000 03374nam a22002777a 4500
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040 _aTUPM
_bEnglish
_cTUPM
_dTUPM
_erda
050 _aBTH TK 870
_bJ47 2023
100 _aJereza, Arnold, Magboo
_eauthor
245 _aDevelopment of micro-controller-based aeroponic system/
_cArnold Magboo Jereza .--
260 _aManila:
_bTechnological University of the Philippines,
_c2023.
300 _axiii, 140pages:
_c29cm.
336 _2rdacontent
337 _2rdamedia
338 _2rdacarrier
500 _aBachelor's thesis
502 _aCollege of Industrial Technology .--
_bBachelor of Technology major in Electronics Engineering Technology:
_cTechnological University of the Philippines,
_d2023.
504 _aIncludes bibliographic references and index.
520 _aThe project study, Development of Microcontroller-Based Aeroponic System, was designed to monitor, detect, and provide efficiency for modern technology when it comes to farming. The automation of the features of the project is done coded in the microcontroller NodeMCU. The prototype is programmed to switch on or off the attached devices every time it goes beyond the set limit or value. There are smart sensors for proper detection of temperature, humidity, light intensity, and water level. There are air coolers and Peltier cooling systems to maintain the desired temperature. The LED light that provides light frequency needed by the plants to stimulate photosynthesis. The misting process is intended to achieve the desired humidity and provide proper aeration for plants. There is a relay that acts as a switch to properly turn "ON" or "OFF" the specific device. The LCD I2C driver provides the actual display of the parameters inside the prototype. The CCTV camera is used to monitor and see the plants even when the user is away. The Blynk Application shows real-time readings of the parameters when online or connected. The project was created using local-quality materials to ensure its durability. It was tested and validated in terms of its hardware components, program execution, and Blynk application interface and responses. All of the tests were performed and met the expected outcomes. Thus, all the evaluation results passed. It was evaluated by 25 respondents, composed of five Experts, five Agriculturists, and fifteen Farmers in Sariaya, Quezon Province. and was assessed using Likert’s scale and descriptive interpretation, which used the TUP evaluation instrument to get the mean for functionality, aesthetics, workability, durability, economy, and safety. The grand mean obtained was 4.51 out of 5, which is described as "Highly Acceptable". The study concluded based on its findings and results that (1) the prototype can grow strawberries aeroponically; (2) the project is highly functional and recommended for small-scale businesses not only to farmers but also to simple people like us; (3) the use of local and cheap yet high-quality materials maintains the project's quality and efficiency; and (4) the advice and recommendations of panels and technical experts contributed to the project's feasibility.
650 _aElectronic engineering
650 _aMicrocontroller
650 _aAeroponic system
942 _2lcc
_cBTH CIT
_n0
999 _c29622
_d29622