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Real time mapping of safest path during wildfire

MOHAMMED AYMAN HABIB

SAI ESHWAR TADEPALLI

ANUSHA VIVEKANAND

This Photo by Unknown Author is licensed under CC BY-NC-ND

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TABLE OF CONTENTS

3. Our Team

4. Consideration

5. Problem : What

6. Problem : Why

7. Solution : What

8. Need for the proposed solution

9. Energy Cost and Air Pollution Prevention

10. Existing Solution

11. Solution overview : How

12. Cost of the solution

13. Scalability

14. Conclusion

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Our Team

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Mohammed Ayman Habib

Major: Electrical Engineering

Sai Eshwar Tadepalli

Major: Business Analytics

Anusha Vivekanand

Major: Business Analytics

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Real time mapping of safest path during wildfire

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Timeline

SAMPLE TEXT

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1980s watch towers created

Watch Tower created

1990s watch tower disbanded

Watch Tower Disbanded

2000s start of satellite technology

Satellite Technology

2010s use of aero planes and satellites for navigation

Navigation system

2020 use of SLAM technology

SLAM technology

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Problem : What

To implement a Camera + LiDAR based navigation system to aid forest rangers in mitigation and rescue operations during active wildfires

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Problem : Why

  • Localizes an unknown environment
  • Assists in navigation without prior knowledge
  • Can be used for several applications

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Need for the Proposed Solution

  • Wildfires can escalate at unprecedented rates
  • This leads existing trails within the wilderness to be blocked off
  • The terrain needs to be re-analysed to determine the best route for response teams to curb the fire or assist in evacuation
  • Dynamic changes to the terrain may prove to be a challenge in terms of time and resources needed to determine the best course of action
  • Existing aerial views and satellite imaging do not render accurate and real time maps of the affected area

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Energy Cost and Air Pollution Prevention

  • In order to avoid planes that scope out the affected area this solution is being implanted.
  • As a result, it significantly reduces air pollution by reducing CO2 emissions and also reducing energy costs by conserving fuel

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Existing Solution

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Existing Solutions include drones, unmanned aeriel vehicles

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Solution Overview :How

  • The proposed navigation system is has two facets to it, namely the LiDAR (Light Detection and Ranging) and the camera. Data from these sensors includes:
  • Intensity
  • Number of returns
  • Return Number
  • Scan Angle
  • Scan Direction
  • Point Classification
  • Utilising this data, we can use SLAM algorithms to create real-time 3D Maps of the area capable of providing suggested navigation routes to get to the desired location efficiently.
  • SLAM is used in various domains such as:
  • Automotive Navigation
  • Airborne Analysis
  • Terrestrial Terrain Analysis

  • There are different kinds of SLAM algorithms namely:
  • Extended Kalman Filter
  • Rao Blackwellized Particle Filter
  • Fast SLAM

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Solution Overview :How

  • Based on the following criteria one can determine which SLAM algorithm and LiDAR/Camera hardware setup can be used:
  • Required Range and Resolution
  • Field of View
  • Update Rate and Latency
  • Cost and Complexity .

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Methodology of Implementation

  • Methodology of Implementation:
  • Re-use disbanded fire watch towers and current ranger look out stations with LiDAR/Camera Hardware interface
  • Transmit Data using existing Wireless Sensor Networks (WSNs) using a microprocessor
  • Data is received by the remote host
  • Data is processed for mapping in real-time

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Cost of the solution

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Sl.No

Component

Cost

Quantity

Item 1

360˚ ToF 3D LiDar

$150

1

Item 2

Swivel Wilderness Camera

$90

1

Item 3

2.1

$60

1

The cost per unit is around $300 / watch tower. However, with an increase in production numbers the cost per unit can be significantly reduced.

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Scalability

  • The use of existing infrastructure such as Fire Lookout towers makes this product scalable through out North America.
  • Relying on pre-existing Wireless Sensor Networks to interface with our product we are able to make the product modular and robust.
  • Partnering with the U.S National Park Service to assist in locating and setting up the devices would expedite scalability

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Conclusion

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Save lives faster through this technology

Use of resources more judiciously through this application

Reduces damage brought about by wildfires

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Thank you

Mohammed Ayman Habib

Sai Eshwar Tadepalli

Anusha Vivekanand

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