Table 1.
Overview on tree-cutting detection contributions in the literature and respective limitations.
Reference | Main Contribution | Main Limitations |
---|---|---|
[14] | Low-power microcontroller with sound/vibration sensors and Xbee | Effective only with chainsaw sounds, no long-range wireless transmission |
[15] | Ultra-low-power device, sound/vibration sensors, Zigbee with fog computing | Effective only with chainsaw sounds, no long-range wireless transmission |
[16] | Low-power microcontroller with sound/vibration sensors and GSM communication | Threshold-based approach, no low-power wireless transmission |
[17] | Detection and location of chainsaws through air/soil sound TDOA | Effective only with chainsaw sounds, no wireless communication |
[7] | Arduino/Raspberry Pi sound detector with LoRa communication | Effective only with chainsaw sounds, medium–low-power hardware (i.e., Raspberry Pi) |
[28] | Chainsaw sound detection adopting spectrograms | Effective only with chainsaw sounds, no details are given on electronics and communication |
[29] | 92% accuracy on axe stroke sound detection through Gaussian mixture model, K-means Clustering, and Principal Component Analysis. | Effective only with axe stroke sounds, no details on electronics and communication |
[18] | 94.4% accuracy on chainsaw sound detection through neural networks, WiFi and ZigBee communication | Server-side classification and short-range wireless protocols |
[30] | 94% accuracy on chainsaw through Neural networks, chainsaw location through TDOA | Medium–low-power hardware (i.e., Raspberry Pi), no long-range communication (i.e., 802.15.4) |