Fill the Table of Matrix of MethodologyNOTE: The content of Phases in the Matrix of Methodology is provided below in the table in the picture and must be based on how to make the following phases for Research Setting, Respondents, Data Gathering Procedure, Data Gathering Instruments, and Statistical Treatment. PHASE 1:Data Collection1. Optimize Arduino/ADXLfor low-frequencyearthquake detection.2. Design a network fordirect seismic datatransmission.3. Study how does theGSM module will send toa user withoutinterruption.PHASE 2:Sensor SystemDevelopment4. Test the accuracy receive ofthe ADXL Accelerometer foreach vibration.5. Examine measures analyzingground motion as it happens.6. Build the circuit of thesensors and the real-time todetect seismic activity thatprovides alert to the Arduino.7. Make a program code on theArduino that will convert thereadings and send to a user.17. Identify areas for improvementbased on the evaluation results andoptimize the system design,algorithms, and components toenhance accuracy, reliability, andefficiency.PHASE 3:System Integration andAlert MechanismDevelopment16. Evaluate system performanceand reliability in realearthquakes via field tests,considering diverse intensities,frequencies, and environmentalfactors.8. Develop a robust alertmodule that integrates withthe Arduino Mega 2560seismic sensor system.9. Integrate a buzzer foraudible earthquake alertswhen ground motion exceedsa threshold.10. Assess alert module efficacyand responsiveness forguaranteed timely and accuratewarnings.PHASE 5: Evaluation and Analysis of the Entire System15. Validate system's seismicwave energy calculation andclassification for both geologicaland human activities.PHASE 4:Wireless Communication and DataTransmission11. Develop a wireless communication protocolto facilitate the direct transmission of seismicdata from the Arduino Mega 2560 system to adesignated receiver or server.12. Analyze wireless system's speed,reliability, and data integrity for seismictransmission, factoring in distance,interference, and data security.13. Enhance data transmission efficiency forseismic data through error correction,compression, and optimized protocols.14. Evaluate the efficiency ofdata transmission to theserver, considering factorssuch as speed, reliability, andconsistency. Fill the table provided belowStagesPhase 1: DataCollectionPhase 2: SensorSystemDevelopmentPhase 3: SystemIntegration andAlert MechanismDevelopmentPhase 4: WirelessCommunicationand DataTransmissionPhase 5:Evaluation andAnalysis of theEntire SystemPHASE 1:Data Collection1. Optimize Arduino/ADXLfor low-frequencyearthquake detection.2. Design a network fordirect seismic datatransmission.Research SettingNOTE: The content of the Phases on this table above are here in the figure belowPHASE 2:Sensor SystemDevelopment3. Study how does theGSM module will send toa user withoutinterruption.Matrix of MethodologyData GatheringRespondentsProcedure4. Test the accuracy receive ofthe ADXL Accelerometer foreach vibration.5. Examine measures analyzingground motion as it happens.6. Build the circuit of thesensors and the real-time todetect seismic activity thatprovides alert to the Arduino.7. Make a program code on theArduino that will convert thereadings and send to a user.17. Identify areas for improvementbased on the evaluation results andoptimize the system design,algorithms, and components toenhance accuracy, reliability, andefficiencyPHASE 3:System integration andAlert MechanismDevelopment16. Evaluate system performanceand reliability in realearthquakes via field tests,considering diverse intensities,frequencies, and environmentalfactors.8. Develop a robust alertmodule that integrates withthe Arduino Mega 2560seismic sensor system.9. Integrate a buzzer foraudible earthquake alertswhen ground motion exceedsa threshold.10. Assess alert module efficacyand responsiveness forguaranteed timely and accuratewarnings.PHASE 5: Evaluation and Analysis of the Entire SystemData GatheringInstrumentStatistical Treatment15. Validate system's seismicwave energy calculation andclassification for both geologicaland human activities.PHASE 4:Wireless Communication and DataTransmission11. Develop a wireless communication protocolto facilitate the direct transmission of seismicdata from the Arduino Mega 2560 system to adesignated receiver or server.12. Analyze wireless system's speed,reliability, and data integrity for seismictransmission, factoring in distance,interference, and data security.13. Enhance data transmission efficiency forseismic data through error correction,compression, and optimized protocols.14. Evaluate the efficiency ofdata transmission to theserver, considering factorssuch as speed, reliability, andconsistency.

Question

Fill the Table of Matrix of MethodologyNOTE: The content of Phases in the Matrix of Methodology is provided below in the table in the picture and must be based on how to make the following phases for Research Setting, Respondents, Data Gathering Procedure, Data Gathering Instruments, and Statistical Treatment. PHASE 1:Data Collection1. Optimize Arduino/ADXLfor low-frequencyearthquake detection.2. Design a network fordirect seismic datatransmission.3. Study how does theGSM module will send toa user withoutinterruption.PHASE 2:Sensor SystemDevelopment4. Test the accuracy receive ofthe ADXL Accelerometer foreach vibration.5. Examine measures analyzingground motion as it happens.6. Build the circuit of thesensors and the real-time todetect seismic activity thatprovides alert to the Arduino.7. Make a program code on theArduino that will convert thereadings and send to a user.17. Identify areas for improvementbased on the evaluation results andoptimize the system design,algorithms, and components toenhance accuracy, reliability, andefficiency.PHASE 3:System Integration andAlert MechanismDevelopment16. Evaluate system performanceand reliability in realearthquakes via field tests,considering diverse intensities,frequencies, and environmentalfactors.8. Develop a robust alertmodule that integrates withthe Arduino Mega 2560seismic sensor system.9. Integrate a buzzer foraudible earthquake alertswhen ground motion exceedsa threshold.10. Assess alert module efficacyand responsiveness forguaranteed timely and accuratewarnings.PHASE 5: Evaluation and Analysis of the Entire System15. Validate system's seismicwave energy calculation andclassification for both geologicaland human activities.PHASE 4:Wireless Communication and DataTransmission11. Develop a wireless communication protocolto facilitate the direct transmission of seismicdata from the Arduino Mega 2560 system to adesignated receiver or server.12. Analyze wireless system's speed,reliability, and data integrity for seismictransmission, factoring in distance,interference, and data security.13. Enhance data transmission efficiency forseismic data through error correction,compression, and optimized protocols.14. Evaluate the efficiency ofdata transmission to theserver, considering factorssuch as speed, reliability, andconsistency. Fill the table provided belowStagesPhase 1: DataCollectionPhase 2: SensorSystemDevelopmentPhase 3: SystemIntegration andAlert MechanismDevelopmentPhase 4: WirelessCommunicationand DataTransmissionPhase 5:Evaluation andAnalysis of theEntire SystemPHASE 1:Data Collection1. Optimize Arduino/ADXLfor low-frequencyearthquake detection.2. Design a network fordirect seismic datatransmission.Research SettingNOTE: The content of the Phases on this table above are here in the figure belowPHASE 2:Sensor SystemDevelopment3. Study how does theGSM module will send toa user withoutinterruption.Matrix of MethodologyData GatheringRespondentsProcedure4. Test the accuracy receive ofthe ADXL Accelerometer foreach vibration.5. Examine measures analyzingground motion as it happens.6. Build the circuit of thesensors and the real-time todetect seismic activity thatprovides alert to the Arduino.7. Make a program code on theArduino that will convert thereadings and send to a user.17. Identify areas for improvementbased on the evaluation results andoptimize the system design,algorithms, and components toenhance accuracy, reliability, andefficiencyPHASE 3:System integration andAlert MechanismDevelopment16. Evaluate system performanceand reliability in realearthquakes via field tests,considering diverse intensities,frequencies, and environmentalfactors.8. Develop a robust alertmodule that integrates withthe Arduino Mega 2560seismic sensor system.9. Integrate a buzzer foraudible earthquake alertswhen ground motion exceedsa threshold.10. Assess alert module efficacyand responsiveness forguaranteed timely and accuratewarnings.PHASE 5: Evaluation and Analysis of the Entire SystemData GatheringInstrumentStatistical Treatment15. Validate system's seismicwave energy calculation andclassification for both geologicaland human activities.PHASE 4:Wireless Communication and DataTransmission11. Develop a wireless communication protocolto facilitate the direct transmission of seismicdata from the Arduino Mega 2560 system to adesignated receiver or server.12. Analyze wireless system's speed,reliability, and data integrity for seismictransmission, factoring in distance,interference, and data security.13. Enhance data transmission efficiency forseismic data through error correction,compression, and optimized protocols.14. Evaluate the efficiency ofdata transmission to theserver, considering factorssuch as speed, reliability, andconsistency.

Accepted Answer

Research is the aspect of the component of study that deals with generating or expanding new…