DEVELOPMENT OF A NEW GENERATION OF MAGNETIC CONTACT BASED ON HALL-EFFECT SENSOR
AbstractThis paper describes the development of a new generation of magnetic contact. The development of this new generation of the magnetic contact is a part of the research activity of the security engineering laboratory. The new generation of magnetic contact is based on the Hall-Effect Sensor and microcontroller unit. Older magnetic contacts use a simple reed relay with only two states – normally closed or normally opened. The combination of the Hall-Effect Sensor and microcontroller unit provides advanced possibilities such as a programmable level of magnetic field sensitivity, adding different communication modules, programmable inputs/outputs etc. The results of this paper explain proposal of the new generation of magnetic contact, which can be used not only as a part of intruder alarm systems but also as a part of smart homes and other autonomous systems. The content of the paper can be used for even deeper research and by security systems developers as well.
Bahreyni, B. (2006). Design, Modeling, Simulation, and Testing of Resonant Micromachined Magnetic Field Sensors. Winnipeg: The University of Manitoba.
Bilotti, A., Monreal, G., & Vig, R. (1997). Monolithic magnetic Hall sensor using dynamic quadrature offset cancellation. IEEE Journal of Solid-State Circuits, 829-836.
Kanda, Y., & Migitaka, M. (1976). Design consideration for Hall devices in Si IC. Physica Status Solidi, 41-44.
Kutaj, M. (2016). Testing of magnetic contacts, development of testing devices and considerable impact on planning physical security of buildings. Global Journal of Business, Economics and Management, 195-203.
Loflin, L. (n.d.). Ratiometric Hall Effect Sensors Arduino Interfacing. Retrieved 02 17, 2017, from Bristol Watch: http://www.bristolwatch.com/hall_effect/arduino_hall_effect.htm
Loveček, T. (2008). Present and future ways of physical property. Communications, 35-39.
Loveček, T., Veľas, A., & Ďurovec, M. (2015). Bezpečnostné systémy: poplachové systémy. Žilina, Slovenská republika: EDIS - vydavateľstvo ŽU.
Popovic, R. (2004). Hall Effect Devices. Bristol: Institute of Physics Publishing.
Randjelovic, Z. B., Kayal, M., Popovic, R., & Blanchard, H. (2002). Highly Sensitive Hall Magnetic Sensor Microsystem. IEEE JOURNAL OF SOLID-STATE CIRCUITS, 151-159.
Ripka, P. (2001). Magnetic sensors and magnetometers. London: Artech House.
STN EN 50131-2-6. (2014). Poplachové systémy. Elektrické zabezpečovacie a tiesňové systémy. Časť 2-6: Kontakty otvorenia (magnetické).
Veľas, A. (2010). Elektrické zabezpečovacie systémy. Žilina: EDIS - vydavateľstvo ŽU.
Veľas, A. (2015). Poplachové systémy: poplachové prenosové systémy a zariadenia. Žilina: EDIS - vydavateľstvo ŽU.
Veľas, A., & Kutaj, M. (2015). Elektrické zabezpečovacie a tiesňové poplachové systémy. Bezpečnostní technologie, systémy a management V., s. 250-260.
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