GAME DEVELOPMENT

Game Development

Games, mobile applications and immersive products for PC, console, iOS, Android, VR and AR.

From product discovery and gameplay systems to custom algorithms, platform engineering, optimization and live evolution, we own the software layer the player or end user directly experiences.

Discuss a Game ProjectExplore the other discipline

DISCIPLINE SCOPE

We own the player-facing product across games, mobile and immersive platforms.

Our game discipline covers full-cycle production and focused engineering for Unity, custom algorithms, PC and console, mobile games, interactive mobile applications, VR and AR.

The work can stand alone or connect to Backend & Cloud and AI through explicit contracts. Scope, staffing and cost remain visible per discipline even when one team coordinates the complete product.

Product and play

Core loop, interaction, systems design support, UX and the vertical slices used to validate the product.

Production systems

Unity architecture, content workflows, editor tools, build automation and performance budgets.

Platform delivery

PC, console, iOS, Android, VR and AR adaptation, integration, packaging and release support.

Connected experience

Multiplayer, backend, live content and AI integrated where the player-facing product needs them.

One production plan from product definition to live support.

We can take responsibility for a complete game or own a clearly bounded production layer. Product, design and engineering decisions are kept in the same delivery loop so a prototype does not become a disconnected throwaway and late backend or platform work does not derail the release.

Discovery and product definition

We turn the intended player experience, commercial constraints, platforms and team capacity into a testable scope, risk register and milestone plan.

Prototype and vertical slice

We validate the core loop, technical unknowns, art and content workflow, performance targets and production cost before committing to scale.

Production and integration

Gameplay, tools, content, multiplayer, backend contracts, build automation and platform requirements advance through shared playable milestones.

Launch and live support

We prepare release candidates, telemetry, operational ownership, rollback paths and a post-launch plan for fixes, content and live systems.

How we run a full-cycle engagement

Senior technical and product owners stay close to the work. Progress is demonstrated in running builds, while scope, quality and operating cost remain visible to the people making commercial decisions.

01
Frame the product
Define audience, platforms, core loop, content ambition, success measures and the assumptions that could invalidate the plan.
02
Prove the difficult parts
Build the smallest playable system that tests feel, feasibility, production workflow and the highest technical risks.
03
Produce in vertical increments
Ship integrated slices with gameplay, content, online services and release tooling working together.
04
Harden and transfer
Profile, test failure paths, prepare stores and platforms, document ownership and agree live-operation responsibilities.

What you receive

The exact package follows the engagement, but every phase ends in assets your team can inspect, run and continue using.

Product and technical discovery record
Playable prototypes and production builds
Source code, project configuration and build pipeline
Architecture, content workflow and operational documentation
Release, handover and post-launch plan

What you receive

One production plan from product definition to live support.

Beanstalker

A commercial VR game taken through procedural production, launch and later four-player co-op, with 60,000 copies sold and 90% positive Steam reviews.

One production plan from product definition to live support.

Incrempire

A playable Steam release delivered in two months to validate the game with real players and measurable launch-day activity.

One production plan from product definition to live support.

Unity engineering for teams that need to keep shipping.

We work inside new or established Unity products across gameplay, architecture, editor tooling, rendering, content delivery and platform integration. The goal is not simply clean code; it is a project that can absorb content, survive change and produce reliable builds at the speed the product needs.

Gameplay and systems engineering

Core loops, state, cameras, input, UI, progression, simulation and data-driven systems designed for iteration and testability.

Editor and content pipelines

Custom tools, validation, asset workflows, Addressables strategy and build-time checks that let designers and artists work safely.

Performance engineering

CPU, GPU, memory, loading and garbage-collection analysis followed by changes measured on representative target hardware.

Integration and platform delivery

SDKs, native capabilities, online services, headless servers, build automation and platform-specific release requirements.

How we improve or build a Unity project

We begin with the product constraints and the current project, not a preferred architecture pattern. Existing systems are preserved where they work; changes are prioritized by player impact, production friction and delivery risk.

01
Audit the project
Review assemblies, dependencies, scenes, assets, build configuration, runtime profiles and the team's current pain points.
02
Set measurable budgets
Agree target devices, frame time, memory, loading, build duration and iteration expectations.
03
Implement behind safe boundaries
Introduce systems in testable increments, with migration and compatibility planned for active content work.
04
Prove production readiness
Profile on device, automate builds, exercise failure paths and document the workflows the team will own.

Typical Unity deliverables

We provide production code and the practical tooling around it, not an isolated package that only its author understands.

Gameplay and reusable runtime systems
Unity editor tools and content validation
Performance captures, budgets and optimization record
Automated client or headless build pipeline
Integration notes, tests and technical handover

Typical Unity deliverables

Unity engineering for teams that need to keep shipping.

IN-GAME

Unity engineering for teams that need to keep shipping.

VOXSYS

A Meta-commissioned mobile VR voxel FPS targeting 90 FPS with Burst-based optimization and client-side prediction.

Unity engineering for teams that need to keep shipping.

Bad Goons

A Unity 6 multiplayer FPS combining voxel terrain, dedicated Linux servers and production tooling for large battles.

Unity engineering for teams that need to keep shipping.

Custom algorithms where engine defaults no longer fit.

Some products fail because a core workload grows faster than a general-purpose solution can handle. We design and implement algorithms around the real topology, update frequency, hardware and correctness requirements, then integrate them with the surrounding Unity or backend system.

Navigation and pathfinding

A*, hierarchical or domain-specific navigation, dynamic obstacle updates, reachability and multiplayer-aware movement for unusual worlds.

Spatial data structures

Octrees, grids, spatial hashes and custom indexes for visibility, proximity, collision candidates, world queries and streaming.

Procedural and voxel systems

Terrain generation, chunking, greedy meshing, modification, persistence and data transfer for large or player-editable worlds.

High-performance implementation

Data layout, batching, caching, Unity Burst and Job System work driven by profiles instead of fashionable rewrites.

From bottleneck to verified implementation

Algorithm work begins with evidence. We preserve a correct reference where possible, create representative datasets and measure total system cost—including synchronization, memory and integration overhead.

01
Define the workload
Capture input sizes, mutation patterns, correctness rules, target hardware and the performance budget that matters to the product.
02
Build a measurable baseline
Create benchmarks and representative scenes or datasets so improvements can be compared honestly.
03
Design and integrate
Select or adapt the algorithm, data layout and concurrency model, then connect it to gameplay and production tooling.
04
Stress and document
Test worst cases, memory behavior and failure modes, then document assumptions and safe extension points.

What the engineering package includes

The result includes the evidence required to maintain the system, not only optimized source code.

Workload model and performance budget
Reference benchmark and profiling captures
Production implementation and integration
Correctness, stress and regression tests
Design decisions, limits and extension guidance

What the engineering package includes

Custom algorithms where engine defaults no longer fit.