CONSTRUCTION OF A PROTOTYPE OF AN AUTOMATED WIRELESS SYSTEM FOR MONITORING AIR DUST CONTENT AT PRODUCTION SITES
Abstract
Various studies over the past decades have shown that fine dust particles can pose serious health hazards, contributing to the development of respiratory and cardiovascular diseases. Potential links have been identified between the likelihood of occurrence of diseases such as chronic obstructive pulmonary disease (COPD), asthma, lung cancer, with the concentration of dust in the air. There are correlation data showing that an increase in the MPC of dust in the air by only 50 μg / m3 leads to an increase in mortality by 1-8%. Dust particles have a significant impact on the life of plants and animals. Many industrial, experimental and medical processes can be safely carried out only at certain values of the concentration of dust particles in the air: for example, dust consisting of solid particles less than 850 microns in size, suspended or settled in a gas environment, is capable of self-combustion and explosion in the air. Such dust is classified as combustible dust and, at certain concentrations, can cause industrial accidents associated with explosions of dust / air mixtures. The creation of an automated system capable of controlling the dustiness of the air in various production facilities is an urgent task. This work is devoted to the creation of such a system that combines the required number of dust sensors connected to each other in a wireless network, which makes it possible to control the measurement process and record the measurement results of each specific sensor.
References
Godzhello M.G. [Industrial dust explosions and their prevention]. Moscow, Publishing House MZHKH RSFSR, 1952 (in Russian).
Baratov A.N. [Fire safety. Explosion proof. Ref. Ed.]. Moscow, Publishing House Chemistry, 1987 (in Russian).
Bondar V.A. [Industrial dust explosions and their prevention]. Moscow, News of MSTU, Publ., 2012, vol. 4, pp. 286 - 289 (in Russian).
Shamim, N. Design and Implementation of Scalable Wireless Sensor Network for Structural Monitoring / Shamim, N, Gregory L, Sukun K, David E. // In ASCE Journal of Infrastructure Engineering. – 2008. Vol. 14, Iss. 1. - P. 89-101.
PIC18FXX2. Data sheet. Microchip Technology Incorporated. August 2006.
SHARP Corporation, Sheet No. E4-A01501EN GP2Y1010AU0F Compact Optical Dust Sensor, 2006.
Directions for use of "Serial Digital Data Networks" [Electronic resource]: www.maxim-ic.com/an3438 (in Russian).
Research Laboratory of Automated Environmental Monitoring [Electronic resource]: http://asemlab.net/viewtopic.php?f=16&t=123&sid=95ab8c79cee75a750bf9c21dfaca1308 (in Russian).
Moiseev D.N. [Wireless scientific equipment monitoring and sensor monitoring over Wi-Fi using the ESP8266 module]. Automation and software engineering, 2018, no. 1(23), pp. 9-19 (in Russian).
Moiseev D.N., Sviridenok A.I., Chubrik I.A. [The prototype of a multifunctional detector - gas analyzer for environmental monitoring systems]. XIII International Scientific and Practical Conference International Trends in Science and Technology. RS Global, Warsaw, 2019, vol. 1, pp., 30-32.
Moiseev D.N., Sviridenok A.I. [GPS - tracker - logger for sensors of environmental monitoring systems]. VII international scientific and practical conference "Innovative technologies, automation and mechatronics in machine and instrument engineering". Minsk, 2019, pp. 51-53 (in Russian).
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