Design of Rat Trap based on Ultrasonic Waves using Bluetooth Technology

Sheela, J. Joselin Jeya; Logeshwaran, M.; Saida, Shaik; J, Subhashini D; K, Sivasambavi; R, Shalini

doi:10.1109/icaaic56838.2023.10141014

Cited by 1 publication

(1 citation statement)

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“…The monitoring process assumes a crucial function within the context of pheromone-based insect prevention techniques. In trap-based systems frequently employed for pest monitoring, digital images are subjected to processing by human professionals to detect and quantify pests [5]. The term "manual" refers to a document or guide that provides instructions or information on how the counting process is labour-intensive, time-consuming, expensive, and prone to errors, hindering real-time efficiency.…”

Section: Introductionmentioning

confidence: 99%

Multi-Features and Multi-Deep Learning Networks to identify, prevent and control pests in tremendous farm fields combining IoT and pests sound analysis

Ali,

Sharma,

Dhanaraj

2024

Preprint

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The agriculture sectors, which account for approximately 50% of the worldwide economic production, are the fundamental cornerstone of each nation. The significance of precision agriculture cannot be understated in assessing crop conditions and identifying suitable treatments in response to diverse pest infestations. The conventional method of pest identification exhibits instability and yields subpar levels of forecast accuracy. Nevertheless, the monitoring techniques frequently exhibit invasiveness, require significant time and resources, and are susceptible to various biases. Numerous insect species can emit distinct sounds, which can be readily identified and recorded with minimal expense or exertion. Applying deep learning techniques enables the automated detection and classification of insect sounds derived from field recordings, hence facilitating the monitoring of biodiversity and the assessment of species distribution ranges. The current research introduces an innovative method for identifying and detecting pests through IoT-based computerized modules that employ an integrated deep-learning methodology using the dataset comprising audio recordings of insect sounds. This included techniques, the DTCDWT method, Blackman-Nuttall window, Savitzky-Golay filter, FFT, DFT, STFT, MFCC, BFCC, LFCC, acoustic detectors, and PID sensors. The proposed research integrated the MF-MDLNet to train, test, and validate data. 9,600 pest auditory sounds were examined to identify their unique characteristics and numerical properties. The recommended system designed and implemented the ultrasound generator, with a programmable frequency and control panel for preventing and controlling pests and a solar-charging system for supplying power to connected devices in the networks spanning large farming areas. The suggested approach attains an accuracy (99.82%), a sensitivity (99.94%), a specificity (99.86%), a recall (99.94%), an F1 score (99.89%), and a precision (99.96%). The findings of this study demonstrate a significant enhancement compared to previous scholarly investigations, including VGG 16, VOLOv5s, TSCNNA, YOLOv3, TrunkNet, DenseNet, and DCNN.

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Section: Introductionmentioning

confidence: 99%