SR&ED for AI and Machine Learning Projects (2024)
AI and machine learning development is inherently experimental—testing models, tuning parameters, and iterating toward uncertain outcomes. This makes AI/ML work well-suited for SR&ED tax credits, yet many companies don't claim or significantly underestimate their eligible work.
Why AI/ML Projects Qualify for SR&ED
Natural SR&ED Fit
AI/ML development inherently involves:
- Technological uncertainty - Will the model achieve target performance?
- Hypothesis testing - "This architecture should outperform that one"
- Systematic experimentation - Testing configurations, analyzing results
- Advancement - Achieving capabilities beyond existing methods
The Opportunity
- Development is highly experimental by nature
- Strong documentation habits (experiment tracking)
- Claims often $100K-$500K+ for ML-focused companies
- Particularly valuable for pre-revenue AI startups
What AI/ML Work Qualifies
Eligible AI/ML SR&ED
Model Development:
- Novel architectures for specific problems
- Achieving accuracy beyond existing approaches
- Transfer learning for new domains
- Multi-modal or ensemble approaches
Training Optimization:
- Novel training strategies
- Custom loss functions
- Data augmentation approaches
- Hyperparameter optimization beyond grid search
Performance Challenges:
- Inference speed optimization
- Model compression and quantization
- Edge deployment challenges
Data Challenges:
- Handling sparse or noisy data
- Few-shot learning approaches
- Active learning strategies
- Synthetic data generation
Domain Applications:
- NLP for specific domains with uncertainty
- Computer vision for novel problems
- Recommendation systems
- Time series forecasting
Not Eligible
- Applying off-the-shelf models without modification
- Standard fine-tuning without technical challenge
- Routine data labeling
- Using AutoML without experimentation
- Standard model deployment
AI/ML SR&ED Examples
Example 1: Custom NLP Model
Project: Build sentiment analysis for financial text
Uncertainty: General-purpose models achieved only 65% accuracy on financial jargon and numeric context. No existing model handled domain-specific language.
Experimentation: Tested 6 architectures (BERT, RoBERTa, custom transformers). Experimented with domain-specific pre-training, custom tokenization, numeric feature integration. Tested 50+ configurations.
Advancement: Achieved 89% accuracy through fine-tuned FinBERT with custom numerical encoding. Proved transfer learning approach for financial text.
Claim value: $135,000
Example 2: Computer Vision Edge Deployment
Project: Deploy object detection on resource-constrained edge device
Uncertainty: Required 30fps inference on device with 1GB RAM. Standard models couldn't meet latency/memory constraints while maintaining accuracy.
Experimentation: Tested model distillation approaches, developed custom pruning strategies, experimented with quantization-aware training, optimized for specific hardware.
Advancement: Achieved 35fps at 85% mAP (vs. 92% full model). Developed quantization approach reducing model size 8x with 7% accuracy loss.
Claim value: $95,000
Example 3: Recommendation System
Project: Build recommendation engine for B2B marketplace
Uncertainty: Cold-start problem with limited user data. Existing collaborative filtering achieved <15% engagement.
Experimentation: Tested hybrid approaches, experimented with knowledge graph integration, developed custom embedding strategies, tested various negative sampling approaches.
Advancement: Achieved 32% engagement through novel hybrid system combining collaborative signals with content features. Solved cold-start using entity embeddings.
Claim value: $160,000
Documentation for AI/ML SR&ED
Strong Documentation Habits
Many ML teams already document well:
- Experiment tracking (MLflow, Weights & Biases)
- Model versioning
- Hyperparameter logs
- Performance metrics
Leverage these tools for SR&ED documentation.
Key Documentation
For each experiment:
- Hypothesis and objectives
- Model architecture
- Training configuration
- Results and metrics
- Analysis and conclusions
- Next steps based on results
Example Experiment Log
Experiment: transformer-v3-attention
Date: 2024-03-15
Hypothesis: Multi-head attention with learned query embedding will improve accuracy
Configuration:
- Architecture: Custom Transformer
- Heads: 8
- Dimensions: 256
- Learning rate: 3e-4
Results:
- Accuracy: 82.3% (baseline: 78.1%)
- Inference time: 45ms
Analysis: Attention mechanism shows improvement but inference too slow
Next: Test distillation or quantization
Expenditure Considerations
Salaries
Eligible roles:
- ML engineers
- Research scientists
- Data scientists (when doing model development)
- MLOps (when building experimental infrastructure)
Note: Data labeling staff typically not eligible (routine work)
Cloud Computing
Often significant for AI/ML:
- GPU compute for training
- Experimentation infrastructure
- MLOps platforms for R&D
Not eligible:
- Production inference costs
- Commercial deployment
- General cloud services
Data Costs
Eligible:
- Data for experimentation
- Data augmentation tools
- Annotation tools used in R&D
Not eligible:
- Production data pipelines
- Ongoing data feeds for commercial use
Maximizing AI/ML SR&ED Claims
1. Document Experiments Systematically
Use experiment tracking tools. Each run should show:
- What you tested
- Why you expected it to work
- What happened
- What you learned
2. Include All Cloud Costs
Training runs, experimentation compute, development infrastructure.
3. Track Time by Project
Allocate ML engineer time to specific model development projects.
4. Include Failed Experiments
Many experiments don't improve performance. These are valuable SR&ED evidence—you tested hypotheses and learned.
5. Show the Uncertainty
Don't just say "we built a model." Explain what wasn't known and how you experimented to solve it.
Work with AI/ML-Savvy Consultants
AI/ML teams need consultants who understand:
- Modern ML architectures and frameworks
- Cloud computing costs for training and experimentation
- The difference between routine deployment and technical innovation
- How to articulate technical uncertainty
See our detailed guide on How to Choose an SR&ED Consultant →
Browse Consultants by Service
AI/ML companies typically benefit from:
- Claim Preparation Services - End-to-end claim preparation
- Technical Documentation Services - Writing compelling technical narratives
- Financial Analysis Services - Optimizing cloud compute costs
- Eligibility Assessment Services - Determining what development qualifies
Find AI/ML SR&ED Consultants →
Frequently Asked Questions
Is fine-tuning pre-trained models SR&ED?
If it involves genuine uncertainty and experimentation beyond standard approaches, yes. Simple fine-tuning without technical challenges doesn't qualify.
Can we claim GPU cloud costs?
Yes, for experimentation and training. Production inference costs aren't eligible.
What about data labeling?
Generally not eligible as it's routine work. Novel annotation approaches with technical challenges may qualify.
Is hyperparameter tuning SR&ED?
Standard grid/random search isn't typically eligible. Novel optimization approaches or search spaces with genuine uncertainty may qualify.
Do we need to publish papers?
No. SR&ED doesn't require publications or external validation.
Next Steps
- Review ML projects for technical uncertainty
- Audit experiment tracking for SR&ED documentation
- Identify failed experiments as SR&ED evidence
- Calculate cloud computing costs for R&D
- Connect with AI/ML SR&ED specialists
Find AI/ML SR&ED Consultants →
Related Guides
Last updated: November 2024. Consult a qualified SR&ED professional for your specific situation.