Data,
off the screen.
We engineer advanced Mixed Reality (MR) and Virtual Reality (VR) solutions for high-end headsets (Apple Vision Pro, HoloLens 2, Meta Quest 3). Train workforces faster in safety-critical simulators, collaborate globally inside 1:1 digital twins, and overlay real-time IoT telemetry onto physical factory hardware.
Mixed Reality. Driven by Outcomes.
We don't build generic VR novelties. We engineer outcome-driven spatial computing applications that improve operational safety and customer conversion rates.
Spatial AI for Revenue Growth
- ✓AR Showrooms & Product Visualizers
- ✓Ram Mandir AR Spotlight
- ✓WebXR Interactive Showcases
Boosts marketing interaction times by up to 150% and improves purchase conversions by overlaying hyper-realistic 3D assets directly in the buyer's environment.
Spatial AI for Operations
- ✓VR High-Voltage MVP
- ✓Interactive Assembly Guides
- ✓Spatial Industrial Training
Cuts operator training cycles by 40% while reducing hazardous workplace staging incidents to zero by simulating high-voltage operations in secure VR.
Spatial AI for Leadership
- ✓Remote Operations Rooms
- ✓3D Building Information Models
- ✓IoT Spatial Overlays
Enables multi-user remote collaboration inside exact physical twins of factories, reducing travel expenses and accelerating facility setups.
2D manuals can't solve 3D problems.
Attempting to train engineers, maintain complex machinery, or design physical products using flat screens and PDFs leads to fatal errors and massive operational delays.
Traditional Methods
- ✕
Abstracted Training
Technicians read 500-page manuals to understand complex machinery, leading to low retention and high error rates during live maintenance.
- ✕
Costly Physical Prototyping
Designing cars, architecture, or hardware requires expensive physical models that take weeks to build and iterate upon.
- ✕
Remote Resolution Friction
Trying to explain a complex hardware failure to a remote expert over a shaky Zoom call on a smartphone is inefficient and dangerous.
Spatial Computing
- ✓
Contextual AR Guidance
Technicians wear MR headsets (e.g., Meta Quest, HoloLens) that overlay step-by-step 3D schematics directly onto the physical machine they are repairing.
- ✓
1:1 Digital Twins
Interact with full-scale, physics-enabled digital models of products before a single piece of metal is cut, validating ergonomics instantly.
- ✓
See-What-I-See Collaboration
A remote engineer can see exactly what the on-site technician sees, and draw spatial annotations in the air that lock onto physical objects.
Tangible Operational ROI.
Spatial computing isn't a marketing gimmick. It fundamentally reduces the cost of physical travel, hardware prototyping, and high-risk operational errors.
Train medical or industrial staff in zero-risk VR environments before they touch real patients or volatile machinery.
Senior experts can remotely guide junior technicians via 'See-What-I-See' AR, eliminating expensive flights.
Review 1:1 scale digital twins of hardware collaboratively instead of waiting for clay or 3D-printed mockups.
Technicians keep their hands on the machine while AR overlays the schematics directly into their field of view.
Engineered for Spatial Verticals.
Every screen is a bottleneck. We build spatial experiences that untether your operational data, mapping metrics onto the physical coordinate systems of your space.
Industrial & Utilities
High risk and physical cost of training operators on high-voltage electrical grids.
A high-fidelity Unity/WebXR-based virtual training system (VR POC MVP) mimicking hazardous grids, tracking steps for accuracy checks.
0 Staging Incidents | 40% reduction in training onboarding time
Collaborative CAD & Design Reviews
Reviewing vehicle or hardware designs globally requires building expensive physical clay mockups, slowing iterations.
Multi-user spatial rooms compiled for Apple Vision Pro & Meta Quest Pro. Designers globally walk around 1:1 scale digital twins of hardware, updating materials instantly.
Weeks saved in design cycles | Precise 1:1 ergonomics check
Healthcare Training
Teaching surgical procedures or spatial machine layouts to clinical personnel with limited physical hardware availability.
Hyper-realistic headset training environments (SimVR Medical) compiled for Meta Quest 3, offering physics-accurate drilling and surgical mockups.
Zero patient risk | 35% Reduction in training times
Field Maintenance Guidance
Technicians at offshore rigs or facilities face machine errors, requiring expensive expert travel.
Microsoft HoloLens 2 applications streaming live IoT telemetry and drawing step-by-step spatial diagrams locked onto matching machine components.
95% Reduction in repair errors | Eliminate specialist travel costs
Aerospace & Assembly
Manual checking of legacy PDF schematics during complex machine assemblies.
AR smart glasses apps overlaying interactive CAD models and diagnostic steps directly onto matching mechanical parts.
95% Reduction in assembly errors | Real-time sensor telemetry
Urban Planning & BIM
Architectural misalignments between engineers, builders, and corporate sponsors during mockups.
Interactive multi-user holographic tables projecting real-time city maps, traffic density models, and structural plans.
Pre-empts layout planning errors | Accelerated project reviews
Production Mixed Reality.
We deploy highly optimized spatial applications compiled to run on consumer hardware, not just simple design previews.
VR High-Voltage Industrial Training
Built a fully immersive, physics-compliant industrial simulation prototype in Unity/WebXR. It replicates high-voltage maintenance processes to train electrical operators without exposing them to actual voltage.
Eliminates physical training accidents by replacing live grid practice with secure virtual models.
Spatial Computing in the Field.
We don't build consumer games. We build mission-critical spatial applications for healthcare, manufacturing, and industrial design.
Medical universities faced severe bottlenecks in surgical training. Cadavers are expensive and limited in supply, and novice surgeons could not practice complex, high-risk procedures frequently enough to build muscle memory before operating on live patients.
We engineered a hyper-realistic Virtual Reality simulation environment. Using advanced physics engines and haptic feedback integration, surgeons can practice complex procedures (e.g., orthopedic drilling) in a zero-risk environment. The system records micro-movements, providing objective grading on precision and speed, reducing required physical training hours by 35%.
The Business Case for Spatial AI.
We understand that deploying Mixed Reality requires clear hardware scoping, optimized rendering budgets, and strict privacy controls.
For the CFO
We leverage browser-based WebXR standards to run on standard mobile phones, avoiding expensive enterprise headset acquisition.
- Spatial Feasibility & CAD AuditWeek 1-2
- Interactive App MVPWeek 3-8
- Asset CDN & LaunchWeek 9-12
For the CTO
We compile and compress high-polygon CAD assets using automated mesh decimation to ensure sub-second browser loads.
Optimized WebGL/WebXR code compatible with standard iOS and Android devices.
Auto-decimated 3D assets serving (glTF/USDZ) over global edge CDN cache networks.
Low-latency multiplayer state synchronization using lightweight WebSockets.
For the CISO
We secure physical telemetry data. No local camera feeds or room scan coordinates are saved or sent external to user devices.
Spatial anchor coordinates anonymized locally; camera access remains browser-confined.
No storage of user physical space mesh files on central databases.
Strict alignment with GDPR, utilizing secure private VPC metadata transport loops.
The Mixed Reality Delivery Framework.
We accelerate spatial deployments using our 12-week framework and pre-built interactive asset pipelines.
Discovery
Asset & Device Audit. We review existing CAD plans and map the capabilities of target display hardware.
Design
Interactive Prototyping. Drafting visual wireframes, defining spatial triggers, and setting polygon budgets.
Prototype
Core Coding. Compiling models, setting up interactive lighting, and launching WebXR browser tests.
Production
System Orchestration. Packaging models, connecting real-time telemetry APIs, and deploying to global CDN servers.
Optimization
Frame Rate Tuning. Scaling mesh resolutions and optimizing lighting calculations to maintain steady 60/90 FPS.
Spatial Mesh Optimizer
An automated compilation script that compresses high-polygon CAD source files into optimized glTF/USDZ formats, cutting manual modeling times by 4 weeks.
SLAM Anchor Module
A pre-engineered WebXR surface tracking script. Anchor models onto walls or floors instantly, bypassing custom SLAM engine configurations.
Telemetry WebSocket Link
A lightweight WebSocket script that synchronizes user locations and actions inside virtual rooms, enabling real-time remote collaboration.
The Spatial Engineering Stack.
Building for 3D requires an entirely different engineering discipline than traditional web development. We provide the specialized physics, rendering, and networking talent required for enterprise MR.
Device-Agnostic Engineering
We don't lock you into a single headset vendor. We build scalable architectures using OpenXR standards, ensuring your enterprise applications run seamlessly across Meta Quest, Microsoft HoloLens 2, Apple Vision Pro, and future spatial hardware.
Enterprise Spatial Governance.
Deploying headsets to a factory floor introduces new security vectors. We engineer MR applications with strict hardware management and spatial data privacy controls.
Hardware MDM Integration
We integrate spatial hardware (Quest, HoloLens, Apple Vision Pro) directly into your existing Mobile Device Management (MDM) platforms (e.g., Microsoft Intune, VMware Workspace ONE) for remote wiping, patching, and policy enforcement.
Spatial Data Privacy
AR headsets constantly map their environment using cameras and LiDAR. We ensure that raw environmental point-cloud data is processed on-device (Edge Computing) and never transmitted to external third-party cloud servers.
IP Protection (Digital Twins)
When streaming highly sensitive CAD models to a headset, we utilize secure, encrypted rendering architectures. The 3D assets remain on your secure servers, and only the rendered pixels are streamed to the headset over 5G/Wi-Fi.
Frequently Asked Questions
Clear answers about spatial hardware, CAD optimization, and enterprise deployment.
Virtual Reality (VR) is fully immersive (you only see digital). Augmented Reality (AR) overlays digital data onto the real world (often via phones). Mixed Reality (MR), like the Apple Vision Pro or HoloLens, anchors digital objects into your physical space so they interact realistically with physical objects (e.g., a digital ball bouncing off a real table).
It depends on the use case. For fully immersive, cost-effective training, we recommend the Meta Quest 3. For industrial, hands-free maintenance overlays, the Microsoft HoloLens 2 is standard. For high-end design reviews and executive collaboration, the Apple Vision Pro offers the highest fidelity.
Yes. However, highly detailed CAD files from SolidWorks or CATIA are too 'heavy' (too many polygons) to render on a mobile headset. We build automated data-prep pipelines using tools like Pixyz or Unreal Datasmith to optimize your CAD files for real-time 60fps rendering without losing visual quality.
Yes. For high-security environments, we never store 3D IP locally on the device. Instead, we use Remote Rendering, where the 3D model is rendered on your secure servers and the pixels are streamed to the headset over encrypted Wi-Fi/5G.
We integrate directly with Enterprise Mobile Device Management (MDM) solutions like Microsoft Intune. This allows your IT department to push the app, manage permissions, and remotely wipe headsets globally without needing to physically plug them into a computer.
Absolutely. We can connect the Unity/Unreal application to your backend REST/MQTT APIs. This allows a technician to look at a physical machine and see a holographic overlay of its live temperature, RPM, and maintenance history.
Poorly optimized apps cause motion sickness (due to low framerates or latency). We strictly engineer to maintain 60-90 FPS and optimize motion-to-photon latency, virtually eliminating simulator sickness in enterprise applications.
We build cross-platform. While the best experience is on a headset, we can compile the same application to run as WebXR (accessible via desktop browser) or as AR on standard iOS/Android tablets, ensuring universal accessibility.
Ready to bridge the physical and digital?
Stop relying on 2D manuals and expensive physical prototypes. Let our spatial engineers build your custom AR/VR deployment pipeline.
Schedule a Spatial Demo