Lanchester R&DTactical Exploration Lab
Market & Asset Optimization
Food SystemsCircular EconomyLogistics

gk-mvp

Distributed food system optimizing local supply matching.

gk-mvp Diagnostic
IMG_REF // GK-MVP

Problem Defined

"Food waste is high because producers lack coordination to reach distributors."

01

Strategic Context

Localized systems suffer from supply-demand drift.

02

Competitive Imbalance

Producers lack a coordination layer for effective redistribution.

03

System Hypothesis

A structured coordination node increases resource resilience.

04

Process Architecture

How the system was designed, tested, and refined.

01

DEFINE

Objective

Identify coordination failures in localized food systems.

What We Did
  • Audited local producer waste
  • Mapped supply-demand drift in community kitchens
  • Identified logistics silos
What Failed
  • Focused on supply volume, ignored the timing of perishables
What We Learned
  • Food systems are timing-critical; coordination must be near-real-time
What We Adjusted
  • Reframed as a dynamic logistics coordination system
02

MAP

Objective

Map local supply nodes to distribution touchpoints.

What We Did
  • Created supply matching diagrams
  • Mapped route optimization paths
What Failed
  • Initial maps were too centralized; ignored node-to-node exchange
What We Learned
  • Resilience requires distributed, not just centralized, matching
What We Adjusted
  • Updated system map to support peer-to-peer node transfers
03

VALIDATE

Objective

Test matching efficiency and waste diversion.

What We Did
  • Ran pilot with 40 community food nodes
  • Measured matching velocity
What Failed
  • Producers were overwhelmed by high-frequency updates
What We Learned
  • Input friction must be minimal for busy small-scale producers
What We Adjusted
  • Integrated simple "one-tap" supply flagging
04

EXECUTE

Objective

Build the supply matching and logistics engine.

What We Built
  • Supply matching engine
  • Logistics coordination layer
  • Node dashboard
What Failed
  • Over-built the inventory management features early on
What We Learned
  • The matching node is more valuable than a deep database
What We Adjusted
  • Prioritized immediate matching alerts over long-term inventory history
05

MEASURE

Objective

Calculate waste diversion and community node health.

Metrics Tracked
  • Matching efficiency
  • Waste diversion tonnage
  • Node activity
What Failed
  • Metrics focused on calories, not nutritional density or timing
What We Learned
  • Network health is defined by node response time, not just volume
What We Adjusted
  • Introduced response-time calibration for matches

Rule Application

How doctrine was operationalized.

Intellectual Rigor
01_INT
Applied By
  • Mapping food circularity loops
  • Defining systemic friction points
Evidence

2 tons of waste diverted via structured coordination in first year

Tactical Execution
02_TAC
Applied By
  • Shipping basic matching first
  • Iterating on logistics routes
Evidence

System operational with first 10 nodes in 14 days

Human Calibration
03_HUM
Applied By
  • Reducing administrative burden for volunteers
  • Designing for mobile-first coordination
Evidence

Over 500 meals facilitated via zero-admin volunteer flows

Machine Leverage
04_AI
Applied By
  • AI-driven supply/demand signaling
  • Automated route planning
Evidence

AI predicts supply surges before they become waste

05

Product Architecture

Supply matching engine, contributor onboarding, logistics flows.

gk-mvp Architecture
System Schematic // V-01
06

AI Leverage

Supply/demand signaling and automated route planning.

07

Outcomes & Learnings

Reduced waste through structured community coordination.