{"title":"在螺杆涡轮机型微型水电站控制和监测系统中实施 SCADA 系统","authors":"","doi":"10.59018/032449","DOIUrl":null,"url":null,"abstract":"Screw turbine-type micro-hydro power plants are still controlled manually by humans when there is a change in\nthe electrical load on the generator output. If there is a change in the electrical load, the generator output voltage will\nchange, thus affecting the rotation of the turbine being used. In this case, humans are needed to manually regulate the flow\nof water entering the turbine to maintain the stability of the generator output voltage by controlling the sluice gate. The\nwater discharge entering the screw turbine will rotate the generator through a belt/gearbox pulley transmission, thus\nproducing an electrical voltage at the generator output. To maintain the stability of the generator output voltage, it is\nnecessary to control the water discharge entering the screw turbine. The expected goal of this research is to design a control\nsystem for a screw turbine type microhydro power plant to stabilize the generator output voltage and monitor the output of\na screw turbine type generator using a SCADA (Supervisory Control, and Data Aquisition) system. The method used is the\nresearch and development method, namely the system design stage based on secondary data that has been collected, where\nthe system design includes hardware design and software design, followed by making hardware such as control panels and\ndevices. Software, which includes display design and leader diagrams and testing, is carried out by testing the system on\nsoftware, hardware, and overall system testing. From the results of the discussion and analysis, the screw turbine type\nmicrohydro power plant control design system was created, a load control system consisting of 6 groups and sluice gate\nopening control that uses an ultrasonic sensor to determine the water level. With the results of controlling the sluice gate at\na door opening of 30 mm, the generator voltage is 18.42 Volts DC, DC current is 0.0 Ampere at a load of 0 watts, when the\nload is 30 watts the generator voltage decreases by 18.40 volts, current is 1.37 Ampere. Through the on-line monitoring\nsystem, electrical parameters are obtained which are displayed on the SCADA system by looking in real-time at the history\nof DC voltage and DC current, DC power, and DC energy generated by the screw turbine-type DC generator. The voltage\nread is 18. 57 volts, current 1.37 Amperes, DC electrical power is 25.4 watts with a DC light load of 30 watts.","PeriodicalId":38652,"journal":{"name":"ARPN Journal of Engineering and Applied Sciences","volume":null,"pages":null},"PeriodicalIF":0.0000,"publicationDate":"2024-05-15","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"SCADA implementation in microhydro power plant control and monitoring systems of screw turbine type\",\"authors\":\"\",\"doi\":\"10.59018/032449\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"Screw turbine-type micro-hydro power plants are still controlled manually by humans when there is a change in\\nthe electrical load on the generator output. If there is a change in the electrical load, the generator output voltage will\\nchange, thus affecting the rotation of the turbine being used. In this case, humans are needed to manually regulate the flow\\nof water entering the turbine to maintain the stability of the generator output voltage by controlling the sluice gate. The\\nwater discharge entering the screw turbine will rotate the generator through a belt/gearbox pulley transmission, thus\\nproducing an electrical voltage at the generator output. To maintain the stability of the generator output voltage, it is\\nnecessary to control the water discharge entering the screw turbine. The expected goal of this research is to design a control\\nsystem for a screw turbine type microhydro power plant to stabilize the generator output voltage and monitor the output of\\na screw turbine type generator using a SCADA (Supervisory Control, and Data Aquisition) system. The method used is the\\nresearch and development method, namely the system design stage based on secondary data that has been collected, where\\nthe system design includes hardware design and software design, followed by making hardware such as control panels and\\ndevices. Software, which includes display design and leader diagrams and testing, is carried out by testing the system on\\nsoftware, hardware, and overall system testing. From the results of the discussion and analysis, the screw turbine type\\nmicrohydro power plant control design system was created, a load control system consisting of 6 groups and sluice gate\\nopening control that uses an ultrasonic sensor to determine the water level. With the results of controlling the sluice gate at\\na door opening of 30 mm, the generator voltage is 18.42 Volts DC, DC current is 0.0 Ampere at a load of 0 watts, when the\\nload is 30 watts the generator voltage decreases by 18.40 volts, current is 1.37 Ampere. Through the on-line monitoring\\nsystem, electrical parameters are obtained which are displayed on the SCADA system by looking in real-time at the history\\nof DC voltage and DC current, DC power, and DC energy generated by the screw turbine-type DC generator. The voltage\\nread is 18. 57 volts, current 1.37 Amperes, DC electrical power is 25.4 watts with a DC light load of 30 watts.\",\"PeriodicalId\":38652,\"journal\":{\"name\":\"ARPN Journal of Engineering and Applied Sciences\",\"volume\":null,\"pages\":null},\"PeriodicalIF\":0.0000,\"publicationDate\":\"2024-05-15\",\"publicationTypes\":\"Journal Article\",\"fieldsOfStudy\":null,\"isOpenAccess\":false,\"openAccessPdf\":\"\",\"citationCount\":\"0\",\"resultStr\":null,\"platform\":\"Semanticscholar\",\"paperid\":null,\"PeriodicalName\":\"ARPN Journal of Engineering and Applied Sciences\",\"FirstCategoryId\":\"1085\",\"ListUrlMain\":\"https://doi.org/10.59018/032449\",\"RegionNum\":0,\"RegionCategory\":null,\"ArticlePicture\":[],\"TitleCN\":null,\"AbstractTextCN\":null,\"PMCID\":null,\"EPubDate\":\"\",\"PubModel\":\"\",\"JCR\":\"Q4\",\"JCRName\":\"Engineering\",\"Score\":null,\"Total\":0}","platform":"Semanticscholar","paperid":null,"PeriodicalName":"ARPN Journal of Engineering and Applied Sciences","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.59018/032449","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"Q4","JCRName":"Engineering","Score":null,"Total":0}
SCADA implementation in microhydro power plant control and monitoring systems of screw turbine type
Screw turbine-type micro-hydro power plants are still controlled manually by humans when there is a change in
the electrical load on the generator output. If there is a change in the electrical load, the generator output voltage will
change, thus affecting the rotation of the turbine being used. In this case, humans are needed to manually regulate the flow
of water entering the turbine to maintain the stability of the generator output voltage by controlling the sluice gate. The
water discharge entering the screw turbine will rotate the generator through a belt/gearbox pulley transmission, thus
producing an electrical voltage at the generator output. To maintain the stability of the generator output voltage, it is
necessary to control the water discharge entering the screw turbine. The expected goal of this research is to design a control
system for a screw turbine type microhydro power plant to stabilize the generator output voltage and monitor the output of
a screw turbine type generator using a SCADA (Supervisory Control, and Data Aquisition) system. The method used is the
research and development method, namely the system design stage based on secondary data that has been collected, where
the system design includes hardware design and software design, followed by making hardware such as control panels and
devices. Software, which includes display design and leader diagrams and testing, is carried out by testing the system on
software, hardware, and overall system testing. From the results of the discussion and analysis, the screw turbine type
microhydro power plant control design system was created, a load control system consisting of 6 groups and sluice gate
opening control that uses an ultrasonic sensor to determine the water level. With the results of controlling the sluice gate at
a door opening of 30 mm, the generator voltage is 18.42 Volts DC, DC current is 0.0 Ampere at a load of 0 watts, when the
load is 30 watts the generator voltage decreases by 18.40 volts, current is 1.37 Ampere. Through the on-line monitoring
system, electrical parameters are obtained which are displayed on the SCADA system by looking in real-time at the history
of DC voltage and DC current, DC power, and DC energy generated by the screw turbine-type DC generator. The voltage
read is 18. 57 volts, current 1.37 Amperes, DC electrical power is 25.4 watts with a DC light load of 30 watts.
期刊介绍:
ARPN Journal of Engineering and Applied Sciences (ISSN 1819-6608) is an online peer-reviewed International research journal aiming at promoting and publishing original high quality research in all disciplines of engineering sciences and technology. All research articles submitted to ARPN-JEAS should be original in nature, never previously published in any journal or presented in a conference or undergoing such process across the globe. All the submissions will be peer-reviewed by the panel of experts associated with particular field. Submitted papers should meet the internationally accepted criteria and manuscripts should follow the style of the journal for the purpose of both reviewing and editing. Our mission is -In cooperation with our business partners, lower the world-wide cost of research publishing operations. -Provide an infrastructure that enriches the capacity for research facilitation and communication, among researchers, college and university teachers, students and other related stakeholders. -Reshape the means for dissemination and management of information and knowledge in ways that enhance opportunities for research and learning and improve access to scholarly resources. -Expand access to research publishing to the public. -Ensure high-quality, effective and efficient production and support good research and development activities that meet or exceed the expectations of research community. Scope of Journal of Engineering and Applied Sciences: -Engineering Mechanics -Construction Materials -Surveying -Fluid Mechanics & Hydraulics -Modeling & Simulations -Thermodynamics -Manufacturing Technologies -Refrigeration & Air-conditioning -Metallurgy -Automatic Control Systems -Electronic Communication Systems -Agricultural Machinery & Equipment -Mining & Minerals -Mechatronics -Applied Sciences -Public Health Engineering -Chemical Engineering -Hydrology -Tube Wells & Pumps -Structures