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Platform Architecture & New Product Engineering · Life Sciences / Animal Genetics

Platform Architecture for an Animal-First Genetic Testing LIMS

Industry

Life Sciences / Animal Genetics

Engagement type

Platform Architecture & New Product Engineering

Methodology

6-step approach

Capabilities

Platform ArchitectureArchitecture LeadershipEngineering EnablementRegulated Environment Delivery

We led the architecture design and early platform engineering for a new-build laboratory information management system purpose-built for animal DNA testing operations. The engagement established the foundational data model, workflow architecture, and platform principles that would support lab operations, client-facing animal records, verifiable genetic reports, and long-term extensibility across species and genetic domains — built from first principles rather than adapted from an existing product.

The challenge

The organization was building a genuinely new product — not a modernization of an existing system, but a platform designed from the ground up for animal DNA lab operations. The core requirement was an operational LIMS that handled animal intake, sample management, case queues, result review, and report release as explicit, auditable workflows. But the longer-term vision extended beyond operations: a trusted data platform for durable animal records, verifiable genetic reports, organization and provider networks, search and identity resolution, and privacy-aware analytics.

Designing for that future without over-building in the present required clear architectural decisions about what constituted the durable core — the data and workflow layer that would remain stable as the platform expanded — and what was legitimately deferred. The platform also needed to support multiple species from the start without creating species-specific modules that would multiply maintenance burden as the animal domain grew.

The approach

We began with a domain model review and platform architecture design phase. The foundational question was what this platform actually managed at its core: not tests or samples or orders in isolation, but durable animal records — identity, ownership history, organization relationships, genetic facts, and report history — that would persist and accrue value over the lifetime of the platform.

From that foundation, we designed the operational LIMS layer as explicit workflow states rather than scattered status fields: case intake, sample receipt, queue assignment, result review, result release, and report publication each as defined, auditable transitions. The report model was designed for verifiability from the start — every published report versioned, signed, and independently verifiable via a verification ID and QR-backed URL.

The multi-species requirement was addressed architecturally through a generic genetics core: species as configuration data, not separate modules, so the same processing engine could support canine, feline, equine, bovine, and future species without code duplication. We designed the data model to hold genetic facts (health markers, parentage, ancestry, relationship classifications) as structured, species-aware records that could support downstream search, match, and breeding analytics.

The engagement concluded with documented architecture decision records, a phased implementation roadmap, and a platform design that separated the lab operations foundation from the longer-horizon platform capabilities in a way that allowed the team to build confidently in the near term without foreclosing future extensibility.

01Domain Model and Platform Architecture Design02LIMS Workflow Architecture03Verifiable Report Model04Multi-Species Generic Core05Platform Capability Sequencing06Architecture Decision Records and Handoff
01

Domain Model and Platform Architecture Design

Defined the durable animal record as the foundational data model — identity, ownership, organization relationships, genetic facts, report history — and designed the platform around that anchor rather than around individual product workflows.

02

LIMS Workflow Architecture

Designed lab operations workflows (intake, sample management, case queues, result review, release) as explicit, auditable state transitions rather than status fields scattered across records.

03

Verifiable Report Model

Designed the report publication model with versioning, signed snapshot hashes, verification IDs, and QR-backed verification URLs — supporting Published, Voided, Superseded, and Expired report states from day one.

04

Multi-Species Generic Core

Architected a species-neutral genetics processing core where species is configuration data, not a code branch — enabling canine, feline, equine, bovine, and future species support without separate modules or duplicated logic.

05

Platform Capability Sequencing

Defined the phased platform roadmap: operational LIMS as the near-term foundation, then durable animal records, then verifiable reports and client portal, then search and match, then breeding analytics and organization networks.

06

Architecture Decision Records and Handoff

Documented all foundational architectural decisions with rationale, tradeoffs, and implications — giving the internal engineering team a shared technical reference for decisions made during the design phase.

Why it matters

New-build platforms carry a different class of architectural risk than modernization engagements. The constraint is not accumulated debt — it is making foundational decisions that will govern how the platform grows for years. Getting the data model wrong means rebuilding it under delivery pressure later. Designing workflows as status fields instead of explicit states means losing auditability before the first audit ever happens. Embedding species-specific logic instead of building a generic core means multiplying maintenance burden with every new species supported. The value of rigorous architecture design at the start of a new product is not complexity for its own sake. It is the difference between a platform that can grow coherently and one that accumulates the same kind of structural debt in its first two years that mature platforms spend years trying to unwind.

Technologies & domains

Platform ArchitectureAnimal Genetics / LIMSDomain ModelingLife SciencesMulti-Species Data PlatformWorkflow ArchitectureData Platform Design

Outcome

The platform has a clear, documented architectural foundation that supports near-term lab operations delivery without foreclosing the longer-term platform capabilities that represent the product's durable value. The internal team has architectural decision records, a phased roadmap, and a shared understanding of the design principles that should govern future extension work.

Key results

6 documented
  • Durable animal record defined as the foundational data model for the platform
  • LIMS workflow layer designed as explicit, auditable state transitions across the full lab operations lifecycle
  • Verifiable report model designed with versioning, signing, and independent verification from the initial architecture
  • Multi-species generic core designed — species as configuration, not separate modules
  • Phased platform roadmap sequencing operational LIMS, durable records, client portal, search and match, and breeding analytics
  • Architecture decision records delivered, giving the internal team a documented technical foundation to build from

Capabilities applied

  • Platform Architecture
  • Architecture Leadership
  • Engineering Enablement
  • Regulated Environment Delivery
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