Built to order

Virtual Heritage Monument Tour in VR

This project lets anyone walk through a heritage monument without traveling to it. A Raspberry Pi-based 360° capture rig photographs the monument as overlapping panoramas; a WebXR virtual-tour web app stitches them into explorable scenes with clickable hotspots, an audio-style narration track, a historical timeline and a quiz. The tour runs in any WebXR-capable browser — on a phone in a Cardboard-style viewer, or on a desktop with mouse-drag navigation — so no expensive headset is required. The complete kit includes the capture rig, the stitching and tour-building workflow, and the tour app

Virtual Heritage Monument Tour in VR — project thumbnail preview
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The problem

Heritage monuments are fragile, distant and often inaccessible: travel costs, crowds and conservation closures keep most students from ever studying them on site. Photographs flatten them and video locks the viewer to the cameraperson's path. A 360° virtual tour fixes both — the viewer looks wherever they want — but commercial capture services are expensive and closed. This project builds the open, student-scale version: a Raspberry Pi 360° capture rig (Pi, camera modules, tripod mount) that the buyer uses to photograph a monument as overlapping panoramas, plus a WebXR tour web app where those panoramas become explorable scenes. Hotspots mark carved pillars, inscriptions and courtyards with info cards; a narration track and timeline tell the monument's story; a quiz checks what the visitor learned. Because the whole pipeline — capture, stitch, tour — is built by the student, the report documents a genuine content-production workflow, and the viva can go deep on panoramic imaging and WebXR.

How it works

  1. The buyer plans capture stations around the monument (courtyard, entrance, sanctum approach) and mounts the Pi rig on the tripod at each station.
  2. The capture script rotates through the camera modules (or triggers the 360 camera), shooting overlapping frames with fixed exposure per station.
  3. Frames are transferred to a PC and stitched into equirectangular panoramas with the documented open-source pipeline; the guide covers alignment failures and re-shoots.
  4. Panoramas are dropped into the tour app's scenes folder; the buyer authors hotspots (position, title, text, image) in a simple data file per scene.
  5. The WebXR viewer renders each panorama as an inside-out sphere; hotspots are positioned by yaw/pitch and open info cards on click or gaze.
  6. Narration text and the timeline are authored alongside; the quiz pulls its questions from the same content file so everything stays consistent.
  7. The finished tour is a static web app — hostable anywhere — viewable on desktop, phone-with-viewer, or a WebXR headset.

Tech stack:

  • Raspberry Pi (any recent model) + camera module(s) or 360 camera + tripod mount
  • Python capture script (timed/bracketed shooting, station logging)
  • Open-source panorama stitching pipeline (documented step-by-step)
  • WebXR / three.js-based 360° tour web app (single deployable app)
  • Hotspot/narration/quiz content as editable data files
  • Cardboard-style phone viewer compatible (no dedicated headset required)
Parameter Value
Capture rig Raspberry Pi + camera module(s)/360 camera, tripod mount, battery power
Panorama output Equirectangular 360° x 180° per station (resolution depends on camera used)
Viewer WebXR 360° viewer; desktop drag-look, phone Cardboard-style, WebXR headsets
Hotspots Yaw/pitch-positioned info cards with text + images, authored per scene
Narration Per-scene script with text transcript; buyer-authored
Timeline Monument history phases linked to scenes
Quiz Per-tour question set with scoring (typically 5 questions)
Deployment Static web app — any web host; no server code required
Content Buyer captures and authors their own monument; sample demo scenes included

Project features

  • [360° capture rig] Raspberry Pi with dual camera modules (or a 360 camera) on a tripod mount; a capture script shoots bracketed, overlapping panoramas at each marked station.
  • [Panorama stitching workflow] Documented open-source stitching pipeline turning each station's shots into one equirectangular panorama, with exposure blending notes.
  • [WebXR tour viewer] Explorable 360° scenes with drag look-around on desktop and head-tracked view in a Cardboard-style phone viewer or WebXR headset.
  • [Clickable hotspots] Info cards pinned to architectural features — pillars, inscriptions, doorways — with text and images the buyer authors per monument.
  • [Narration track] Per-scene audio-style narration with text transcript; the buyer records or writes their own script from research.
  • [Historical timeline] A scrollable timeline of the monument's construction phases and events, linked to the scenes they belong to.
  • [Visitor quiz] A short quiz per tour (5 questions typical) with scoring, built from the hotspot content.
  • [Tour builder guide] Step-by-step workflow: plan stations, capture, stitch, author hotspots, publish — reusable for any monument.

What is included

  • Assembled 360° capture rig (Raspberry Pi, camera modules, tripod mount, power bank)
  • Capture script and station-planning guide
  • Panorama stitching workflow documentation (open-source tools, troubleshooting)
  • Complete WebXR tour web app source (viewer, hotspots, narration, timeline, quiz)
  • Sample demo tour with included panoramas
  • Content-authoring guide (hotspot data format, narration scripting, quiz format)
  • Project report PDF (background, panoramic imaging, WebXR design, buyer-run capture procedure)
  • PPT presentation for final review
  • Viva Q&A preparation document (equirectangular projection, WebXR, stitching, hotspot math)
  • Setup guide (rig assembly, first capture, first tour build)

Limitations & prerequisites

  • Panorama quality depends on the camera used and the buyer's capture discipline — alignment failures from moving subjects or uneven exposure need re-shoots, and the guide is honest about this.
  • The buyer must obtain permission before photographing a protected monument; many sites restrict tripods and commercial-style shooting, and the guide covers permissions explicitly.
  • Stitching is a documented manual/semi-automatic workflow, not one-click software — it takes practice, and the report treats it as a skill the student learns.
  • WebXR headset support depends on the browser and device; the Cardboard-style phone path and desktop drag-look always work as fallbacks.
  • Narration, hotspot text and quiz content are authored by the buyer from their own research — the project ships the pipeline and sample content, not a finished monument encyclopedia.
  • Very large panoramas are heavy to download; the guide covers resolution/quality trade-offs for web delivery.

Frequently Asked Questions

Do I need an expensive VR headset?

No. The tour works with mouse-drag on a desktop, with a phone in a low-cost Cardboard-style viewer, and with WebXR headsets where available.

How are the 360° photos taken?

With the included Raspberry Pi capture rig at planned stations around the monument; the capture script shoots overlapping frames that are stitched into panoramas.

Which monument does it cover?

Whichever one the buyer captures — the project is the capture-to-tour pipeline plus a sample demo tour. The buyer authors hotspots, narration and quiz for their chosen monument.

How hard is the stitching?

It is a documented semi-automatic workflow with troubleshooting for common failures (moving people, exposure mismatch). Expect to re-shoot some stations while learning.

Can I use it for a monument I can't visit?

Only with legally usable panoramas — the pipeline accepts any equirectangular panorama, but the buyer must respect photo permissions and licenses.

Is this project suitable for a final-year project?

Yes — for Computer Science, IT and Electronics programs. It demonstrates embedded capture hardware, panoramic imaging, WebXR development, content pipelines and UX design, all strong viva material. Suitable for B.E./B.Tech final-year projects in Computer Science, IT and Electronics.

Components & software requirements
  • Raspberry Pi (any recent model) + camera module(s) or 360 camera + tripod mount
  • Python capture script (timed/bracketed shooting, station logging)
  • Open-source panorama stitching pipeline (documented step-by-step)
  • WebXR / three.js-based 360° tour web app (single deployable app)
  • Hotspot/narration/quiz content as editable data files
  • Cardboard-style phone viewer compatible (no dedicated headset required)
Delivery information

Built-to-order project. Delivery timeline is shared after order confirmation based on current queue.

Support terms

Complete documentation, setup guide, and viva preparation included. Support for setup and explanation provided.

Download abstract (PDF)

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