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PROTOTYPE TELEDISPLAY BERBASIS SHORT MESSAGE SERVICE (SMS) SINGKAT BERCATUDAYA LISTRIK TENAGA SURYA Iwa Sudradjat; Benny Nixon; Toto Supriyanto
Jurnal Poli-Teknologi Vol. 10 No. 2 (2011)
Publisher : Politeknik Negeri Jakarta

Show Abstract | Download Original | Original Source | Check in Google Scholar | Full PDF (203.805 KB) | DOI: 10.32722/pt.v10i2.3

Abstract

This study aims to apply the Short Message Service (SMS) technology and solar power for a teledisplay. This system is useful to display some of the information specified in those places as appropriate wirelessly. Teledisplay is capable of displaying information on a Light Emmisi Diode (LED) matrix display with a length of information that can be displayed as 8 characters. Methods of delivery of information using SMS-Global System Mobile (GSM) with supplied by solar power. In this way the system can be placed anywhere because it does not depend on resources Statics Electrical. The device comes with adjustment system which allows you to adjust the intensity of the light intensity generated by the LED display will be adjusted so that the flame with environmental light conditions. The system is controlled by the two processors, the first processor set acceptance of information sent from the mobile phone and displays the information to display. The second processor is used to control the intensity level of Solar Cell and display. System built capable of displaying information transmitted via GSM cell phone with the power supply is obtained from a 30 watt solar cell and battery with a capacity of 45 ampere hours. Such systems are able to operate for three days while the weather was overcast. Keywords: Prototype, Teledisplay, Short Message Service (SMS), Solar cell. ABSTRAK Penelitian ini bertujuan menerapkan teknologi SMS dan listrik tenaga surya untuk sebuah teledisplay. Sistem ini berguna untuk menampilkan beberapa informasi ditempat-tempat tertentu sesuai keperluannya secara nirkabel. Teledisplay yang dimaksud berkemampuan menampilkan informasi pada display LED matrik dengan panjang informasi yang dapat ditampilkan sebanyak 8 karakter. Metode penyampaian informasinya menggunakan sistem SMS-GSM dan kebutuhan dayanya dicatu dengan pembangkit listrik tenaga surya. Dengan cara seperti ini sistem dapat ditempatkan dimana saja karena tidak tergantung dengan jarak atau sumber daya PLN. Perangkat ini dilengkapi dengan sistem penyesuai intensitas yang berguna untuk mengatur intensitas cahaya yang dibangkitkan oleh LED sehingga nyala display akan disesuaikan dengan kondisi cahaya lingkungannya. Sistem ini diatur oleh dua prosesor. Prosesor pertama mengatur penerimaan informasi yang dikirim dari handphone dan menampilkan informasi tersebut ke display. Prosesor kedua digunakan untuk mengontrol PLTS dan tingkat intensitas display. Sistem yang dibangun mampu menampilkan informasi yang dikirimkan melalui HP-GSM dengan catu daya diperoleh dari solar cell sebesar 30 watt dan baterai berkapasitas 45 amper jam. Sistem seperti ini mampu beroperasi selama 3 hari walaupun cuaca mendung. Kata Kunci: Prototype, Teledisplay, Short Message Service (SMS), Solar cell.
Rancang Bangun Alat Pendeteksi Uap Vaping dan Asap Rokok Berbasis Internet of Things Terintegerasi Aplikasi Android Rifqi Fuadi Hasani; Benny Nixon; Alifa Humairah; Augita Yasmin
Spektral Vol. 4 No. 1 (2023): April 2023
Publisher : Politeknik Negeri Jakarta

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.32722/spektral.v4i1.5629

Abstract

Smoking is one of causes disease which especially on respiratory tract because the cigarette were content that is not good for body. Passive smoker is really made a loss for smoke/vapor that they inhaled. So therefore, smoke detector was created by using connection of WiFi that connected to ESP32 which sending data of detection  from MQ-2 sensor (detect content’s smoke of tobacco cigarette) and Adafruit sensor (detect content’s vapor of e-cigarette) to firebase that integrated by android software. This would faciliated for hotel firm because the hardware not only detect smoke of cigarette, but also vapor of vape will detected so guest that disobey the rules who using except cigarette will be fined which will be monitored by hotel’s employee remotely via android software. System of this hardware specifically only for once detected which if it detected, then green LED changed to yellow (e-cigarette) if the amount shows ≥ 25 ppm and/or red (tobacco cigarette) ) if the amount shows ≥ 0.05 ppm which followed by sound of buzzer and DC fan that will dispensed smoke/vapor out of room. Neutral room which was tested for 10 minutes produced a maximum of 0.03 ppm amount of detected smoke and 24 ppm amount of detected vapor. In the MQ-2 sensor experiment with a level of 1 burst it produces 0.42 ppm and delay of 2 seconds for the sensor to detect, in a room with a volume of 1050 m3 it returns clean with a delay of 11 seconds with amount of 0.04 ppm. In the Adafruit sensor experiment with a concentration of 1 burst it produces 33 ppm, a delay of 2 seconds for the sensor to detect, in a room with a volume of 1050 m3 it returns clean with a delay of 8 seconds with amount of 24 ppm.
Rancang Bangun Sistem Miniatur Smart Garden dengan Aplikasi Android Berbasis Internet of Things (IoT) Alvionita Pingkan; Indira Marasti; Benny Nixon
Spektral Vol. 4 No. 1 (2023): April 2023
Publisher : Politeknik Negeri Jakarta

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.32722/spektral.v4i1.5645

Abstract

Gardening is an activity widely practiced for the preservation of plants or simply as a hobby. However, gardening is still quite challenging for many people due to limited available land. Apart from land constraints, another inhibiting factor is the reliance on manual tasks, such as the watering process. Therefore, one solution that can be implemented is to create a miniature garden with a system that can control and monitor Soil Moisture, temperature, air humidity, and light intensity. The smart garden miniature system utilizes Arduino IDE software, an ESP32 module as the microcontroller, Soil Moisture sensors, DHT-22 sensors, an L298N motor driver to operate the water pump and exhaust fan, and relays connected to LED strips. This system is connected to an Internet of Things-based Android application. The results show that the control and monitoring system operates effectively, in line with the predetermined design.
Pengembangan Sistem Pemantauan Dan Pengendalian Daya Listrik Penyewa Kos Berbasis Lora Dengan Integrasi Android Putri, Khomala Ernia; Yenniwarti Rafsyam; Benny Nixon; Putri, Khomala; Molliyana Tota Angelica; Rifqi Fuadi Hasani; Shita Fitria Nurjihan; Irwan Prasetya
Jurnal Teknologi Informasi dan Ilmu Komputer Vol 12 No 4: Agustus 2025
Publisher : Fakultas Ilmu Komputer, Universitas Brawijaya

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.25126/jtiik.124

Abstract

Pengelolaan daya listrik di kamar kos sering kali menimbulkan ketidakadilan karena biaya listrik disamaratakan, meski pemakaian berbeda. Untuk mengatasi masalah ini, dirancang sebuah sistem pemantauan daya listrik dengan teknologi LoRa. Sistem ini memanfaatkan mikrokontroler ESP32, sensor PZEM-004T, LoRa, dan Arduino IDE. Data penggunaan daya listrik yang dikumpulkan oleh sensor dikirim ke pemilik kos melalui jaringan LoRa. Data penggunaan daya listrik dikirim melalui jaringan LoRa hingga 150 meter (RSSI -107 dBm) dalam kondisi NON-LOS dan 600 meter (RSSI -111 dBm) dalam kondisi LOS, kemudian diintegrasikan ke aplikasi Android untuk pengelolaan dan pemantauan daya listrik. Hasil pengujian menunjukkan akurasi 99%, menjadikan sistem ini solusi efektif dan efisien untuk pengelolaan daya listrik di kamar kos.   Abstract Electricity management in boarding rooms is often unfair because electricity costs are shared equally, even though each room uses different amounts of electricity. To address this issue, an electricity monitoring system was developed using LoRa technology. The system uses an ESP32 microcontroller, a PZEM-004T sensor, LoRa, and Arduino IDE. The sensor collects electricity usage data and sends it to the landlord via the LoRa network. This data can be transmitted up to 150 meters (RSSI -107 dBm) in NON-LOS conditions and 600 meters (RSSI -111 dBm) in LOS conditions. The system is also integrated with an Android application for easier management and monitoring. Testing results show an accuracy of 99%, making this system an effective and efficient solution for managing electricity in boarding rooms.