Case Study — YieldSphere
Increasing Processing Throughput by 18% Without Capital Investment
$4.5M additional processing capacity through real-time bottleneck intelligence
Industry
Agricultural Processing
Timeline
14 weeks
Team
5 engineers
Tech
IoT + TimescaleDB + React
The Challenge
A large agricultural processing facility operating 3 production lines was running at a claimed 87% capacity utilization — but actual throughput was 23% below rated capacity. Capacity planning relied on annual time-and-motion studies. No real-time visibility into bottlenecks, stoppages, or quality-induced rework cycles existed at the line level.
Our Approach
How We Solved It
Processing Line Instrumentation
Deployed IoT sensors at 48 key process points across 3 lines measuring flow rates, equipment status, quality parameters, and reject rates — establishing the first real-time process data foundation the facility had ever had.
Bottleneck Detection Engine
Built a real-time bottleneck detection algorithm using queuing theory to identify the current constraint limiting each line's throughput, updating every 30 seconds as line conditions change.
Shift Performance Analytics
Developed shift-level performance analytics that decompose the gap between actual and rated throughput into attributable causes: planned downtime, unplanned downtime, speed losses, and quality rework — enabling targeted improvement actions.
Throughput Forecasting
ML model predicts end-of-shift and end-of-day throughput from early-shift process data, giving production managers actionable 4-hour lead time to adjust staffing, schedule maintenance, or expedite raw material deliveries.
Engineering Process
How We Built It
Real-Time Queuing Theory Application
The bottleneck algorithm implements Little's Law and queue-based throughput analysis on the live sensor stream, identifying which station's utilization is constraining system throughput at any moment.
TimescaleDB for Process Time-Series
TimescaleDB continuous aggregates pre-compute shift and daily process summaries without impacting real-time query performance — analytical queries return in under 500ms despite the 48-sensor, 30-second resolution data volume.
Configurable Alert Thresholds
Alert thresholds for each process parameter are configurable by shift supervisors within policy limits — giving operators ownership of their process while maintaining safety boundaries.
Architecture Decisions
Key Technical Choices
Bottleneck as Dynamic, Not Static
Traditional capacity planning treats bottlenecks as fixed by design. Our real-time bottleneck detection revealed that the constraint changes 3-6 times per shift — a finding that invalidated all previous capacity improvement projects.
Causal Attribution Before Correlation Analysis
We built process knowledge into the system (machine → input → output causal model) before adding statistical analysis, avoiding the classic 'correlation without causation' trap in unguided ML on process data.
Supervisor-Facing First, Management-Facing Second
The primary dashboard is optimized for shift supervisors making real-time decisions, not for management reporting. Management views are aggregations of supervisor-level data — not separately designed views.
Results
What We Delivered
Solution Blueprint
How It All Fits Together
- 48 process instrumentation points
- Edge data aggregation
- Real-time event stream
- Real-time bottleneck detection
- OEE decomposition
- End-of-shift throughput forecasting
- Shift supervisor dashboard
- Maintenance exception alerts
- Shift performance reports
Lessons Learned
What We Improved
The Dynamic Bottleneck Discovery Changed Everything
The finding that the bottleneck shifts 3-6 times per shift invalidated 5 years of capital investment planning based on static bottleneck assumptions. The most valuable output of the project was this insight, not the dashboard.
Supervisors Need Actionable, Not Informational
Early dashboard prototypes showed too much data. Supervisors needed 3 things: current bottleneck, severity, and recommended action. Removing 80% of the initial dashboard metrics increased adoption by 4x.
Throughput Improvement Is Organizational, Not Technical
The platform identified 12 bottleneck causes. 8 required no technology — they were scheduling, staffing, and maintenance practice changes. The technology made the problem visible; the operations team solved it.
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