VR game development is not a single product type โ it spans training simulations, multiplayer social worlds, single-player narrative experiences, and enterprise applications that happen to use game mechanics. At EJAW, we cover all of these verticals with the same engineering depth and creative process, from early concept and prototyping through to certification, store submission, and post-launch support.
Full-cycle development of VR titles for Meta Quest, PlayStation VR2, and PC-tethered headsets. We handle everything from interaction design and locomotion systems to performance optimization specific to each platform’s GPU and memory constraints.
Scenario-based training tools used in healthcare, manufacturing, military, and education. These projects require branching logic, progress tracking, LMS integration, and measurable performance outcomes โ not just immersive visuals.
Networked VR environments where multiple users share the same virtual space in real time. We design avatar systems, voice integration, anti-cheat for competitive modes, and server architecture that keeps latency low enough to prevent discomfort.
Story-driven experiences that place players inside a narrative. These projects demand careful direction of player attention, spatial audio design, and cinematic camera work adapted for 360-degree environments where the viewer controls the viewpoint.
Interactive walkthroughs of unbuilt or existing spaces. We convert CAD and BIM data into photorealistic real-time environments, add interactive material selectors, and optimize scenes for headsets without sacrificing visual fidelity.
Adapting existing flat-screen games or apps into VR-native experiences. This goes beyond adding a camera rig โ it means re-designing interaction systems, UI placement, locomotion, and comfort settings from the ground up for the medium.
Our team works in both Unity and Unreal Engine and selects the right tool based on project requirements โ not habit. Below is a breakdown of the platforms, engines, SDKs, and tools we use throughout the development lifecycle. We are also flexible with proprietary pipelines and can integrate into your existing tech stack if you are augmenting an internal team.
| Category | Technologies | Use Case |
|---|---|---|
| Game Engines | Unity (URP/HDRP), Unreal Engine 5 | Core runtime, rendering, physics, and scripting |
| VR SDKs | OpenXR, Oculus SDK, SteamVR, PSVR2 SDK, WebXR | Platform abstraction, input handling, tracking |
| Target Hardware | Meta Quest 2/3/Pro, PSVR2, Valve Index, HTC Vive, Pico 4 | Platform-specific builds and certification |
| Networking | Photon Fusion, Mirror, Unity Netcode, custom WebSocket | Multiplayer, social, shared simulations |
| Spatial Audio | Steam Audio, Resonance Audio, Meta Spatial Audio SDK | 3D positional sound, reverb, occlusion |
| 3D Toolchain | Blender, Maya, Substance Painter, ZBrush, Houdini | Asset creation, texturing, rigging, VFX |
| Backend & Cloud | AWS, Azure PlayFab, Firebase, custom REST & GraphQL APIs | Leaderboards, analytics, user auth, telemetry |
| CI/CD & QA | GitHub Actions, Unity Cloud Build, Jenkins, TestRail | Automated builds, regression testing, release pipelines |
We follow a structured but adaptable process that has been refined across dozens of shipped VR titles. Each phase has defined deliverables and review checkpoints so you always know where the project stands and what comes next. The phases below are sequential for new projects, but we can enter at any stage โ including taking over a project mid-development from another team.
We align on the core loop, target audience, platform constraints, and business model. This phase ends with a GDD (Game Design Document) and a feasibility assessment covering timeline, team size, and budget range. For enterprise clients, we also map out success metrics and integration requirements at this stage.
Before any serious art or content production begins, we build a grey-box prototype to validate movement systems, interaction feel, and comfort. VR motion sickness is a real risk โ we run comfort tests with actual headsets on real users and iterate until the core experience is stable. This step saves significant rework costs later.
Our artists produce 3D environments, character models, UI panels, particle effects, and animations optimized for VR rendering budgets. We work in parallel with the engineering team so assets are integrated and tested at playable framerates throughout production โ not dumped in at the end and then cut for performance.
Full feature implementation: gameplay systems, AI, physics interactions, network layer if applicable, audio integration, UI/UX flows, analytics hooks, and backend services. We deliver regular playable builds โ typically weekly or bi-weekly โ so you can review progress and provide feedback in context rather than from screenshots or reports.
Platform certification is a distinct process from regular QA, especially for Meta and PlayStation. Our QA team runs functional, performance, comfort, and certification checklists in parallel. We target consistent 72+ fps on standalone hardware and 90+ fps on PC VR โ not as aspirational goals, but as hard requirements that gate release.
Store submission, release coordination, and post-launch monitoring. We track crash reports and performance telemetry after launch and provide a defined support window for hot fixes. For ongoing projects, we also offer retainer-based support covering content updates, platform SDK upgrades, and new feature development.
The VR development market has no shortage of vendors, but the distance between a team that has shipped VR titles and one that has not shows up clearly in the final product โ in comfort, in performance, in the intuitiveness of interactions, and in the stability of the codebase. Here is what we bring to the table that generic game studios often cannot.
Platform selection has a major impact on development cost, audience reach, technical requirements, and revenue potential. Below is an overview of the major VR platforms we develop for, along with the key tradeoffs each one presents. For most client projects, we recommend a multi-platform strategy to maximize ROI, but we help you prioritize based on your audience and budget.
| Platform | Type | Audience Size | Dev Complexity | Best For |
|---|---|---|---|---|
| Meta Quest 2/3 | Standalone | Very Large | Moderate | Consumer games, enterprise training, broad reach |
| PlayStation VR2 | Tethered (Console) | Large | High | High-fidelity consumer games, established PS5 audience |
| Valve Index / PC VR | Tethered (PC) | Medium | High | Premium experiences, enthusiast market, simulation |
| Pico 4 / Enterprise | Standalone | Growing | Moderate | Enterprise, Asia-Pacific market, B2B deployment |
| WebXR (Browser) | Browser-Based | Unlimited | LowโModerate | Marketing experiences, demos, low-friction distribution |
Virtual reality game development is not simply regular game development with a different camera. The medium introduces a set of hard technical and design constraints that do not exist in flat-screen development. Understanding these upfront helps set realistic expectations and prevents costly decisions early in production.
These are the questions we encounter most often from clients who are considering a VR project for the first time. If your question isn’t answered here, our team is available for a free consultation call where we can discuss your specific project scope and requirements in detail.
Development timelines depend heavily on scope. A focused single-mechanic experience or training simulation typically takes 4โ8 months. A mid-scope consumer game with multiple environments, story content, and multiplayer systems is more likely to run 12โ18 months. We provide detailed timeline estimates after the discovery phase when scope is clearly defined, not before. Any studio quoting exact timelines before understanding your full requirements should be approached with caution.
For a small but polished single-platform VR experience, budgets typically start around $80,000โ$150,000. Mid-range projects with custom art, multiple levels, and cross-platform support often range from $200,000 to $600,000. Large-scale games or enterprise training platforms with advanced backend systems can exceed $1 million. Cost is driven primarily by the team size required, the volume of custom art assets, platform count, and the complexity of gameplay and networking systems.
For most consumer-facing games, we recommend starting with Meta Quest because it has the largest standalone VR install base and a relatively straightforward certification process. If your audience is primarily PC gamers or sim enthusiasts, SteamVR may be more appropriate. For enterprise projects, Pico 4 is worth considering if you are deploying in a corporate fleet. After your initial release is stable, we can port to additional platforms incrementally using shared codebases to minimize the additional cost.
Yes. We regularly step into projects mid-development โ either as a rescue engagement where the original team has stalled, or as an augmentation to an internal team that needs specialist VR skills. We start with a codebase audit to assess the current state, identify technical debt, and estimate what it will take to reach your target milestones. This assessment is typically completed within two weeks and gives you a clear picture of the path forward before committing to a full engagement.
Yes, on both counts. We sign NDAs before any project discussions that involve proprietary information. All intellectual property โ source code, 3D assets, design documentation, proprietary tools, and any other deliverables produced under your contract โ is fully transferred to you. We retain no ongoing rights to license, resell, or reuse any part of your project. This is a standard term in our contracts and is not negotiable, because we believe that what we build for you should belong entirely to you.