AR/VR software companies build augmented reality, virtual reality, and mixed reality applications, ranging from mobile AR filters and product visualization tools to full immersive VR training simulations and headset-native apps. Some specialize in a single platform like Meta Quest, Apple Vision Pro, or WebAR, while others build cross-platform experiences using engines like Unity or Unreal.



Hardware platform is usually the first filter worth applying to an AR/VR development company, since a team building specifically for Meta Quest, Apple Vision Pro, or HoloLens has genuinely different expertise than one focused on mobile AR try-on features or browser-based WebAR that needs no app download at all - broad-sounding portfolio language doesn't always translate across those hardware boundaries. Engine choice matters nearly as much: most AR/VR work runs on Unity, Unreal Engine, or web-based AR frameworks, and that choice affects performance, ongoing cost, and how easily an app can be updated or ported to a different platform down the line. Comfort and performance carry more weight here than in typical software development - frame rate drops or tracking lag in VR specifically can cause motion sickness, which is why Meta publishes its own VR performance guidelines laying out the rendering and latency targets developers aim for to avoid exactly that problem. It's worth asking directly what testing a company does on real hardware, not just in a simulator, since simulator performance and real-headset performance can diverge in ways that only show up once actual users put the headset on. Asset and code ownership terms are also worth clarifying before the project starts - 3D models, environments, and code built for an AR/VR project can be licensed very differently depending on the agreement, and that's easier to negotiate upfront than after delivery.
AR/VR software refers to applications that create augmented reality (digital content overlaid on the real world), virtual reality (fully immersive digital environments), or mixed reality experiences that blend both. It includes mobile AR apps, headset-native VR software, and web-based experiences used for gaming, training, marketing, and product visualization.
AR software overlays digital elements onto a view of the real world, typically through a phone camera or AR glasses, while VR software creates a fully immersive digital environment viewed through a headset that blocks out the real world. Mixed reality (MR) sits between the two, allowing digital objects to interact with the real environment. Some companies build for only one category, while others work across all three.
Cost varies widely depending on the complexity of the experience, the target hardware, and whether the project uses existing engines or requires custom development. Check individual listings for specifics on pricing and project scope.
Start by confirming the company has experience with your target hardware and use case, whether that is a training simulation, a retail AR feature, or a headset-native game. Ask to see past projects on similar platforms, and check how they approach performance testing, since a poorly optimized AR/VR experience can be uncomfortable or unusable.
Timelines depend heavily on scope, ranging from a few weeks for a simple mobile AR feature to many months for a fully immersive VR simulation with custom 3D assets. Projects that reuse existing engine templates or asset libraries typically move faster than those built entirely from scratch.
Partially - engine and general 3D skills transfer, but platform-specific performance tuning and SDK familiarity often don't. A team experienced on Meta Quest isn't automatically equally capable on Apple Vision Pro.