Context
Augmented reality is often perceived as an expensive and complex technology, reserved for large companies with significant budgets and dedicated infrastructures. The reliance on native apps, proprietary SDKs, and specific hardware has historically limited the adoption of AR in industrial, cultural and product contexts.
SLX AR Lens was created to break down this barrier. The goal is to bring reality augmented directly in your browser — on any smartphone — without prompting third-party installations, accounts or licenses. The access point is a marker: a printed image, a QR code, a label on a physical product. From there, the 3D content is activated, superimposed on the real scene framed by the camera.
It's not a generic consumer product - it's a technology foundation built with an approach engineering, designed to be integrated into real vertical solutions, with attention to performance, reliability and tailor-made customization.
Traditional AR vs SLX AR Lens
Traditional approach
SLX AR Lens
Design needs
Those who want to integrate augmented reality into a real product often come up against it the same problems: dependence on external platforms, technological lock-in, experiences that only work on certain devices, or flows that require an app installed with all the friction this entails for the end user.
The main needs that SLX AR Lens responds to are:
- Immediate accessibility — the end user does not install anything. Just the browser.
- Technological independence — no proprietary SDK, no AR API subscription.
- Complete customization — 3D models, markers and behaviors defined by the project, not by a generic template.
- Transparent integration — the solution fits into existing websites, applications or digital flows.
- Performance on real devices — optimization for the variety of mobile hardware available on the market, not just ideal laboratory conditions.
Application contexts
Product catalogue
The 3D product is activated from the label or packaging, in real scale.
Industry
Overlay technical diagrams and instructions on machinery or physical components.
Culture
3D reconstructions of historical finds or environments from panels and plaques.
Training
Exploded and animated components that can be activated from manuals or paper materials.
Proposed solution
SLX AR Lens is built on a marker-based WebAR architecture that combines computers real-time vision with 3D rendering in the browser. The system turns entirely sideways client, without depending on servers for visual processing.
The flow is simple: the user opens a link or scans a QR code, allows access the camera and point towards the marker. The system recognizes the image, calculates position and rotation in real time and overlays 3D content on the scene real with stable tracking. Everything happens in the browser, without installations.
Operation flow
1. Opens the link
Browser — no apps
2. Camera
WebRTC access
3. Recognizes the marker
Detection + tracking
4. 3D Content
WebGL rendering
No technological lock-in
The solution is built on open web standards. The 3D models, markers and logic of presentation remain the property of the customer, independent of any external platform. Updating content does not require interventions on the core code.
Technical specifications
| User login | Web browser — no installation required |
| iOS compatibility | iOS 14.3+ · Safari |
| Android compatibility | Chrome 90+ · WebGL and WebRTC support |
| 3D model format | GLTF / GLB · PBR materials · animations |
| Rendering | WebGL · optimized for mobile |
| Marker type | Custom image · print · label · screen |
| Backend required | Static file serving only · zero server-side processing for AR |
Development methodology
Integrating the SLX AR Lens into a real project follows a structured process which starts from the definition of the application context and arrives at the delivery of a solution tested on real devices, not in emulator.
Requirements analysis
Type of marker, 3D models existing or to be produced, display context and methods of integration into the existing digital system.
Configuration and optimization
Calibration of detection for real conditions, optimization of 3D models for mobile rendering, construction of the updateable content pipeline.
Integration into the customer's system
Embed via direct link or iframe, customization of UI and behaviors, connection with CMS or content management system if present.
Testing on real hardware
Tests on iOS and Android devices representative of the final target. Measurement of frame rate, detection latency and tracking stability under variable conditions.
Outputs
The result is a working WebAR system, tested on real devices, integrated into the customer's digital context and documented to enable autonomous content updates over time.
- Marker-based WebAR system configured and optimized for the project
- Custom markers (custom image or dedicated marker set)
- 3D content pipeline: import, optimization and deployment
- Integration into the customer's website or web application
- Tested on real iOS and Android devices
- Technical documentation and content update guide
- Post-deploy support for optimizations and variations
Possible extensions
Production of 3D models
From CAD files, scans or design specifications.
CMS for AR content
Autonomous updating of models without technical intervention.
Analytics use AR
Track scans, views and interactions to measure effectiveness.
Multi-markers and routes
Linked marker sets for interactive multi-stage routes.
Live demos
The SLX AR Lens demo is available directly from your browser. Open the link from smartphone, allow access to the camera and point towards the marker: the content 3D is activated without installing anything.
Try the demo from your smartphone
Open siliconlogix.it/demo/arlens from Safari or Chrome, allow access to the camera and point at the marker included in the demo. 3D content activates in the browser — zero installs.
Application of the method
SLX AR Lens is not a closed vertical application. It's a technological approach adaptable to very different domains and contexts, maintaining the same architecture basic and varying contents and presentation rules without redesigning the system from scratch.
The same logic of marker detection and 3D rendering can be applied to a product catalogue, to an industrial plant, to a museum itinerary, to materials training or retail experiences — with limited adaptation times compared to a solution built from scratch for each context.
The focus always remains on three elements: accessibility (zero friction for the end user), reliability (stable detection on real devices, not just in ideal conditions) e independence (no lock-in on third-party platforms or SDKs).
