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AI at Work: Transforming FMCG Warehouse Performance
Monal Jain Monal Jain
24 September 2025

AI at Work: Transforming FMCG Warehouse Performance

AI at Work: Transforming FMCG Warehouse Performance**

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Introduction

In the FMCG (Fast-Moving Consumer Goods) industry, warehouses form the backbone of supply chain efficiency. For companies dealing with massive product throughput — such as food staples like noodles — warehouse performance directly impacts on-time deliveries, product availability, and customer satisfaction.

Traditional supply chain analytics often focus on retrospective reporting, which can leave managers reacting instead of proactively optimizing operations. With Terno AI, warehouse managers and supply chain analysts can interact with datasets in natural language, uncovering bottlenecks, diagnosing issues, and recommending improvements in real time.

In this blog, I’ll walk through how Terno AI was applied to the Noodles Warehouse Dataset to identify factors affecting efficiency, highlight operational risks, and suggest strategies for optimization.

👉 Dataset & Prompts explored via Terno AI: Conversation Link

Dataset Overview

**Prompt:
** “Describe the attached dataset structure, including column types, missing values, and summary statistics.”

AI Insight Image

This prompt creates a formal data dictionary: it enumerates columns, marks numeric vs categorical types, and reports missing-value hotspots and basic distributions (mean, median, min/max). That foundation prevents analytic errors (e.g., treating IDs as numeric), highlights fields that need cleaning or imputation, and clarifies which metrics are reliable. For business users, this step builds trust in any subsequent recommendation — executives want to know the quality and scope of the data before acting. Practically, it determines whether additional data collection (e.g., more accurate footprint or workforce fields) is required to make confident operational decisions.

Insight:
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Overall, the dataset was moderately clean, with only minor missing values in infrastructure-related fields. Key predictive columns for efficiency were capacity size, refill requests, breakdowns, and flood impact.

Warehouse Size vs Throughput

**Prompt:
** “Explain the distribution of warehouse sizes (WH_capacity_size) and their effect on product throughput (product_wg_ton).”

AI Insight Image

Here we quantify how many warehouses fall into small/mid/large buckets and compare their throughput. That reveals whether scale drives volume linearly or if smaller sites perform more efficiently (utilization). For operations, this helps decide whether to expand capacity, consolidate SKUs into fewer large hubs, or optimize many small nodes for local service. Market decisions — like committing capex to expand a regional hub — hinge on evidence of throughput gains versus marginal costs, which this prompt supplies.

Insight:
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Top Warehouses by Refill Requests

**Prompt:
** “Which warehouses have the highest num_refill_req_l3m? Visualize top 10 warehouses by refill requests.”

AI Insight Image

This prompt surfaces the hotspots that most frequently need resupply, exposing demand surges, stockout risk, or poor inventory planning. A ranked chart makes it easy to see concentration (e.g., top 10 accounting for X% of requests). For operations teams, this drives tactical interventions: increase safety stock, add more frequent routes, or troubleshoot demand forecasting in those locations. From a commercial perspective, frequent refills often signal high retail velocity — candidates for premium service agreements or targeted promotions to deepen sales.

Insight:
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The ten warehouses with the highest number of refill requests (all 8 in the last 3 months) are:

WH_100029, WH_124944, WH_124935, WH_100006, WH_100059, WH_124918, WH_124999, WH_100027, WH_100014, WH_100020.

Transport Issues Across Zones

**Prompt:
** “Analyze transport_issue_l1y distribution across Location_type and zone. Provide bar chart and insights.”

AI Insight Image

By cross-tabulating transport incidents with urban/rural location and geographic zone, this prompt identifies where logistics reliability is weakest and whether problems are localized or systemic. Visualizing counts and rates enables prioritization: are rural zones suffering poor roads, or do certain zones experience seasonal disruptions? These insights inform tactical fixes (alternate carriers, route redesign) and strategic investments (warehouse relocation, regional cross-docks). They also help quantify service risk when expanding into new retail territories.

Insight:
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Storage & Breakdown Correlations

**Prompt:
** “Examine storage_issue_reported_l3m and wh_breakdown_l3m correlations with product_wg_ton.”

AI Insight Image

This analysis measures how storage problems and equipment breakdowns correlate with throughput — whether poor storage practices or frequent breakdowns materially reduce shipped tons. Strong negative correlations point to maintenance and storage as primary bottlenecks; weak correlations suggest other drivers. For facilities managers, this justifies (or deprioritizes) spending on preventive maintenance, storage upgrades, or staff training. Finance can then calculate ROI on maintenance capex by mapping it to recovered throughput and prevented lost-sales.

Insight:
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Flood Risk & Resilience

**Prompt:
** “Analyze flood_impacted and flood_proof warehouses and their operational efficiency.”

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This compares throughput between flood-impacted vs flood-proof sites to evaluate resilience value. If flood-proofed warehouses show significantly steadier throughput and fewer emergency refills, the business case for wider flood-proofing is strong. For market planning, this determines which regions need contingency stock or alternative delivery plans during monsoon seasons. Executives can use the analysis to prioritize infrastructure upgrades where weather risk threatens shelf availability and brand reputation.

Insight:
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Urban vs Rural Comparison

**Prompt:
** “Compare warehouses in urban vs rural areas on metrics: refill requests, breakdowns, and product volume.”

AI Insight Image

A direct urban/rural comparison highlights structural differences: urban centers may show higher throughput and refill frequency but lower breakdown rates, while rural sites may suffer transport and maintenance issues. These different profiles require tailored playbooks: automation and higher-frequency replenishment in urban hubs versus robustness, resilient routing, and workforce upskilling in rural nodes. Market teams use this to shape pricing, promotion cadence, and service-level agreements appropriate to each context.

Insight:
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Performance Trends & Bottlenecks

**Prompt:
** “Provide a detailed summary of warehouse performance trends and key bottlenecks.”

AI Insight Image

This syntheses temporal and cross-sectional findings—e.g., rising refill concentration, seasonal throughput dips, geographic clusters of transport faults—and ranks bottlenecks by impact. A clear bottleneck list (e.g., breakdowns > transport > flooding) helps leaders prioritize interventions that will unlock the most throughput. It also creates a basis for KPI targets and ownership: who fixes what and by when. Strategically, the summary becomes the decision brief used to allocate budget and manpower across operations, logistics, and resilience programs.

Insight:
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Prescriptive Recommendations

**Prompt:
** “Recommend operational improvements based on warehouse size, location, workforce, and infrastructure.”

This prescriptive prompt converts analytics into discrete actions: optimize route frequency for high-refill small warehouses, increase preventive maintenance where breakdown correlation is strong, invest in flood-proofing for high-risk high-volume hubs, or consolidate SKUs in under-utilized large sites. Each recommendation ties to expected impact (less downtime, fewer refills, higher throughput) and implementation considerations (capex, timeline). For managers, it becomes a prioritized playbook with measurable outcomes, bridging analysis to execution and ROI tracking.

Insight:

AI Insight Image

Conclusion

Warehouse efficiency is at the heart of FMCG supply chain success. Using Terno AI, we transformed raw warehouse data into a set of actionable insights and prescriptive strategies.

From identifying refill-heavy warehouses to highlighting the impact of floods, Terno AI enabled a holistic view of performance bottlenecks and guided recommendations for maintenance, infrastructure, and resource allocation.

As FMCG companies look to scale, AI-driven decision support systems like Terno AI can provide the competitive edge to ensure warehouses remain resilient, efficient, and responsive to market demands.

👉 Explore the full interactive session here: Terno AI Link.

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