Source: NEAR SPACE LABS INC submitted to NRP
PROJECT QUICKFIRE: A REAL-TIME SOLUTION FOR LARGE SCALE WILDFIRE MONITORING
Sponsoring Institution
National Institute of Food and Agriculture
Project Status
COMPLETE
Funding Source
Reporting Frequency
Annual
Accession No.
1032014
Grant No.
2024-33530-42167
Cumulative Award Amt.
$174,874.00
Proposal No.
2024-00411
Multistate No.
(N/A)
Project Start Date
Jul 1, 2024
Project End Date
Feb 28, 2025
Grant Year
2024
Program Code
[8.1]- Forests & Related Resources
Recipient Organization
NEAR SPACE LABS INC
141 FLUSHING AVE
BROOKLYN,NY 11205
Performing Department
(N/A)
Non Technical Summary
This project attempts to validate stratospheric imaging as a methodology for wildfire monitoring.
Animal Health Component
25%
Research Effort Categories
Basic
0%
Applied
25%
Developmental
75%
Classification

Knowledge Area (KA)Subject of Investigation (SOI)Field of Science (FOS)Percent
12206992020100%
Goals / Objectives
The escalating frequency, intensity, and geographical extent of wildfires has become an increased societal challenge causing severe damage to ecosystems, loss of life, air quality issues and extensive economic losses. The firefighter's tools to face these challenges have evolved and recent years have seen the usage of satellite imaging, camera towers and a modest deployment of drones for wildfire monitoring. While these methods help, still to this day, systems capable of real-time large-scale monitoring of wildfires in remote areas are not commonly available to firefighters.To breach this gap, we propose the usage of stratospheric balloons, which are capable of monitoring more than 800 sq miles of wilderness in a matter of hours, and provide real-time fire front information to command centers and fire responders.Through this project we will adapt the current capabilities of Near Space Lab's commercial imaging balloons to the requirements of live wildfire monitoring. This requires developing real-time data link capabilities and researching suitable sensors to see through smoke and haze. The outcomes of the project will be a demonstrated data link for data transmission at more than 50 km range and 1 Mbit/s rate, and the research and selection of a sensor type capable of providing sub-meter resolution imaging of a fire front.The estimated cost of a fully operationalized wildfire monitoring solution from the stratosphere will be about $10,000 per day of operation. The increased situational awareness will help curb the more than $7B yearly losses caused by wildfires in the US. The technical objectives for this proposal focus on identifying a suitable imaging system type and real-time data downlink, and testing this combination in a lab and relevant flight vehicle environment at technology readiness level (TRL) 4-5. We distinguish seven main objectives to reach this goal:Identification of relevant stakeholders in wildfire monitoringConsultation of end-user needs with identified stakeholders:Definition of imaging system specifications from stakeholders involved in fire monitoring and suppression:Selection of an imaging system based on specifications:Which COTS imaging systems are available in the required spectral range that also fulfill the resolution and sensitivity specifications?Of those, which fulfill NSL's flight vehicle mass, volume and power consumption restrictions?Which of the available options is flight-tested and robust against stratospheric flight conditions (low temperature and pressure) that could impact image quality?Of the remaining options, which imaging system is the best match between user requirements & cost constraints?Definition of a downlink architecture based on specifications and the choice of imaging system:Selection of a suitable downlink architecture hardwarImage relay test in a lab environmentOverall, expected outcomes for the imaging system are to explore the space of available COTS technologies and identify a viable solution that complies with the specifications derived from the stakeholder's requirements as well as the stringent mass, volume and power consumption requirements of NSL's stratospheric flight vehicle. Importantly, this system must be rugged enough to maintain its nominal performance under real world stratospheric flight conditions.For the data link, we expect to demonstrate downlink rates sufficiently high to support the frame rate required by the end users at typical ranges of more than 50 km in a lab environment. Phase II will build on this work by integrating the imaging system and data link with NSL's stratospheric balloon system and performing flight demonstration to confirm that the full system delivers the required resolution and frame rate in flight.
Project Methods
For each work package previously listed, effort will be made to explore solutions and record results in a organized manner. Methodologies will include external research, internal experimentation and discussions with experts and commerical interests.

Progress 07/01/24 to 02/28/25

Outputs
Target Audience:TheQuickfire Project aims to serve multiple target audiences, including wildfire management agencies, emergency responders, policymakers, and insurers. These groups will benefit from improved fire detection, real-time fire perimeter monitoring, and post-fire assessment enabled by stratospheric balloon technology. Primary Target Audiences: Federal and State Wildfire Agencies - Includes the US Forest Service (USFS), Department of the Interior (DOI), and CalFire, who play a key role in wildfire suppression and mitigation. Emergency Responders and Incident Commanders - Real-time aerial intelligence will aid ground crews in decision-making, improve resource allocation, and enhance firefighter safety. Insurance and Risk Assessment Companies - Rapid post-fire damage assessments will help insurers validate claims, detect fraud, and improve response times in high-risk areas. Local Governments and Communities - Particularly in fire-prone and economically disadvantaged regions, improved fire monitoring technology can aid in disaster preparedness and community safety. During the project, specifically in work package 2, several stakeholders of the above fields where contacted and introduced to the project. We are also redistributing learnings and results to this same audience. This project indirectly supports socially and economically disadvantaged communities by enhancing wildfire resilience and reducing economic losses due to fire damage. Futureefforts will ensure that scientific knowledge, innovative technology, and practical applications reach the necessary stakeholders to improve wildfire response, land management, and community safety. Changes/Problems: Nothing Reported What opportunities for training and professional development has the project provided?The project has provided tehnicaldevelopment opportunities for our engineering team by enhancing expertise in remote sensing, onboard image processing, satellite communications.Team members gained hands-on experience in COTS sensor evaluatio anddata transmission optimization,strengthening their skills. How have the results been disseminated to communities of interest?The report outcomes will be made available to selected stakeholders that have been engaged with on Work Package 2. What do you plan to do during the next reporting period to accomplish the goals? Nothing Reported

Impacts
What was accomplished under these goals? Project Accomplishments vs. Goals 1. Identification of relevant stakeholders- Completed Engaged USFS, DOI, CalFire, and NIROPS; mapped roles in wildfire monitoring. 2. Consultation of end-user needs-Completed Interviews conducted with key agencies. Prioritized real-time fire perimeter monitoring over ignition detection. 3. Definition of imaging system specifications-Completed Based on user needs and requirements. 4. Selection of an imaging system-Completed Evaluated COTS solutions Imager selected for best weight (2.8 kg), resolution, and feasibility. Met NSL's flight constraints (mass, power, and temperature resilience). Balanced performance & cost, achieving near-optimal resolution. 5.Definition of a downlink architecture -Completed Compared grid-based scanning vs. fire-front search. Identified onboard processing to reduce bandwidth and improve response time. 6. Selection of downlink hardware -Completed Chosen Satlink for low-bandwidth, cost-effective transmission. 7. Image relay test in lab & flight -Completed & Expanded Lab tests successful; flight tests also conducted. Confirmed stable real-time transmission with C/N0 signal validation. All targets were succesfully met and results for section 7 expanded with a test flight of the satellite relay.

Publications


    Progress 07/01/24 to 02/28/25

    Outputs
    Target Audience:We have engaged with key agencies critical to wildfire management, forestry services, and aviation operations, to derive requirements for the project and to understand future procurement mechanisms. These agencies include: CalFire:As California's leading authority on fire prevention and resource management, CalFire has provided insights into their operational needs for wildfire monitoring. Forest Service: In discussions with the U.S. Forest Service, specifically the responsibles for infrared fire mapping, we have identified the technical requirements and interoperability that would make our technology suitable in real life operations. Department of the Interior, Aviation Services: By engaging with the Department of the Interior's Aviation Service, we've gatheredtheir expertise in aerial firefighting, and recomendations on contracting methods. These findings are reported in the 3rd work package of the project. This project will directly address the challenges and opportunities these agencies have outlined, providing innovative solutions to enhance wildfire monitoring. Changes/Problems: Nothing Reported What opportunities for training and professional development has the project provided? Nothing Reported How have the results been disseminated to communities of interest?We keep our conversations with the project stakeholders open and plan to disseminate back the findings and proposed solutions later in the project. What do you plan to do during the next reporting period to accomplish the goals?The next phase of the project focuses on advancing the imaging system and data downlink capabilities with the following work packages: Definition of a Downlink Architecture Based on Specifications (Work Package 5) We will design a robust data downlink architecture that aligns with the selected imaging system's specifications. This includes selecting components capable of supporting high data rates (>1 Mbit/s) over distances exceeding 50 km. Selection of a Suitable Downlink Architecture Hardware (Work Package 6) Following the design phase, we will identify and procure suitable Commercial Off-The-Shelf (COTS) hardware. Components will be evaluated for compatibility with NSL's stratospheric balloon platform, ensuring low mass, power efficiency, and operational ruggedness. Image Relay Test in a Lab Environment (Work Package 7) We will integrate the imaging system and downlink hardware in a controlled lab environment. These tests will validate the system's ability to transmit real-time, high-resolution imagery while meeting performance specifications under simulated conditions. These steps will ensure the imaging and data downlink systems are fully prepared for potentialPhase II flight demonstrations, moving us closer to providing firefighters with an operational, real-time wildfire monitoring solution.

    Impacts
    What was accomplished under these goals? We are pleased to report that we have successfully accomplished the first four goals of the project: Identification of Relevant Stakeholders in Wildfire Monitoring We identified key stakeholders across wildfire management and suppression efforts, including CalFire, the U.S. Forest Service, and the Department of the Interior, Aviation Services. This ensures that our project aligns with the priorities and challenges faced by these organizations. Consultation of End-User Needs with Identified Stakeholders Through productive engagements with these stakeholders, we gathered valuable insights into their operational needs and technical requirements. Discussions focused on critical aspects such as real-time data accessibility, resolution, and system usability during wildfire incidents, and also procurement and path-to-market for these innovations. Definition of Imaging System Specifications from Stakeholders Based on consultations, we developed detailed imaging system specifications. These include sub-meter resolution imaging to track fire fronts accurately, the ability to penetrate smoke and haze. One key insight was the focus on monitoring vs early detection for which the engaged stakeholders claim to have other solutions available. Selection of an Imaging System Based on Specifications After thorough analysis, we identified severalCommercial Off-The-Shelf (COTS) imaging options that couldmeetthe specifications derived from stakeholder needs. We've downselected the most promising. These achievements lay a solid foundation for the next phase of the project, focusing on the integration and testing of the selected imaging system with data downlink capabilities in lab environments.

    Publications