A corporate showroom interactive system must work for several teams. Marketing needs accurate brand content. Sales needs dependable demonstrations. Facilities needs accessible equipment. IT needs a supportable network and software setup.
A project can satisfy the visual brief and still disappoint if these operating requirements are left unresolved.
Successful corporate showroom LiDAR implementation starts by agreeing how the space will be used, then validating the sensing, content, and operating workflow together. Equipment selection follows those decisions.
This guide explains how to move from an initial concept to a system that staff can operate, maintain, and update. It also identifies where CPJROBOT M1 and F1 LiDAR sensors and free testing software can support project evaluation.
1. Define the Showroom’s Role: Brand Exploration or Sales Demonstration?
These two uses need different interaction rules.
Brand Exploration
Visitors browse independently, often without instructions from a host. Content needs clear invitations, short discovery paths, and automatic recovery when someone leaves.
Success could mean visitors completing an introduction or finding a relevant product category without assistance.
Sales Demonstration
A presenter directs the discussion and opens material according to customer questions. The system needs predictable navigation, presenter control, and a way to prevent accidental visitor input from interrupting the meeting.
Success could mean a sales engineer completing an approved demonstration reliably within the available meeting time.
A showroom can support both. Specify an explicit mode switch rather than expecting one interface to handle every situation automatically.
First deliverable: A short operating brief describing the audience, session length, presenter role, and essential actions for each mode.
2. Map Visitor Flow Before Marking Interactive Areas
Begin with a normal visit: arrival, introduction, exploration, discussion, and departure.
On the floor plan, distinguish:
- Circulation space: Where people walk between displays.
- Viewing space: Where a group gathers to watch.
- Active interaction space: Where movement should generate input.
- Presenter space: Where the host stands and operates the demonstration.
- Service access: Where technicians reach equipment.
This prevents a common design problem: placing an activation zone where every passing visitor triggers it.
Record both the expected audience size and the number of simultaneous participants. A group of twelve watching two people interact creates different sensing and visibility conditions from twelve people acting independently.
For guided visits, check whether the group blocks the presenter, projected image, or sensor sightlines.
3. Choose the Surface Around the Required Action
Select the interaction form according to what visitors must do.
| Surface | Useful role in a corporate showroom | Design decision to resolve |
|---|---|---|
| Wall | Shared explanations and product navigation | Where controls sit relative to viewers and presenters |
| Floor | Spatial choices and movement-responsive content | How active zones remain separate from circulation |
| Tabletop | Close inspection and detailed comparison | Whether hands, objects, and participants obscure inputs |
| Curved or irregular surface | Content integrated into architectural features | Whether the sensing geometry can detect the intended actions |
A projected image can follow a complex surface without that entire surface becoming reliably interactive.
For a 2D LiDAR installation, the scan plane must intersect the intended targets. Curved or multi-level structures may need separate sensing zones, additional sensors, or another sensing approach.
Design checkpoint: Demonstrate the hardest required interaction before approving the full visual treatment. A small tabletop target or a control on a curved section can reveal constraints that a broad animated background will not.
4. Plan LiDAR Mounting and Coverage with the Integrator
Ask the integrator to mark sensor positions, scan directions, excluded regions, and expected obstructions on the approved layout.
The coverage plan should answer three questions:
- Can the system detect the intended action throughout the active area?
- What happens when the expected group occupies the space?
- Can the equipment be adjusted or replaced without dismantling the exhibit?
Mounting height should follow the detection task. A floor interaction and a near-wall selection interface require different geometry.
Where several sensors are used, confirm how their measurements are aligned and how duplicate detections are handled. Multiple sensors do not automatically provide continuous visitor identity or unlimited simultaneous participation.
Reserve the necessary power, network connections, and cable routes before finishes are completed. This makes later adjustments less disruptive.
5. Match the Projector, Computer, and Software as One System
The content workload should inform hardware selection.
A simple two-dimensional interface and a multi-projector, real-time 3D presentation place different demands on the computer. Size the graphics hardware, display outputs, storage, and cooling against a representative content build.
A dedicated media server may be appropriate for some installations, while a suitable workstation may serve others. Ask the integrator to justify the configuration using the actual application.
Projector selection should account for the finished image dimensions, ambient lighting, mounting distance, content detail, and people standing in the beam path. Review these together with the sensor layout.
Verify PoE Requirements
Power over Ethernet can simplify LiDAR cabling, but an Ethernet connection alone does not establish power compatibility.
Confirm the selected sensor’s required PoE standard, the switch’s available power per port and total budget, and the cable installation. Keep these details in the equipment schedule so replacements use compatible components.
Prove the Software Connection Early
TUIO, HID, UDP, REST API, and Unity describe different parts of a system. They are not interchangeable compatibility labels.
| Requested capability | What the supplier should demonstrate |
|---|---|
| TUIO | The required messages reaching a compatible receiver |
| HID or Windows touch input | Correct touch behavior in the intended operating system and application |
| UDP | A documented message format and a working receiver |
| REST API | Available endpoints, authentication, and intended functions |
| Unity integration | A sample scene working in the project’s selected Unity version |
Native Windows touch events do not necessarily mean the sensor itself is a USB HID device. Ask how the input is delivered.
Likewise, a REST API might support configuration, content management, or analytics rather than continuous interaction coordinates. Establish its actual purpose.
CPJROBOT publishes guidance on TUIO and Windows Touch workflows. Use it to start the integration discussion, then confirm support for the exact hardware and software versions being purchased. CPJROBOT protocol guidance
Do not assume native REST API support without model-specific documentation or a working demonstration.
6. Evaluate CPJROBOT M1 and F1 During Prototyping
CPJROBOT is a LiDAR manufacturer offering M1 and F1 PoE interactive sensors. Its published product overview lists 360° scanning for M1 and 270° scanning for F1. CPJROBOT manufacturer and product information
Consider M1 when its scanning geometry suits the proposed mounting position and interaction area. Consider F1 when its 270° field of view covers the required region, with the unscanned sector accounted for.
Neither scan angle establishes guaranteed area coverage or participant capacity. Compare current specifications and test the proposed configuration with representative targets and visitors.
Free Testing Software
CPJROBOT provides free testing software for its PoE interactive LiDAR sensors. LiDAR Touch is provided free with these sensors, and the download center offers test content and SDK resources for M1 and F1. Confirm the appropriate package and version for the hardware. CPJROBOT software information, Download Center
Use these resources to verify sensing before commissioning the complete branded application. Free testing software does not imply that custom content, remote support, analytics, or third-party integration is included.
7. Complete Calibration, Then Rehearse a Real Visit
Finalize projection alignment and sensor mounting before completing coordinate calibration.
Save a working configuration, then test the finished application across the active surface. Check edges, corners, transitions between zones, and areas affected by nearby furniture.
Technical testing should be followed by an operational rehearsal:
- A host starts the system before a scheduled visit.
- A group enters while introductory content is playing.
- The host switches from browsing to presentation mode.
- Visitors interact at the agreed participation level.
- Someone leaves an activity unfinished.
- Staff reset the experience for the next appointment.
Also test recovery after an application restart or interrupted sensor connection.
Record positional errors, missed selections, unintended activations, and visible response delays. Agree on acceptable thresholds before acceptance, using the intended task rather than vague requirements such as “fast” or “accurate.”
8. Decide Whether Interaction Data Is Actually Needed
Analytics should answer a business question.
For example, marketing may want to know which product topics are opened most often. That can often be measured through application events without retaining raw sensor measurements.
Define the event and its limitations:
| Metric | What it can indicate | What it does not establish alone |
|---|---|---|
| Topic openings | Content selection frequency | Unique visitor interest |
| Session completion | Completion under a defined session rule | Understanding or purchase intent |
| Time in an activity | Duration of interaction | Attention throughout that period |
| Zone activations | Activity in a designated region | An exact count of people |
A detection is not necessarily a person, and repeated inputs are not necessarily separate visits.
Specify what is collected, where it is stored, retention settings, and who can access it. Treat an analytics dashboard as a separate deliverable unless explicitly included in the proposal.
9. Assign Ownership Before Handover
A supportable system needs named owners.
| Responsibility | Typical owner |
|---|---|
| Brand and product content approval | Marketing and product teams |
| Guided presentation workflow | Sales or showroom operations |
| Network and remote access | IT |
| Mounts, access, and physical servicing | Facilities and AV integrator |
| Sensing and application configuration | System integrator |
| Hardware documentation and product support | Equipment manufacturer |
Agree on one first contact for faults so staff do not have to diagnose whether the problem belongs to the sensor, application, projector, or network.
The handover package should include installed drawings, configuration backups, software versions, licenses, recovery instructions, and staff training.
Remote Maintenance and Recalibration
Specify which tasks can be completed remotely: reviewing logs, restarting software, changing settings, or deploying content.
Physical misalignment may still require someone on site. Remote access does not make every calibration or mounting problem remotely repairable.
Use company-approved access controls and agree how support sessions are authorized.
Content Updates
Separate editable content from application changes where practical. Replacing an approved video may be straightforward; adding a new gesture or changing interaction geometry may require development and renewed testing.
Keep a known working version available for rollback. Schedule updates outside customer appointments and verify the main demonstration afterward.
Move Toward Launch Through Clear Approval Points
A corporate showroom project becomes easier to manage when each stage produces something reviewable: an operating brief, an occupied-space layout, a functioning prototype, an integrated content build, and a rehearsed handover.
This approach connects equipment decisions to the people who will use and maintain the system.
To evaluate a CPJROBOT LiDAR showroom solution, provide your interaction layout, operating modes, participant requirements, and intended software interface. Request an M1 or F1 recommendation supported by a practical test using the manufacturer’s free testing software.
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