/
Improving Innovative Mathematical Model for Improving Innovative Mathematical Model for

Improving Innovative Mathematical Model for - PowerPoint Presentation

brooke
brooke . @brooke
Follow
65 views
Uploaded On 2024-01-13

Improving Innovative Mathematical Model for - PPT Presentation

Earthquake Prediction By Suganth Kannan President MathforUS LLC Florida USA Objective The objective of this research is to improve upon a previously developed Innovative Mathematical Model for Earthquake Prediction ID: 1039854

research earthquake distance model earthquake research model distance range pri time data identifier usa factor zone procedure operation applied

Share:

Link:

Embed:

Download Presentation from below link

Download Presentation The PPT/PDF document "Improving Innovative Mathematical Model ..." is the property of its rightful owner. Permission is granted to download and print the materials on this web site for personal, non-commercial use only, and to display it on your personal computer provided you do not modify the materials and that you retain all copyright notices contained in the materials. By downloading content from our website, you accept the terms of this agreement.


Presentation Transcript

1. Improving Innovative Mathematical Model for Earthquake PredictionBy: Suganth KannanPresident, MathforUS LLC Florida, USA

2. ObjectiveThe objective of this research is to improve upon a previously developed Innovative Mathematical Model for Earthquake Prediction.

3. Background Research M8-algorithmVapor theory and the earthquake cloud for predictionGeoelectrical signals near Wak-Air and Boe-Air Dipoles during Izu Island Earthquake cluster

4. Background Research Richter Scale - Logarithmic Epicenter – Point on surface above origin of earthquake Intensity - Depends on distance from epicenter and earthquake’s magnitude

5. Spanish Researcher Earthquake Correlation Theory and Magnet TheoryLow levels of Dilatancy before major earthquakes US, EU, Japan experiment on factors – Land deformations, Seismic wave velocities, Geomagnetic/electric phenomenonsBackground Research

6. MaterialsPersonal Workstation with 1 GB Graphic CardUSGS NEIC Data on past earthquakesGoogle Earth ProgramKML earthquake data filesMicrosoft ExcelPhotoshop Program

7. California, Central USA, Northeast USA, Hawaii, Turkey, and JapanSpatial Connection ModelPoisson Range Identifier (Pri) FunctionDistance Factor (Df) Past Research

8. California Zone Split into Two for ValidationIncorporation of Population Centers Current Research

9. Zonal Limits

10. Using NEIC database, earthquake data collected in KML filesAnalyzed using Spatial connection model – Based on logical assumption that all earthquakes in a fault zone are related to one another Procedure

11. Procedure Range Identifier Function f(ri) = {[x1 * time lag 2] / [ Cos(ϴ) * x2 * time lag 1]}Relationship exists based on Angle, Distance, and Time

12. ProcedurePoisson Distribution operation applied for all Pri valuesUtilizing Distance Factor, Pri value for set is determined

13. ProcedureExponential Distribution operation applied for all Range Identifier valuesUtilizing Distance Factor, Exponential value for fault zone is determined

14. Results

15. Discussion-Interpretation of ResultsFault zones have identifiable patterns in a predictable fashionFuture Predictions can be made using the improved model

16. Significance of Study Major Improvement Greater accuracy in combination FEMA can allocate necessary resources

17. Applications and Future ResearchSave millions of lives by creating an evacuation timeframeFewer Insurance claimsSave money for various industriesPotentially could save billions of $$$$ for economy.Team up with Leading Seismology Departments and utilize developed software

18. Thank You for listening to my Presentation. Are there any questions?Q & A?