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Sistem Mitigasi Bencana Banjir di Kota Manado Berbasis IoT Ronny Katuuk; Johan Makal; Johan Pongoh; Donald Noya
Prosiding Industrial Research Workshop and National Seminar Vol 11 No 1 (2020): Prosiding 11th Industrial Research Workshop and National Seminar (IRWNS)
Publisher : Politeknik Negeri Bandung

Show Abstract | Download Original | Original Source | Check in Google Scholar | Full PDF (731.475 KB) | DOI: 10.35313/irwns.v11i1.1989

Abstract

Debit air yang tidak terkontrol karena curah hujan yang ekstrim dapat berpotensi terjdinya banjir. Saat terjadinya banjir, tak jarang berdampak pada kerugian, baik kerugian materi maupun kerugian jiwa. Saat ini di kota manado khususnya pada bantaran kali daerah aliran sungai (DAS) Tondano, telah terpasang suatu sistem yang dapat memantau ketinggian air pada DAS Tondano melalui kamera yang terpasang dan terintegrasi dengan sistem smart city kota manado, dimana proses pemantauan ketinggian air yang berpotensi terjadinya banjir dilakukan oleh operator, dan jika ketinggian air yang terpantau telah masuk pada level siaga 1, maka hanya operator saja yang mengetahuinya, sehingga informasi akan terjadinya banjir tidak di ketahui oleh masyarakat yang tinggal di bantaran DAS Tondano. Penelitian ini bertujuan membuat suatu sistem yang dapat mendeteksi terjadinya banjir berbasis IoT, dengan memanfaatkan sensor hujan sebagai media pendeteksi terjadinya hujan dan sensor ultrasonic sebagai media pendeteksi ketinggian permukaan air sebagai penginformasi terjadinya banjir. Data dari kedua sensor tersebut akan diolah oleh mikrokontroler, selanjutnya dikirimkan ke web server melalui komunikasi wifi. Informasi terjadinya banjir dapat dipantau melalui smartphone android. Dari hasil pengujian yang dilakukan, didapatkan hasil bahwa saat ketinggian air telah lebih dari 5 cm, maka sistem akan menginformasikan lewat pengiriman alert ke smartphone bahwa status berada pada siaga 3. saat ketinggian air telah lebih dari 10 cm, maka sistem akan menginformasikan lewat pengiriman alert ke smartphone bahwa status berada pada siaga 2. saat ketinggian air telah lebih dari 12 cm, maka sistem akan menginformasikan lewat pengiriman alert ke smartphone bahwa status berada pada siaga 1.
Pemanfaatan ESP32 Pada Sistem Keamanan Rumah Tinggal Berbasis IoT Ali Ramschie; Johan Makal; Ronny Katuuk; Veny Ponggawa
Prosiding Industrial Research Workshop and National Seminar Vol 12 (2021): Prosiding 12th Industrial Research Workshop and National Seminar (IRWNS)
Publisher : Politeknik Negeri Bandung

Show Abstract | Download Original | Original Source | Check in Google Scholar | Full PDF (460.036 KB)

Abstract

Pemanfaatan ESP32 Pada Sistem Keamanan Rumah Tinggal Berbasis IoT
DESIGN OF AN IOT-BASED SOLAR PHOTOVOLTAIC IRRIGATION PUMPING SYSTEM FOR RAINFED FARMING IN KEMBANG SARI VILLAGE Wayan Pasek Resti Awan; Fabiano Yanel Ayawaila; I Gede Para Atmaja; Johan Makal; Siti Maisaroh
EDUCATIONE Volume 4, Issue 2, July 2026
Publisher : CV. TOTUS TUUS

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.59397/edu.v4i2.257

Abstract

Rainfed agriculture is highly vulnerable to rainfall variability and limited irrigation infrastructure, resulting in unstable agricultural production, particularly during prolonged dry periods. This study aimed to develop a detailed engineering design for an integrated solar-powered irrigation system equipped with Internet of Things monitoring for rainfed farmland in Kembang Sari Village. The study employed a research-and-development approach focusing on electrical-load analysis, photovoltaic and battery sizing, pump and reservoir configuration, hydraulic-system design, and sensor-based monitoring architecture. The proposed system integrates photovoltaic modules, a solar charge controller, lithium iron phosphate batteries, an inverter, a 1.5-hp irrigation pump, a water reservoir, and sensors for soil moisture, water level, flow rate, battery condition, and pump status. The results showed a total connected load of 1,156 W and a daily energy requirement of approximately 6,019 Wh. Considering an overall system efficiency of 80% and five peak-sun hours per day, the required generation capacity was estimated at 7,523.75 Wh/day. The recommended configuration consists of seven 250-Wp photovoltaic modules with a total capacity of 1.75 kWp, a minimum 50-A charge controller, a 6-kW inverter, and two 48-V 100-Ah lithium iron phosphate batteries. The hydraulic subsystem uses a pump with an estimated 12-m head and a 36-m³ reservoir to support a target water supply of approximately 36 m³/day. The integrated monitoring system enables remote supervision, automatic protection, and data-informed irrigation management. The design provides a technically coherent basis for prototype construction, although field validation is required to assess actual solar generation, pump performance, water adequacy, sensor reliability, maintenance requirements, and economic feasibility.
DESIGNING A SCADA-BASED MONITORING AND CONTROL SYSTEM FOR A SOLAR-POWERED LIVESTOCK FEED PRODUCTION MACHINE Yosua Surya Karuh; I Gede Para Atmaja; Johan Makal; Siti Maisaroh
EDUCATIONE Volume 4, Issue 2, July 2026
Publisher : CV. TOTUS TUUS

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.59397/edu.v4i2.258

Abstract

Livestock feed production in small- and medium-scale farming still relies heavily on manual control and limited energy monitoring, resulting in operational inefficiency, higher production costs, and difficulty in tracking real-time electricity consumption. This study aimed to design a Supervisory Control and Data Acquisition (SCADA)-based monitoring and control system for a livestock feed production machine integrated with a solar photovoltaic power system. The research employed a Research and Development approach, involving problem identification, literature review, descriptive field analysis, hardware and software design, PLC ladder diagram development, and Human Machine Interface dashboard design. The proposed system integrates key SCADA components, including PLC, HMI, sensors, power meter, communication modules, and photovoltaic energy support. The design results show that the system can monitor electrical parameters such as voltage, current, power, energy consumption, and frequency in real time. The HMI dashboard enables operators to access data through tables, graphs, historical records, control menus, and alarm threshold settings. The study concludes that integrating SCADA with solar-powered livestock feed production technology can improve monitoring accuracy, operational efficiency, system safety, and energy sustainability. This research contributes to the development of smart farming technology by offering a conceptual model for automated, renewable-energy-based production systems. Future studies should focus on prototype implementation, field testing, cost-benefit analysis, and performance evaluation under different livestock production conditions.