Environmental Monitoring and Controlling System for Mushroom Farm with Online Interface

Marzuki, Arjuna; Ying, Soh Yan

doi:10.5121/ijcsit.2017.9402

Cited by 18 publications

(15 citation statements)

References 4 publications

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“…After that, the ideal temperature for growth is around 10 to 25 °C, 85% to 92% RH (relative humidity), 600 ppm (million per million), and carbon dioxide fixation under 500 lux, 2,000 lux for 12 hours. Since dissimilar phases required a specific senescence, temperature, carbon dioxide, and the concentration of carbon dioxide, a framework with pre-determined conditions for different phases simplifies it to a Cordyceps sinensis mushroom farmers [38]. All these referenced functions do not allow checking and control through the graphical user interface.…”

Section: Prior Artmentioning

confidence: 99%

An internet of things enabled framework to monitor the lifecycle of Cordyceps sinensis mushrooms

Memoria

Shah

Anandaram

et al. 2023

IJECE

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Cordyceps sinensis is an edible mushroom found in high quantities in the regions of the Himalayas and widely considered in traditional systems of medicine. It is a non-toxic remedy mushroom and has a high measure of clinical medical benefits including cancer restraint, high blood pressure, diabetes, asthma, depression, fatigue, immune disorder, and many infections of the upper respiratory tract. The cultivation of this kind of mushroom is limited to the region of the Sikkim and to cultivate in the other regions of the country, they are need of investigation and prediction of cordyceps sinensis mushroom lifecycle. From the studies, it is concluded that the precision-based agriculture techniques are limitedly explored for the prediction and growth of Cordyceps sinensis mushrooms. In this study, an internet of things (IoT) inspired framework is proposed to predict the lifecycle of Cordyceps sinensis mushrooms and also provide alternate substrate to cultivate Cordyceps sinensis mushrooms in other parts of the country. As a part of lifecycle prediction, a framework is proposed in this study. According to the findings, an IoT sensor-based system with the ideal moisture level of the mushroom rack is required for the growth of Cordyceps sinensis mushrooms.

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Section: Prior Artmentioning

confidence: 99%

An internet of things enabled framework to monitor the lifecycle of Cordyceps sinensis mushrooms

Memoria

Shah

Anandaram

et al. 2023

IJECE

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“…Marzuki and Ying engineered an android device to monitor the real-time data of all environmental factors (including light intensity) in a mushroom farm using an IoT interface called "ThingSpeak" [39] . This control system included three different modes with specific sets of optimal conditions, according to the stage of mushroom growing.…”

Section: Information and Communication Technology (Ict)mentioning

confidence: 99%

Research progress on indoor environment of mushroom factory

Chen¹,

Liu²,

Xiao³

et al. 2022

International Journal of Agricultural and Biological Engineering

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Mushroom factory is an emerging production mode that is relied on facility and equipment by creating a suitable, steady, and uniform growing environment to accommodate the demand of edible fungus at each stage of growth. Therefore, an optimal range of key environmental factors (temperature, humidity, light, and CO 2 concentrations) in mushroom facilities is crucial to achieving satisfactory production rates. This research aimed to provide an overview of recent progress on indoor environmental studies of mushroom cultivation facilities from three perspectives, 1) the development of environmental monitoring and controlling systems; 2) the application of computer modelling in addressing indoor environmental issues; 3) the refinement of mushroom facility design, including structure and ventilation scheme. With the aid of cutting-edge technologies, accomplishments have been made in developing smart farming systems that facilitate real-time recording of environmental parameters and automatic regulation of equipment, which helps the establishment of growth models for specific mushroom species. Computational Fluid Dynamics (CFD) modelling has been adopted by researchers to investigate indoor airflow patterns and assess the distribution of critical environmental parameters. Studies have been conducted to modify the design of mushroom facilities to improve the performance in structural stability, ventilation efficiency, and internal environmental condition. However, some existing problems still need further investigations, such as the lack of design guidelines, energy-saving strategies, and Artificial Intelligent (AI) quality control. Therefore, this overview was expected to provide constructive insights for future studies in addition to references of previous studies.

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“…Sektor industri, sistem pengamatan suhu dan kelembaban diaplikasikan pada proses penyimpanan buah jeruk (Akinola et al, 2015), pematangan keju (Desgraha, 2015) dan pengamatan suhu yang diterapkan pada proses penyimpanan CPO (Hafiz et al, 2016). Sistem pengamatan suhu dan kelembaban udara di sektor teknologi tepat guna diaplikasikan pada mesin pengering gabah (Khalil, 2015), budidaya jamur (Marzuki & Ying, 2017), penetas telur (Kyeremeh & Peprah, 2017) dan green house (Sutar, Sakharpe & Mali, 2016). Akinola et al, (2015) melakukan penelitian pembuatan sistem monitoring suhu dan kelembaban yang diimplementasikan pada proses penyimpanan buah jeruk.…”

Section: Pendahuluanunclassified

“…Sistem ini telah berhasil memantau perubahan suhu dan kelembaban yang telah diatur pada 33,5°C dan 51,5% melalui LCD 16x2 karakter. Marzuki & Ying, (2017) Penelitian ini memfokuskan pada pembuatan alat ukur suhu dan kelembaban udara yang diterapkan pada sistem pemanas tandan buah segar kelapa sawit (TBS). Sistem pemantauan suhu dilakukan dengan memposisikan sensor LM35 Waterproof di dalam ruang kontrol udara, sedangkan pemantauan suhu dan kelembaban dilakukan dengan menempatkan sensor SHT11 di dalam chamber.…”

Section: Pendahuluanunclassified

Desain dan Pabrikasi Alat Ukur Suhu dan Kelembaban Berbasis Modul Mikrokontroler ATMega 16A-PU

Santoso¹,

Sugriwan²,

Fahrudin³

et al. 2022

JFF

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ABSTRAK-Desain dan pabrikasi alat ukur suhu dan kelembaban menggunakan mikrokontroler ATMega 16A-PU telah direalisasikan pada sistem pemanas TBS. Alat ukur suhu dan kelembaban melipiuti catu daya, pengikut tegangan, sensor SHT11, sensor LM35 Waterproof, LCD 20x4 karakter dan mikrokontroler ATMega 16A-PU. Sistem pemanas TBS terdiri dari steam, boiler, air control room dan chamber. Sistem ini dapat direalisasikan dengan menempatkan sensor LM35 Waterproof dalam ruang kontrol udara dan sensor SHT11 di dalam chamber. Alat ukur ini dilengkapi dengan perangkat lunak akuisisi data menggunakan program Delphi 7.0 berfungsi untuk menampilkan data pengukuran secara real-time dan disimpan secara otomatis ke Excel dan database. Proses pengujian dilakukan dengan cara mengalirkan uap air yang dihasilkan dari boiler ke dalam ruang kontrol udara. Nilai rata-rata kesalahan pembacaan alat ukur standar dengan alat ukur buat didapatkan, sensor LM35 Waterproof dengan rentang pengukuran 20−90ºC adalah 1,22ºC. Sedangkan pada sensor SHT11, nilai error pembacaan suhu dan kelembaban dengan masing-masing nilai rentang pengukuran 20−90ºC dan 40−90% adalah 1,04°C dan 4,04%.

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Environmental Monitoring and Controlling System for Mushroom Farm with Online Interface

Abstract: ABSTRACT

Cited by 18 publications

References 4 publications

An internet of things enabled framework to monitor the lifecycle of Cordyceps sinensis mushrooms

An internet of things enabled framework to monitor the lifecycle of Cordyceps sinensis mushrooms

Research progress on indoor environment of mushroom factory

Desain dan Pabrikasi Alat Ukur Suhu dan Kelembaban Berbasis Modul Mikrokontroler ATMega 16A-PU

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