SR&ED Case Study: Precision Agriculture & AI

Organic vegetables with futuristic digital interface icons for smart farming and data analysis

Background

An AgTech company wanted to develop a crop stress detection system using drone-captured multispectral imagery, but existing published detection models were trained on different crop varieties and growing conditions than those used by the company’s target customers.

The Challenge

It was unclear whether existing detection models could be adapted to the target crop and regional conditions, or whether the underlying spectral signatures of stress differed enough to require a new detection approach entirely.

Technological Uncertainty

It was not known in advance whether reliable stress detection was achievable for this crop variety and regional soil and climate conditions using available imagery, or what spectral indices and model architecture would be required.

Experimental Development

The team systematically tested multiple spectral index combinations and model architectures against field-validated ground-truth stress measurements collected across the growing season, measuring detection accuracy and false-positive rates for each configuration.

What Failed?

Standard spectral indices developed for other crop varieties showed poor correlation with ground-truth stress measurements in field trials, requiring the team to investigate custom spectral index combinations specific to this crop’s physiology.

Technological Advancement

The team developed a custom spectral index and detection model validated against field ground-truth data, generating new technical knowledge about stress detection for this crop variety under the target region’s growing conditions.

Potentially Relevant SR&ED Activities

  • Systematic testing of spectral indices and model architectures against field data
  • Field validation trials correlating imagery with ground-truth stress measurements
  • Detection accuracy and false-positive benchmarking across model iterations

What Would Generally Not Qualify

Deploying the finalized, validated detection model for routine seasonal monitoring on similar fields would not itself qualify as further eligible development.

Documentation

Field trial data correlating imagery to ground-truth measurements, model accuracy benchmarks across iterations, and technical notes on index development would support this claim.

About The Author

Dale Doering

Dale Doering is the owner of SRED Consultants Inc., helping businesses navigate the complexities of Scientific Research and Experimental Development (SR&ED) claims. With a strong understanding of the technical and interpretive requirements of the SR&ED program, Dale works with companies to identify eligible projects, document technological challenges, and clearly demonstrate the systematic experimentation or analysis undertaken to achieve advancement. His approach focuses on translating complex technical work into well-supported SR&ED claims, helping clients maximize eligible opportunities while maintaining a clear understanding of the program’s requirements.

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Frequently Asked Questions

What was the core technological uncertainty in this precision agriculture project?

The main uncertainty was whether standard detection models and existing spectral indices could be adapted to detect stress in a specific crop variety under unique regional soil and climate conditions, or if a completely new detection approach and model architecture were required.

Standard spectral indices designed for other crop varieties showed poor correlation with ground-truth stress measurements in field trials, proving that existing models could not simply be repurposed for the target crop’s specific physiology and regional environment.

The development team systematically tested multiple custom spectral index combinations and model architectures against field-validated ground-truth stress measurements collected throughout the growing season, tracking performance through detection accuracy and false-positive rates.

The project produced new technical knowledge by creating and validating a custom spectral index and detection model tailored specifically to stress detection for the target crop variety under local growing conditions.

Once the model was validated, deploying it for routine, seasonal field monitoring on similar crops would be considered standard commercial operation rather than eligible experimental development.

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