← All work
04NavGurukul2024

Internal platform · Asset lifecycle · Multi-campus operations

Multi-Campus Asset Management System

The product was not an inventory list. It was a continuously reconciled account of identity, location, responsibility, condition and history.

Internal platformAsset lifecycleWorkflow statesMulti-campus
RoleProduct Manager
Period2024
RolloutSarjapur pilot → organisation-wide production
ScopeRegistration · assignment · transfer · verification · repair · warranty / AMC
System Explainer Portfolio-created model of the asset record and lifecycle
Evidence key

Every product visual is labelled by provenance, so original work is never confused with a portfolio-created explanation.

Original Product Artifact Surviving source material from the product work.

A genuine working document, wireframe, screenshot or output that can be shown publicly.

Portfolio Reconstruction Recreated from documented product logic using synthetic or anonymised content.

A recreated product view grounded in the original work, using synthetic or anonymised information.

System Explainer Created for this portfolio to explain product logic; not product UI.

A simplified model created for this portfolio to explain system behaviour, workflow or product logic.

01

The operational problem behind an inventory request

The spreadsheet could say an asset existed. It could not reliably explain where it was, who held it, what condition it was in or how it reached that state.

Internal platforms · Asset lifecycle · Workflow systems · Multi-campus operations

Technology assets moved between campuses, students, employees, remote locations, storage and repair. Each movement changed more than one piece of data. The product challenge was to translate physical-world custody, intermediate states and recurring verification into system behaviour that operations could execute consistently.

01 Identity gap

The physical object and the digital row could drift apart.

A shared name or serial number was not enough for fast field verification. Each item needed a scannable digital identity linked to one authoritative record.

02 State compression

Location, responsibility and condition were being treated as one answer.

An asset could be active, assigned to an employee and physically remote at the same time. Those dimensions had to remain independent.

03 Invisible movement

A location edit erased the operational hand-off.

Inter-campus transfers required dispatch, in-transit, receiving and reconciliation—not an instantaneous change of campus.

02

One asset · four independent truths

A reliable record had to answer four questions at the same time.

The central data-model decision was to stop using one field as a proxy for the whole asset. Identity, location, responsibility and condition could change independently while remaining connected through lifecycle history.

Portfolio Reconstruction Synthetic asset record · production identifiers not published
Asset recordNG-SYN-00482▥ Barcode linked
01IdentityWhat is this asset?

Unique asset record · barcode · category · serial information

02LocationWhere is it now?

Campus · remote · storage · repair location

03ResponsibilityWho is accountable?

Student · employee · campus custodian · receiving owner

04ConditionCan it be used?

Active · needs attention · repair · storage · unavailable

Lifecycle historyEvery assignment, transfer, verification and repair remains attributable.
System Explainer From registration to recurring verification and history
01Register
02Barcode
03Assign
04Use
05Verify
06Repair / transfer / storage
07History + reporting
03

Three product decisions that made the record trustworthy

The product had to model physical reality instead of making it look instantaneous.

Each workflow was designed around the moment where a spreadsheet usually loses truth: when responsibility changes, when movement is incomplete, or when the digital record has not been checked against the object.

01System-of-record decision

Separate identity, location, responsibility and condition.

The record model avoided collapsing several operational questions into a single status field. This made it possible to represent assets that were active but remote, assigned but under repair, or present at a campus while awaiting hand-over.

System Explainer Reconstructed from the product workflow
02Workflow decision

Treat every inter-campus transfer as a transaction.

Movement became an auditable workflow with dispatch, in-transit, receiving and reconciliation states. The destination did not become authoritative until the receiving side confirmed the hand-over.

System Explainer Reconstructed from the product workflow
03Reconciliation decision

Build verification into normal operations.

Periodic barcode scanning and ownership or condition checks compared the physical item with the system record. Exceptions could then be investigated instead of remaining hidden inside ageing spreadsheets.

System Explainer Reconstructed from the product workflow
04

From operational policy to organisation-wide production

I translated asset policy and physical operations into explicit product rules.

My scope covered stakeholder discovery, Release 1 boundaries, PRDs and functional specifications, workflow states, permissions, exception handling, prioritisation, UX and engineering coordination, pilot planning, training and rollout. The first release deliberately focused on IT assets already under NavGurukul control so the team could establish a coherent production system before expanding scope.

01

Stakeholder discovery and operational policy mapping

02

Release 1 scope and asset-class prioritisation

03

Record model, workflow states and exception handling

04

Barcode and mobile-verification behaviour

05

Pilot, training and organisation-wide rollout

06

Production feedback and lifecycle refinement

System Explainer Narrow scope → pilot → controlled rollout
01Define product boundary
02Start with IT assets
03Design lifecycle rules
04Build and test
05Sarjapur pilot
06Train operators
07Roll out across campuses
08Monitor production
Scope principle

Deliver a coherent system of record for assets already under organisational control before expanding into procurement, ticketing and broader maintenance workflows.

05

Observed operational outcomes

Production evidence

What changed when asset movement became an explicit workflow.

01

Replaced fragmented spreadsheet tracking with a shared production workflow.

02

Improved visibility into asset location, responsibility and condition across campuses.

03

Improved transfer accountability through explicit dispatch, transit, receiving and reconciliation states.

04

Made physical verification easier and helped surface missing or unaccounted assets.

05

Provided leadership with consolidated inventory and lifecycle visibility.

Evidence boundary

The system was piloted at Sarjapur, rolled out organisation-wide and remained operational. Outcomes are presented as observed improvements in visibility, accountability and verification; no unsupported efficiency percentages are used.

Public evidence note

The interface visuals in this public case are portfolio reconstructions using synthetic records. Student, employee, asset and campus identifiers from the production system are not published.

06

What the work changed in how I think

Systems of record are promises about reality, not databases of last-known values.

01

The best MVP is often defined by exclusion.

Narrowing Release 1 to assets already under organisational control created a coherent system of record instead of a partial procurement, ticketing and maintenance suite.

02

Physical workflows need intermediate states.

Dispatch and receipt do not happen at the same moment. The data model has to represent the operational gap.

03

Ownership, location and condition are different facts.

Combining them into one field makes the interface simpler but the system less truthful.

04

Verification is a product capability, not a clean-up exercise.

Recurring reconciliation keeps the digital record connected to the physical asset over time.