
This roadmap presents a research-based productivity model for the Geofuchs AI development project, spanning 2026-2028. Using realistic hour estimates derived from published AI coding productivity research with structured workflows, we demonstrate how a five-agent AI team can deliver a comprehensive geospatial intelligence platform whilst achieving significant cost savings.
Our roadmap is grounded in peer-reviewed research and real-world case studies from leading AI organisations. These studies demonstrate that structured AI workflows with proper context engineering significantly outperform ad-hoc approaches.
Ad-hoc AI implementation resulted in 19% slower development with less than 44% code acceptance rates.
Structured workflows achieved 67% more pull requests and 50% productivity gains compared to baseline.
Anthropic's engineering guidelines demonstrate how proper context management maximises AI agent effectiveness.
Planning specifications before implementation reduces rework and improves code quality significantly.
Anthropic cut productivity estimates in half after analysing Claude's real-world failure rates, informing our conservative approach.

Our structured approach leverages specific advantages that maximise AI productivity whilst minimising common pitfalls identified in research.
Our productivity model applies conservative multipliers that increase as the codebase matures and AI agents gain domain expertise. Each year includes a 15% oversight buffer for human review and quality assurance.
Greenfield development with 0.40x base multiplier plus 15% oversight equals 54% time savings
Growing codebase with 0.50x base multiplier plus 15% oversight equals 42% time savings
Mature system with 0.60x base multiplier plus 15% oversight equals 31% time savings
3-Year Total: £36,720 (~€34,000)
Implementation, coding, testing, and debugging tasks
Architecture, design decisions, and specification work
API research, library evaluation, and best practices
Each agent specialises in different aspects of the platform, working in parallel to maximise throughput whilst maintaining code quality through cross-review.
Infrastructure, migration, and core system architecture
Data processing pipelines and integration layers
External service integration and API development
Machine learning models and processing algorithms
User interface, tooling, and developer experience
Year 1 establishes the core infrastructure and remote sensing capabilities. With a 0.46x effective rate, we achieve 54% time savings whilst building the foundation for advanced geospatial intelligence.
GEX131 migration, GDAL/Rasterio stack, Sentinel Hub integration, and tile processing pipeline
405 hours (880 original)
SAMGeo integration, prompt engineering, mask post-processing, and memory systems
387 hours (840 original)
Pre-trained models, inference service, training pipeline, and supervisor logic
423 hours (920 original)
CLIP/SigLIP integration, image understanding, sub-agents, and visualisation UI
424 hours (924 original)
The five agents work in parallel across quarterly milestones, with workload balanced to prevent bottlenecks whilst maintaining quality through cross-review.
Year 1 development time with AI assistance
Traditional development hours required
54% reduction in development time
Year 2 introduces advanced learning systems, autonomous agents, and V2X capabilities. With a 0.575x effective rate, we achieve 42% time savings whilst expanding platform intelligence.
Feedback loops, data curation, Microsoft GraphRAG integration, entity extraction, and GeoSPARQL ontology
LoRA training, confidence scoring, MCP protocol implementation, tool adapters, and V2X foundation
Reflection module, DSPy optimiser, autonomous planning, workflow agents, and per-agent memory
Constitution layer, spatial analysis suite, V2X northbound interface, and security implementation
Knowledge graph integration and learning systems
Model Context Protocol and tool ecosystem
Self-directed planning and workflow automation
Advanced geospatial intelligence capabilities
MQTT broker, CARLA integration, CCMA algorithm, and C-ITS agent
AMQP 1.0 interface, EU CCMS PKI, H3 indexing, and CAM/DENM generation

Year 3 focuses on enterprise scalability, explainability, and advanced generation capabilities. With a 0.69x effective rate, we achieve 31% time savings whilst preparing for production deployment.
Explainability dashboard, source attribution, GDPR compliance, data lineage, authentication, and NordicWay V2X pilot
882 hours (1,280 original)
NeMo guardrails, conflict resolution, vector-to-image generation, image transforms, and V2X production hardening
827 hours (1,200 original)
Model distillation, deployment, simulation sandbox, synthetic data generation, and benchmarking
690 hours (1,000 original)
Multi-region DR, GPU autoscaling, edge caching, and three industry verticals
910 hours (1,320 original)
The final quarter of Year 3 delivers three specialised industry verticals, demonstrating the platform's versatility across diverse geospatial intelligence applications.
Comprehensive tools for city development, zoning analysis, infrastructure planning, and smart city initiatives
Asset management, condition monitoring, predictive maintenance, and lifecycle analysis for critical infrastructure
Climate monitoring, biodiversity tracking, deforestation detection, and environmental impact assessment
Across three years of development, the AI-assisted approach delivers substantial time and cost savings whilst maintaining high quality through structured workflows and comprehensive oversight.
Original: 13,200 hours
AI-Assisted: 7,731 hours
Savings: 5,469 hours (41%)
Original: ~85 hrs/week
AI-Assisted: ~50 hrs/week
Per Agent: ~10 hrs/week
Opus 4: 1,160 hrs (15%)
Sonnet 4: 5,798 hrs (75%)
Perplexity: 773 hrs (10%)
The AI-assisted approach delivers exceptional return on investment, with substantial cost savings that far exceed the technology investment required.
13,200 hours × €75/hr = €990,000
7,731 hours × €75/hr = €579,825
AI Team Cost: €34,000
Total: €613,825
€376,175 saved
38% cost reduction
ROI: 1,107%
(€12 saved per €1 spent)
The three-year roadmap distributes work evenly across five specialised agents, ensuring balanced workloads and comprehensive platform coverage.
Use checkboxes in quarterly tables to mark completed tasks: [ ] → [x]
Apply status indicators: [ ] Not started, [~] In progress, [x] Completed, [!] Blocked
Assess progress, adjust estimates, and refine approach based on actual performance
Keep ROADMAP.md, CLAUDE.md, and context files updated for optimal AI performance
This roadmap demonstrates how structured AI workflows, grounded in research and real-world evidence, can deliver a sophisticated geospatial intelligence platform with 41% time savings and 38% cost reduction whilst maintaining high quality standards.
Geofuchs - Hydra 8 - AI Team Roadmap