya inzhenerno-geodezicheskikh rabot [Special instruments for engineering and geodetic work] (pp. 61-73). Moscow: Nedra Publ.

Yambayev, Н.K., Golygin, N.Kh. (2005). Geodezicheskoye instrumentovedeniye [Geodetic instrumentation] (pp. 60-72). Moscow: Yukis Publ.

Yambayev, H.K. (1978). Vysokotochnyye stvornyye izmereniya [High-precision alignment measurements] (pp. 11-20). Moscow: Nedra Publ.

Yakushenkov, Y.G. (2013). Osnovy optiko-elektronnogo priborostroyeniya [Fundamentals of optical-electronic instrumentation] (p. 376). Moscow: Logos Publ.

Zakhidov, N.M., Samborskiy, A.A. (2020). Optiko-elektronnyy registrator otkloneniya ot pryamolineynosti so svetovodnym analizatorom [Optical-electronic straightness deviation recorder with light guide analyzer]. Proceedings of the IX Scientific-practical сonference on “Current issues of geodesy and information systems” (pp. 84-91). Kazan.

Zatsarinnyy, A.V. (1976). Avtomatizasiya vysokotochnykh inzhenerno-geodezicheskikh izmereniy [Automation of high-precision engineering and geodetic measurements] (pp. 106-112). Moscow: Nedra Publ.