scholarly journals RANCANG BANGUN KONTROL KADAR AMONIA DAN PH AIR BERBASIS ARDUINO PADA BUDIDAYA IKAN

Otopro ◽  
2021 ◽  
pp. 27-32
Author(s):  
Dimasanggie Elul Talanta

In the fish pond ecosystem there are various factors that can inhibit fish growth or even kill fish,  one of which is the water factor,  the water itself has various factors,  one of which is the quality of PH levels and amonia levels. Therefore,  this paper discusses the design and manufacture of a control device for PH levels and amonia levels to make it easier for farmers to check PH levels and amonia levels in the pond. This control device uses a DFROBOT V.2 sensor as a PH sensor and a DS18B20 sensor as a temperature sensor as well as an Arduino UNO controller. The method used to control amonia is by comparing the data from PH and the temperature in the pool water,  this tool will work if the amonia level is higher. from 0.8ppm by activating the aerator to keep the amonia in the pool water normal. Meanwhile,  to maintain the PH of the water more than 6 and less than 7,  it is necessary to add pond water by activating the water pump. The results of this study can be used as a reference for future research for the development of Arduino Uno-based PH and amonia level control devices.

2020 ◽  
Vol 3 (1) ◽  
pp. 43-46
Author(s):  
Rian Ari Wibowo ◽  
Mochammad Djaohar ◽  
Nur Hanifah Yuninda

Abstract. The research aimed to design and make motor control device to keep pH of catfish pond water using Arduino Uno pH and ultrasonic sensor. Research using Research and Development (Research and Development) which includes design, system requirement analysis, design, testing and system implementation. Research consists of three main subsystems, namely input, system and output. Sub-system consists of pH sensor, Ultrasonic and Flowmeter to manage the automation process in maintaining water quality in catfish pond contained in Arduino Uno microcontroller. The output subsystems are AC and DC motors for dewatering, filling and checking samples to be displayed on the LCD. Based on the results of the over all testing that has been done, it is known that the motor control device to maintain the pH of the water catfish pond using pH and ultrasonic sensor based Arduino Uno able to maintain the condition of catfish pond water in the conditions suitable for catfish habitat, that is with pH 6.5 - 8. Keywords: Catfish (Clariasspp), pH Stabilizer, Arduino Uno, pH Sensor, Ultrasonic. Abstrak Penelitian bertujuan untuk merancang dan membuat  Alat pengendalian motor untuk menjaga pH air kolam ikan lele menggunakan sensor pH dan ultrasonic berbasis Arduino Uno. Penelitian menggunakan Metode Penelitian dan Pengembangan (Research and Development) yang meliputi perancangan, analisis kebutuhan sistem, perancangan, pengujian dan implementasi sistem. Penelitian terdiri dari 3 subsistem utama, yaitu input, sistem dan output.subsistem input terdiri dari sensor pH, Ultrasonic dan Flowmeter untuk mengatur proses otomatisasi  dalam menjaga kualitas air pada kolam lele yang terdapat didalam mikrokontroler Arduino Uno. Subsistem outputnya adalah motor AC dan DC untuk melakukan pengurasan, pengisian dan pengecekan sampel yang akan di tampilkan pada LCD. Berdasarkan hasil pengujian secara keseluruhan yang telah dilakukan, diketahui bahwa alat pengendalian motor untuk menjaga pH air kolam ikan lele menggunakan sensor pH dan ultrasonic berbasis Arduino Uno mampu menjaga kondisi air kolam lele dalam kondisi sesuai bagi habitat lele, yaitu dengan pH 6,5 – 8.


2014 ◽  
Vol 953-954 ◽  
pp. 123-127
Author(s):  
Rong Xia Sun ◽  
Xiao Ning Sun ◽  
Shuo Nan Wang

In this paper, the design is with the single chip microcomputer as the core of automatic tracking controller. The system is mainly composed of the signal acquisition part, the signal conditioning part, a control circuit and a drive circuit. The signal collection circuit composed of photosensitive resistance sensors to collect light signal, signal conversion circuit with voltage follower LM324 convert the change of light intensity to the change of the voltage, through the voltage comparator LM393 produce high and low level control stepping motor rotation; Control circuit use the AT89S52 as the main control device, output different control signals to the driving circuit; Driving circuit use the ULN2003 as driver stepper motor. Is obtained by simulation debugging, physical test, the error rate is less than 5%, in order to realize the efficient utilization of solar energy.


ELKHA ◽  
2020 ◽  
Vol 12 (2) ◽  
pp. 99
Author(s):  
Ali Basrah Pulungan ◽  
Aditya Manggala Putra ◽  
Hamdani Hamdani ◽  
Hastuti Hastuti

This study aims to make a tool that can monitor the condition of the pH level and water turbidity in fish ponds so that fish growth can be maximized. This fish pond has a control system that can be controlled automatically. The purpose of using this control is to get maximum results and to save water use in fish ponds This tool has two sensors consisting of a TDS-10 sensor which functions to detect the turbidity level of water in fish ponds and a pH sensor which functions to detect the pH level of the water in the fish pond. Comparison with previous research, the application of fish ponds with a size of 3 x 4 meters so that observations about how the tools work and the success rate of the tools can be observed more intensively. In addition, the ESP8266 wifi module is supported as a collaboration monitoring center without the need to come to the location directly Based on the test results of the TDS-10 sensor and pH sensor that have been carried out in the fish pond, the test results show good performance with the proportion of detection error of the TDS-10 sensor (4.8 NTU) to the set point (5 NTU) is 4%.


2021 ◽  
Vol 10 (1) ◽  
pp. 1
Author(s):  
Bintara Putra Candra Bareta ◽  
Alex Harijanto ◽  
Maryani Maryani

Water quality in the process of ornamental fish cultivation plays an important role in creating an environment of life that is in accordance with the needs of ornamental fish. Acidity (pH) and water temperature are one of the important factors of ornamental fish growth. The purpose of this study is to describe how the design system builds arduino-based humidity and pH temperature measuring instruments. Review the validity of moisture temperature and water pH. Monitor the humidity temperature and pH of ornamental fish aquarium water to know the results of the same data with liturgy. This research is a research and development research, conducted in the Laboratory of Physics Education Study FKIP Jember University. The research time was carried out for four months. The samples used in this study were ornamental carp. Based on the analysis of data obtained, it can be concluded that, (1) The work of pH, temperature, and spouting systems based on Arduino Uno is made with sen0161-V2, DS18B20 and DHT-11 sensors and data appearance media namely LCD. (2) Rakaian system is then calibrated to state that the system can be used properly. Calibration includes Arduino-based pH, temperature and Humidity sensor calibration as well as LCD testing. (3) The data that has been found by the researcher and the data in the literature has a match.   Keywords: water quality, Acidity (pH), water temperature, arduino-based.


Jurnal Teknik ◽  
2017 ◽  
Vol 6 (2) ◽  
Author(s):  
Triyono Suryo Atmojo

Technological developments have left people tend to get used to working with the aid of automatic devices. The research that led to the automation has also been developed such as the detection of acid-base degree. The detector uses an Arduino Uno microcontroller components as the brains to run the program, and the pH sensor (Power of Hydrogen) as input that detect the state of a solution. In this solution and research tool used can be planned a new system. The system uses a microcontroller as a liaison between chemistry with the world of electrical technology. Produce percentage is almost close to perfect, as evidenced by the accuracy of the output of which is detected by a detector. In this study, the authors designed a detector-based acid-base arduino uno. The aim is to produce an acid-base detector with high accuracy than litmus paper sold in the market. With the alkaline acid detection devices are expected to ease the food industry, restaurants, and households in the detection of acid-base automatically. With an accuracy of ± 0.5 pH (25˚C).


2011 ◽  
Vol 10 (1) ◽  
pp. 31-42 ◽  
Author(s):  
James E. Amburgey ◽  
Kimberly J. Walsh ◽  
Roy R. Fielding ◽  
Michael J. Arrowood

Cryptosporidium has caused the majority of waterborne disease outbreaks in treated recreational water venues in the USA for many years running. This research project evaluated some common US swimming pool filters for removing Cryptosporidium oocysts, 5-µm diameter polystyrene microspheres, and 1-µm diameter polystyrene microspheres. A 946 L hot tub with interchangeable sand, cartridge, and precoat filters was used at room temperature for this research. Simulated pool water for each experiment was created from Charlotte, NC (USA) tap water supplemented with alkalinity, hardness, chlorine, and a mixture of artificial sweat and urine. Precoat (i.e., diatomaceous earth and perlite) filters demonstrated pathogen removal efficiencies of 2.3 to 4.4 log (or 99.4–99.996%). However, sand and cartridge filters had average Cryptosporidium removals of 0.19 log (36%) or less. The combined low filter removal efficiencies of sand and cartridge filters along with the chlorine-resistant properties of Cryptosporidium oocysts could indicate a regulatory gap warranting further attention and having significant implications on the protection of public health in recreational water facilities. The 5-µm microspheres were a good surrogate for Cryptosporidium oocysts in this study and hold promise for use in future research projects, field trials, and/or product testing on swimming pool filters.


1991 ◽  
Vol 68 (8) ◽  
pp. 670
Author(s):  
Leandro Victoria ◽  
Juan Ortega-Navas ◽  
Jose A. Ibanez

2021 ◽  
Vol 2 (4) ◽  
Author(s):  
Refni Wahyuni ◽  
Jeri Trio Sentana ◽  
Muhardi Muhardi ◽  
Yuda Irawan

DIELEKTRIKA ◽  
2020 ◽  
Vol 7 (2) ◽  
pp. 82
Author(s):  
Budi Harsono

Sistem hidroponik berbasis Internet of Things yang dirancang adalah sistem hidroponik yang dilengkapi perangkat untuk memantau suhu, pH dan ketinggian air melalui media internet. Perangkat keras terdiri dari sensor pH, sensor suhu, sensor ultrasonik, relay dan pompa air yang dipasang pada kit hidroponik. Arduino sebagai mikrokontroler untuk memproses data yang dihubungkan dengan modul Ethernet Shield agar dapat terhubung dengan internet, ThingSpeak sebagai platform untuk menyimpan data dari Arduino, serta Smartphone untuk menampilkan hasil dan akan digunakan untuk memantau suhu dan pH air. Dari hasil pengujian, alat ini mampu bekerja secara otomatis berdasarkan hasil pembacaan sensor dan hasilnya dapat dipantau jarak jauh melalui smartphone tanpa adanya batasan jarak selama terhubung dengan jaringan internet. Hasil pengujian pengiriman data dari Arduino Uno ke Ethernet Shield, ThingSpeak, dan aplikasi ThingView dapat berjalan baik, dengan waktu pembacaan data minimal 22 detik, maksimal 24 detik.


Author(s):  
Nuris Dwi Setiawan ◽  
Indra Ava Dianta

Vannamei shrimp is a variety of shrimp that is very sensitive to changes in water quality, growth and life of vannamei shrimp which are directly affected by changes in temperature, salt content, dissolved oxygen, and pH (Hydrogen Potential) content in water. So far, vannamei shrimp cultivators know the quality of water by taking pond water samples with a certain period of time, uncertain natural conditions can make pond water quality change drastically if not maintained can inhibit growth or result in shrimp death.Making a monitoring system and controlling the quality of shrimp pond water using a water temperature sensor, salinity sensor, DO sensor and pH sensor installed on the Arduino Mega 2560 device, NodeMCU is used to receive and send data wirelessly, the system uses programming language c. This tool can be used to start the waterwheel automatically if it is within a certain threshold to maintain the temperature and dissolved oxygen in the pool water based on the value obtained from the sensor. The monitoring results obtained will be displayed to the user in real time through the interface and will be stored in the form of a text file on the storage media.


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