Have a personal or library account? Click to login
Multiple Sensor based Human Detection Robots: A Review Cover

Figures & Tables

Figure 1:

Identification of victims in two levels.
Identification of victims in two levels.

Figure 2:

Flow diagram for rescue mission.
Flow diagram for rescue mission.

Figure 3:

Temperature sensor.
Temperature sensor.

Figure 4:

Gas sensor.
Gas sensor.

Figure 5:

PIR sensor. PIR, passive infrared.
PIR sensor. PIR, passive infrared.

Figure 6:

Percentage analysis graph for human detection sensors.
Percentage analysis graph for human detection sensors.

j_ijssis-2023-0009_tab_002

S. No.Paper name with Ref. No.Comparison factor

Obstacle detectionMicrophoneLocation trackingEnvironmental condition monitoringLive streamingGas detectionPulse sensingTemperature sensing
1Living human detection robot in earthquake conditions [33]
2SAR system for detection of living humans by semi-autonomous mobile rescue robot [34]
3Unmanned vehicle for detection of living humans during calamity [35]
4Terminal analysis of the operation of a rescue robot constructed for assisting secondary disaster situations [46]
5A low cost USAR robot for developing countries [61]
6Design and implementation of a semi-autonomous mobile SAR robot [47]
7Disaster response and surveillance bot [61]
8Ground robot for detection of living humans in rescue operations [63]

j_ijssis-2023-0009_tab_001

Sensor/sensing technologyProsConsRef.
RadarLong rangeNo need for line of sightOffers possibility for computation of target velocityTarget tracking is possibleIt is expensiveInterference[4],[54]
LiDARFamiliar in roboticsProvides detailed information about the environmentHigh costNot able to measure distance given the prevalence of conditions of heavy rain[2],[55]
MagneticIt is able to detect metal objectsSmall range[56]
ToF cameraPossible to provide in 3D measurementsLess accuracyResolution is lowNot possible to deploy in outdoor operation[57]
AcousticWide rangeCost effectiveDiffers in acoustic characteristics based on different environments[58]
UltrasonicWide rangeCost effectiveSound is absorbed by clothing and foliage[34],[59],[64]
OpticalWide rangeTarget identification is easyCostlyNeed of line of sight[60]
IR and thermalPossibility of detecting a target in the darkIn hot environments, detecting the target is difficult[34],[51],[47]
RFEasy to installAffordableLong distanceCables are required along the perimeterVolumetric range is limited[34],[51],[47],[61]
MotionIt is possible to classify the type of intrusion based on structuresCost effectiveLimited range[34],[35],[64]
SeismicExceptional stealthDiffers in each environment[62]

j_ijssis-2023-0009_tab_004

S. No.Paper nameProsConsRef.
1Living human detection robot in earthquake conditionsLow costMore efficientLive streamingMore suitable for landslides/avalanchesDue to the lack of internet connectivity under circumstances of landslides and avalanches, radar communication is preferred rather than IoT[33]
2SAR system for detection of living humans by semi-autonomous mobile rescue robotLow costMore reliableUsed sensors are cheap and easily availableLow power consumptionHigh efficiencyNo location tracking and environment monitoring[34]
3Unmanned vehicle for detection of living humans during calamityLow costMore reliableLong distance communicationLow power consumptionNo live streaming and environmental monitoring[35]
4Terminal analysis of the operation of a rescue robot constructed for assisting secondary disaster situationsOptimum size and strengthSimple and more reliableSimple to navigate in all types of terrainNo location tracking[46]
5A low-cost USAR robot for developing countriesWith walkie-talkie on board, rescuers can communicate up to 1 km awayNo location tracking[61]
6Design and implementation of a semi-autonomous mobile SAR robotBuilt with a CMOS camera for digital image productionCamera connection is lost and major issues on battery power[47]
7Disaster response and surveillance botLow power consumptionEasily controllableAdditionally, flame sensor is used to detect presence of fireLow cost and affordableNo location tracking[61]
8Ground robot for detection of living humans in rescue operationsMore accurate and efficientImproved resuscitation services for catastrophic victimsNo environmental monitoring and obstacle detection[63]

j_ijssis-2023-0009_tab_003

S. No.Paper name with Ref. No.Technology comparison factor

RF moduleBluetoothWiFiIoTZigbee moduleAndroid app
1Living human detection robot in earthquake conditions [33]
2SAR system for detection of living humans by semi-autonomous mobile rescue robot [34]
3Unmanned vehicle for detection of living humans during calamity [35]
4Terminal analysis of the operation of a rescue robot constructed for assisting secondary disaster situations [46]
5A low cost USAR robot for developing countries [61]
6Design and implementation of a semi-autonomous mobile SAR robot [47]
7Disaster response and surveillance bot [61]
8Ground robot for detection of living humans in rescue operations [63]
Language: English
Submitted on: May 24, 2022
Published on: Aug 20, 2023
Published by: Professor Subhas Chandra Mukhopadhyay
In partnership with: Paradigm Publishing Services
Publication frequency: 1 issue per year

© 2023 A. Vellingiri, K. Mohanasundaram, K.S. Tamilselvan, R. Maheswar, N. Ganesh, published by Professor Subhas Chandra Mukhopadhyay
This work is licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 License.