While Augmented Reality superimposes flat information and Virtual Reality isolates the user from the physical environment, Mixed Reality merges digital content with physical architecture. Virtual objects co-exist, anchor, and interact realistically with real-world surfaces and physical objects. TechQRT’s Mixed Reality Solutions leverage real-time spatial computing engines—principally Unity, Unreal Engine, and Blender—to engineer depth-aware, interactive spatial experiences for industrial training, architectural simulation, spatial collaboration, and hands-free field maintenance.
Core Spatial & Engine Capabilities
- Spatial Mapping & Depth-Aware Occlusion: Real-time point-cloud meshing, plane classification, and dynamic spatial occlusion—ensuring virtual elements pass behind physical pillars, tables, and equipment instead of floating arbitrarily across the field of view.
- Real-Time Physics & Spatial Collision: Simulating physical mass, gravity, and collision responses between virtual models and physical surfaces, allowing users to place, bounce, or manipulate holographic objects on real workbenches and floors.
- Hands-Free Spatial Interaction (Gestures & Eye Tracking): Direct manipulation interfaces using vision-based hand-tracking, pinch-to-interact gestures, eye gaze vectoring, and voice commands to eliminate reliance on external handheld controllers in cleanrooms and shop floors.
- Persistent World Anchors & Multi-User Collaboration: Shared spatial coordinate systems where multiple team members—co-located or remote—can view, annotate, and manipulate the exact same 1:1 holographic asset anchored to a physical conference table or production bay.
- Hardware & Headset Interoperability: High-performance deployments configured for spatial headsets and pass-through devices (including Apple Vision Pro, Meta Quest series, and Microsoft HoloLens runtimes) via standardized OpenXR frameworks.
Target Enterprise & Operational Applications
- Industrial Training & Hazardous Procedure Simulation: Step-by-step assembly guides, high-voltage equipment overhauls, and hazard response rehearsals overlaid directly onto decommissioned or operational machinery without physical danger.
- Architectural & Civil Spatial Reviews (BIM Overlay): Superimposing 1:1 structural, HVAC, and electrical BIM models over active construction sites to validate layout accuracy and catch MEP clashes before installation.
- Remote Expert Spatial Assistance: Live video passthrough enabling remote senior engineers to place 3D annotations, arrows, and schematics that lock permanently to real machine components in the field worker's sightline.
- Interactive Automotive & Product Prototyping: Evaluating full-scale exterior curves, interior ergonomics, and clearance tolerances by placing full-size virtual vehicles and assemblies inside physical design studios.
- Medical & Pre-Operative Spatial Planning: Transforming DICOM scans (CT/MRI) into interactive, depth-accurate anatomical holograms aligned to physical patient positions for surgical rehearsal and anatomical training.
End-to-End Development Lifecycle
- Spatial Scoping & Environment Assessment: Analyzing spatial dimensions, lighting conditions, tracking reliability, network latency requirements, and hardware form-factor targets.
- 3D Asset Engineering & Mesh Optimization: Sculpting high-fidelity models in Blender, baking PBR materials, and optimizing polygon counts and draw calls to maintain smooth 90+ FPS frame rates essential for preventing visual discomfort.
- Spatial Logic & Interaction Programming: Scripting hand gestures, spatial audio propagation, boundary fences, and physical mesh collision triggers in Unity or Unreal Engine using OpenXR and MRTK.
- Backend Integration & Telemetry Pipelines: Hooking spatial viewports into operational ERP backends (.NET Core, Python APIs), IoT sensor streams, and cloud databases for real-time telemetry overlays on physical machines.
- Ergonomic & Spatial QA Deployment: Rigorous testing of room-scale tracking drift, occlusion stability across lighting fluctuations, comfort fatigue metrics, and post-deployment client staff onboarding.
By uniting optimized 3D asset workflows in Blender with real-time spatial computing in Unity and Unreal Engine, TechQRT delivers mixed reality systems that merge physical and digital workflows with operational precision.