AR/VR App Development: Costs, Real Use Cases, and How to Vet a Partner
Short answer
AR/VR app development is the process of building augmented reality or virtual reality features into a mobile app or as a standalone experience. Costs range from about $20,000 for a single AR feature to $250,000 or more for a full VR training simulation, with most production builds landing between $60,000 and $150,000. Retail virtual try-on and phone-based AR shopping are the most proven use cases today, backed by Snap and Publicis data showing 94% higher conversion on AR product interactions. Field-service AR overlays and VR training simulation both have solid enterprise evidence, while headset-based VR still reaches far fewer people than phone-based AR. RaftLabs builds mobile apps and spatial/3D interfaces and can scope an AR or VR feature through that mobile and 3D engineering lens.
Key Takeaways
- AR/VR app development costs range from about $20,000 for a single AR feature added to an existing app to $250,000+ for a full VR training simulation. Most production builds land between $60,000 and $150,000.
- Retail virtual try-on and phone-based AR shopping are the most proven category today: Snap and Publicis found AR product interactions produce 94% higher conversion, and Ulta Beauty generated 30 million product try-ons in two weeks from one AR activation.
- Headset-based VR is real but still reaches far fewer people than phone-based AR - IDC tracks roughly 13-14 million XR headsets shipped worldwide per year, a fraction of smartphone volume.
- Field-service AR overlays and VR training simulation both have solid enterprise evidence (Boeing's AR-guided assembly, Walmart's VR training program), but they work best as a narrow pilot on one workflow first, not a full rollout.
- The right AR/VR partner should be judged on mobile and 3D/spatial engineering fundamentals - ARKit/ARCore, Unity or Unreal, 3D asset pipelines - not on a long list of AR/VR-labeled case studies, since the discipline is young enough that few vendors have one.
Snap and Publicis found that products with an AR experience attached convert 94% higher than the same products without one. Ulta Beauty ran a single AR try-on activation and generated 30 million product try-ons and $6 million in incremental purchases in two weeks. Those are the kind of numbers that get an AR/VR pitch approved.
What the pitch usually skips is the rest of the picture. Which use cases have that level of evidence behind them, which are still closer to R&D than product, and what a build actually costs once you move past the demo.
This guide is written for a decision-maker who is trying to figure out whether AR or VR is worth building for their product, not for an AR/VR specialist. It covers what the terms actually mean, which use cases are proven versus still niche, realistic cost and timeline ranges, and a short framework for evaluating a development partner before you sign anything.
What AR, VR, and XR actually mean
AR (augmented reality) overlays digital content onto the real world, usually through a phone camera or a pair of smart glasses. ARKit on iOS and ARCore on Android are the frameworks that make this work. The IKEA Place app is a familiar example: it lets you preview a piece of furniture in your own room before buying it. Snapchat lenses work the same way. Most people have already used one or the other without thinking of it as "AR."
VR (virtual reality) replaces your surroundings entirely. You put on a headset such as a Meta Quest or an Apple Vision Pro and the real room disappears. VR needs dedicated hardware, which is the single biggest constraint on how many people can use it.
XR (extended reality) is the umbrella term that covers AR, VR, and mixed reality, where digital and physical objects interact in the same space.
The practical reason most consumer-facing product features today are AR rather than VR is simple: AR only needs a phone that's already in the customer's pocket. VR needs a headset most people don't own yet.
Which AR/VR use cases are proven, and which are still niche
The market forecasts are large. Grand View Research projects the global AR market to reach $597.54 billion by 2030, growing at a 39.8% CAGR. Its VR market forecast puts VR at $129.0 billion in 2025, growing to $901.2 billion by 2033. Statista estimates combined worldwide AR and VR revenue at roughly $50.9 billion in 2026.
Big numbers like that don't tell you which specific use case is worth building for your product today. Here's a more useful breakdown, by category:
| Use case | Maturity | What the evidence shows |
|---|---|---|
| Retail virtual try-on / AR shopping | Proven | Snap and Publicis: AR product interactions convert 94% higher. Ulta Beauty: 30M try-ons and $6M in incremental purchases from one activation. |
| Field-service / maintenance AR overlays | Proven in enterprise pilots | Boeing's AR-guided wire-harness assembly cut assembly time by roughly 25% and roughly halved the error rate. |
| Training simulation (VR) | Proven, concentrated in high-stakes industries | Walmart's Strivr VR training program shows 10-15% higher knowledge retention than traditional training, deployed across thousands of stores. |
| Real-estate spatial visualization | Common tooling, thinner performance data | Spatial walkthrough tools (Matterport and similar) are now standard in real-estate listings, but reported performance gains vary widely by source and aren't independently verified here. |
Retail try-on and AR shopping is the category with the most repeatable, independently reported evidence. It's also the cheapest to build, because it typically runs as a feature inside an existing shopping app rather than a standalone product, using phone-based AR that any customer with a modern smartphone can already access.
Field-service AR works because the value is narrow and measurable: a technician looking at a piece of equipment sees an overlay showing which wire, bolt, or panel to touch next. Boeing's AR-guided wire-harness assembly result is a real, independently documented case, but it's an enterprise pilot on one specific workflow, not evidence that AR overlays generalize cleanly to every maintenance task. Treat it as a strong signal for a narrow pilot, not a guarantee for a broad rollout.
VR training simulation has similarly strong evidence in high-stakes, repeatable-skill contexts, where the cost of a mistake in the real world is high (safety procedures, customer-facing soft skills, equipment operation). Walmart's Strivr VR training program is the widely cited example, showing 10-15% higher knowledge retention than traditional training across thousands of stores. What VR training doesn't have yet is reach: IDC tracks worldwide XR headset shipments at roughly 14.5 million units in 2025, forecast to dip slightly to about 13.6 million in 2026 before rebounding to 27.3 million by 2030. That's a real, growing market, but it's still a fraction of smartphone volume, which is the practical ceiling on how many people any headset-based VR experience can currently reach.
Real-estate spatial visualization is the category to be most careful with. Spatial walkthrough tools are genuinely common now, and buyers have come to expect them on higher-end listings. But the specific performance claims that circulate for this category, more views, faster sales, trace back to secondary sources that don't independently verify the original number. Build for this use case because the tooling is mature and buyers expect it, not on the strength of a specific stat.
What AR/VR app development costs
Cost depends almost entirely on scope: whether you're adding one AR feature to an app that already exists, or building a standalone AR product, or building a full VR experience from scratch.
| Scope | Description | Cost range | Timeline |
|---|---|---|---|
| Single AR feature | Added to an existing mobile app - product visualization, try-on view, simple overlay | $20,000-$60,000 | 8-12 weeks |
| Standalone AR app | Custom tracking, 3D asset pipeline, backend integration | $60,000-$150,000 | 14-20 weeks |
| Full VR experience | Custom 3D environments, headset-specific optimization, multi-platform | $100,000-$250,000+ | 16-26 weeks |
These are general industry ranges, not a quote for a specific build. Get a written scope before committing budget.
What drives cost up: custom 3D content built from scratch rather than licensed or scanned assets, targeting multiple headsets or platforms instead of one, and headset-specific performance optimization. That last one is a real and often underestimated engineering cost, because VR has a much lower tolerance for dropped frames than a typical mobile app.
What drives cost down: scoping a single workflow instead of a full rollout, building for phone-based AR instead of a headset, and reusing the infrastructure, authentication, and backend of an app you've already built rather than starting from zero.
The VR row is worth a second look. Most of the cost and most of the timeline in a VR build goes into the 3D environment and content pipeline, not the application code. A VR experience with a simple environment can come in well under $100,000; a VR experience with a large, detailed, multi-scene environment can exceed $250,000 on content alone.
How to evaluate an AR/VR development partner
AR/VR is a young enough discipline that very few development companies, RaftLabs included, have a long, dedicated AR/VR case-study portfolio. That's not automatically a red flag. What matters more is whether the engineering fundamentals underneath AR/VR work are actually there. A few direct questions surface that faster than a portfolio review:
What mobile and 3D engineering have they actually shipped? ARKit or ARCore integration, Unity or Unreal experience, and a working 3D asset pipeline are the real skill markers. A slide with the words "AR" and "VR" on it is not.
How would they scope a first version? A credible partner proposes a narrow pilot on one device and one workflow first. Anyone recommending a multi-platform rollout on day one, before you've validated that the use case works for your specific product, is optimizing for the size of the invoice, not the outcome.
Who owns the 3D assets and source code after launch? Get this in writing before the build starts, not after.
How many AR/VR-specific projects have they delivered, versus how much adjacent mobile and 3D engineering do they bring? Ask this one directly. Given how young the field is, honest adjacency, real mobile and 3D engineering experience applied to a new problem, is often a more reliable signal than an inflated case-study list built from marketing-page demos.
Where RaftLabs fits
RaftLabs builds mobile applications: iOS app development in Swift and SwiftUI, Android in Kotlin, and cross-platform work through mobile app engineering. That includes ARKit as one of the standard platform integrations on iOS builds, alongside the mobile and 3D-adjacent engineering (spatial UI, camera-driven interaction, real-time data handling) that AR and VR features are built on top of.
We don't have a dedicated AR/VR case-study portfolio yet, and we'd rather say that plainly than pad a page with adjacent work relabeled as AR/VR delivery. What we can do honestly is scope an AR or VR feature through the mobile and 3D engineering lens described above. That means starting with a narrow pilot on one workflow, the same approach recommended earlier in this guide, rather than a full platform rollout before anyone has validated that the use case works for your product.
If you're weighing whether an AR or VR feature is worth building, the useful next step is a scoping conversation, not a proposal. Get in touch and we'll walk through the use case, the realistic cost range, and whether a pilot makes sense before either of us commits to more than that.
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Frequently asked questions
- A single AR feature added to an existing mobile app, such as a product visualization or try-on view, typically costs $20,000 to $60,000. A standalone AR app with custom tracking, 3D asset pipelines, and backend integration runs $60,000 to $150,000. Full VR experiences with custom 3D environments and headset-specific optimization run $100,000 to $250,000 or more, depending on environment complexity and how many platforms you target. These are general industry ranges - get a written scope before committing budget.
- AR (augmented reality) overlays digital content onto the real world through a phone camera or smart glasses - the IKEA Place app previewing furniture in your room is a familiar example. VR (virtual reality) replaces your surroundings entirely through a headset like Meta Quest or Apple Vision Pro. XR (extended reality) is the umbrella term covering AR, VR, and mixed reality. Most consumer product features today are AR because they only need a phone camera; VR requires a headset, which limits how many people can use it.
- Retail virtual try-on and phone-based AR product visualization have the strongest evidence: Snap and Publicis found that products with AR experiences convert 94% higher, and retailers report lower return rates after adding virtual try-on. Field-service AR overlays that guide technicians through repairs, and VR training simulation for high-risk skills, both have solid enterprise pilot data - Boeing's AR-guided wire assembly and Walmart's VR training program are two widely documented examples. Real-estate spatial walkthroughs are common but the category is more mature in tooling than in hard performance data.
- A single AR feature added to an existing app typically takes 8-12 weeks. A standalone AR app with custom tracking and 3D content typically takes 14-20 weeks. A VR training or simulation experience typically takes 16-26 weeks, largely driven by the 3D environment and content pipeline rather than the code. These are general industry ranges - confirm a written scope before committing to a timeline.
- Ask what mobile and 3D engineering they have actually shipped - ARKit or ARCore work, Unity or Unreal experience, and 3D asset pipelines are the real skill markers, not just the words 'AR' or 'VR' on a slide. Ask how they would scope a first version: a credible partner proposes a narrow pilot on one device and one workflow, not a multi-platform rollout on day one. Ask who owns the 3D assets and source code after launch. And ask directly how many AR/VR-specific projects they have delivered versus how much adjacent mobile and 3D engineering they bring - the discipline is young enough that honest adjacency is often a better signal than an inflated case-study list.
- WebAR, which runs inside a mobile browser via WebXR, works well for lightweight experiences - product previews, marketing filters, simple visualizations - with no app download required, which increases reach. Native AR, built into an iOS or Android app with ARKit or ARCore, gives you deeper device access, better tracking accuracy, and offline capability, but requires an install. Most retail try-on experiences use WebAR for reach; most enterprise field-service and training tools use native apps because they run in controlled environments where an install is not a barrier.
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