Drishti — Digitizing the Agricultural Supply Chain through AI

Standardizing wheat quality inspection through AI-Vision and establishing a "Digital Thread" of traceability in low-connectivity rural zones.

🧭 1. The Strategic Context

The Vision: To standardize a historically fragmented industry by digitizing wheat quality inspection and establishing a "Digital Thread" of traceability from field to warehouse.

The Challenge: Designing for high-stakes environments where the users are often in low-connectivity rural zones with varying levels of digital literacy.

⚠️ 2. The Problem: The "Inconsistency Crisis"

Traditional grain grading was a manual, subjective process plagued by:

  • Cognitive Bias: Inconsistent grading between different human inspectors.
  • The Traceability Gap: A total lack of data-driven history, leading to quality disputes at the warehouse level.
  • Operational Latency: Manual paperwork causing massive delays in the supply chain flow.

🛠️ 3. Key Design Decisions (Systems Thinking)

A. Camera-First "Frictionless" Entry

Decision: I made the Computer Vision Camera the primary interaction layer.

The "Why": For field users, typing data is a high-friction task. By utilizing a "Point and Shoot" mental model, we reduced the time-to-task while ensuring the AI received high-quality data inputs.

B. Guided "Step-Based" Heuristics

Decision: Broke down the complex inspection into a Linear Progress Flow.

The "Why": This reduces cognitive load for low-literacy users. Each step has a singular focus (e.g., "Take Photo," "Confirm Volume"), which minimizes human error and prevents "Decision Paralysis."

C. Offline-First Architectural UX

Decision: Engineered a Local-State Persistence model.

The "Why": In rural Bharat, connectivity is a variable, not a constant. The UI was designed to feel "instant" and functional without an active ping, syncing data only when a stable gateway is detected.

D. Translating AI into "Human-Readable" Logic

Decision: Abstracted complex machine learning confidence scores into Standardized Grade Categories (A, B, C).

The "Why": An inspector doesn't need a 0.98 probability score; they need to know if the grain is "Good" or "Bad." I focused on Information Utility over technical exposure.

⚙️ 4. The Engineering Edge (The "Syntax")

  • Traceability Dashboard: Designed a high-density web portal for stakeholders to visualize the grain journey across multiple supply chain nodes.
  • Scalable IA: The Information Architecture was built to be "Grain-Agnostic," allowing the system to scale from Wheat to Rice or Pulses without a UI redesign.

📈 5. Impact & Operational Metrics

  • Efficiency: Reduced manual inspection cycles by ~40%.
  • Quality Control: Achieved a high level of grading consistency, eliminating subjective disputes between field and warehouse.
  • Logistics Optimization: Real-time visibility enabled faster decision-making for supply chain stakeholders.

🔍 6. Professional Reflection

This project highlights a critical Senior UX skill: Designing for the Environment, not just the Screen. It proved that in the Agritech space, "Simple" is actually the most complex thing to design. Success was measured not by how many features we added, but by how many "Frustration Points" we removed from the field worker's day.