Service robotics rarely fails due to the technology itself. It fails due to unclear expectations, a lack of infrastructure preparation, or a failure to engage the team. Those who want to introduce robots and follow a structured process avoid the most common mistakes. This guide shows how a realistic implementation can proceed—step by step, including the pitfalls that arise in practice.
Why the process is more important than the product
A robot is not a plug-and-play device. Even simple cleaning robots like the C3 for offices or medical practices require a calibrated map, defined operating times, and personnel familiar with exception handling. For larger devices like the TN70 Pro or the Scrubber 75 in industrial environments, the complexity is correspondingly higher.
The role of the integrator is to structure this process and minimize the risk on the customer's side. SEBOTICS does not supply hardware and leaves you to deal with it alone — the process from initial analysis to ongoing operation is an integral part of the offer.
Step 1: Clarify needs and use case
Before every technological decision, the question must be asked: What exactly should the robot do?
This sounds obvious, but it isn't. In practice, there are often several competing objectives within a company: Management is thinking about cost reduction, the facility manager about relieving the cleaning staff, and the executive board about a positive image goal. All three can be valid—but they require different types of robots, different application scenarios, and different success criteria.
What needs to be clarified in this phase:
- What tasks should the robot perform (cleaning, transport, service)?
- How many hours per day, how many days per year?
- Which areas or routes are affected?
- What does the current process look like, and what does it cost?
- Who is responsible for the implementation internally?
Without a clear use case, no meaningful offer will follow. A vague "we are interested in robots" leads to a product demonstration—but not to a project.
Step 2: Site survey — the underestimated step
The site survey is the most important step in the entire process, and it is the most frequently skipped or shortened. A site survey is not a walkthrough. It is a structured technical analysis of the operating environment.
The following will be examined:
- Surfaces and spatial geometry: Floor plans, path widths, narrow passages, dead ends, doorways.
- Soil condition: Surface, condition, thresholds, steps, transitions.
- Infrastructure: WiFi coverage and stability (critical for all autonomous systems), charging station planning, elevator connection if relevant.
- Operating processes: When are which areas occupied? Where do human paths and planned robot routes intersect?
- Exceptions and special situations: Events, delivery times, shifts.
The site survey results in a recommendation: Which model is suitable? What infrastructure measures are necessary? Are there areas unsuitable for robots?
An honest site survey may also reveal that a particular robot is not a good fit for a given business. That's not a failure—it's an accurate assessment.
To select the right model, it's worth taking a look at the following beforehand: SEBOTICS Service robot overview.
Step 3: Pilot — controlled real-world operation
A pilot project is a time-limited real-world operation under defined conditions. The typical duration is 4–12 weeks, depending on the complexity of the use case.
Objectives of the pilot project:
- Measure actual area performance and availability in your environment
- Check acceptance and handling among staff
- Identify technical limitations that the site survey could not reveal.
- Creating a data basis for the final investment decision
Typical pilot process:
- Installation, mapping and configuration by the integrator
- 1–2 week settling-in period with close support
- 2–8 weeks of stable operation with data acquisition
- Evaluation: planned vs. actual performance, problems, need for adjustments
A pilot project is not a sales tool. Its purpose is to demonstrate whether the technology works for that specific operation—not whether the robot itself works in principle. If a pilot project yields disappointing results, that's valuable knowledge that prevents a bad investment.
Stumbling block: Pilots often fail not because of the robot, but because the operation isn't adapted. If the cleaning robot is constantly blocked by chairs lying around, the problem isn't with the device.
For example: A hospital is testing a J40 robotic robot in a pilot project on an 80-meter-long ward corridor. During the first two weeks, it becomes apparent that cleaning and visiting times overlap—the map is adjusted, and the operating hours are shifted. From week three onward, the robot runs reliably.
Step 4: Integration and training
Following a successful pilot phase, full integration into the operational workflow will take place. This involves more than just a final configuration.
System-side integration:
- Integration into fleet management software (if multiple units are used)
- Elevator connection and door control (API integration depending on building technology)
- Integration with scheduling and reporting tools
- Wi-Fi customizations and fallback configurations
Team training:
The training comprises two levels. Technical: operation, map customization, troubleshooting, load management. Operational: Who is responsible? What happens in case of a failure? How does the team communicate any anomalies?
Experience shows that it takes companies 2-4 weeks for the robot to be fully and smoothly integrated into daily operations. Plan for this timeframe and designate an internal coordinator who can be contacted with any questions.
Expectation management: The transition from pilot operation to continuous operation rarely goes completely smoothly. Minor adjustments to maps, parameters, and routes are normal and not indicative of a defective system.
Step 5: Rollout, Service and SLA
Rollout means either the expansion to additional locations or the transition to secure continuous operation at one location.
What defines healthy continuous operation:
- Clear service level agreement with defined response times
- Regular maintenance intervals (depending on the model and intensity of use)
- Software update process
- Escalation path in case of failures: Who can be reached, and how quickly?
A Service Level Agreement (SLA) is not an optional add-on. For any business that relies on robots for operational purposes, an SLA is mandatory. Unplanned downtime is a hidden cost that undermines the business case.
Multi-site rollout: When further locations follow a successful pilot project, documented processes are crucial. Decisions made ad hoc during the initial pilot must now be reproducible. A good integrator delivers rollout playbooks, not just hardware.
For example: A logistics company starts using a Juno Lift at one warehouse location for transporting roll containers weighing up to approximately 200 kg. After eight weeks of successful operation, two more locations are rolled out with identical infrastructure preparation and the same training materials.
To get started with configuration and model selection, you can use the free SEBOTICS Configurator use.
The role of the integrator: What you should expect
An integrator is not the same as a distributor. A distributor supplies hardware. An integrator takes responsibility for the company's success.
This means specifically:
- Site survey with written assessment
- Pilot project with evaluation
- Technical integration and training
- SLA with documented response times
- Contact person after purchase
When selecting a provider, ask specific questions: Who will come out in case of a breakdown? How quickly? What does it cost? What guarantees apply to spare parts? A provider who avoids these questions is not an integrator.
Common pitfalls and how to avoid them
| stumbling block | Cause | measure |
|---|---|---|
| The robot is not operating reliably. | Wi-Fi gaps, unstable network | WLAN analysis in the site survey |
| Team does not use robots | Lack of training, uncertainty | Training + internal coordinator |
| Poor cleaning performance | Too much clutter in the driving area | Agree on operational adjustments |
| The robot often stands still. | No SLA, no maintenance planned | Conclude SLA before commissioning |
| Pilot disappointed | Wrong model for use case | Take site surveys seriously |
FAQ
How long does a typical robot implementation take, from initial consultation to operation?
From initial needs assessment to full operation, the process typically takes 6–16 weeks. The largest time block is the pilot phase followed by evaluation. Installation and configuration usually take 1–3 days.
How much does a site survey cost?
That depends on the effort involved. SEBOTICS The initial assessment as part of a project inquiry is usually free of charge. Extensive technical analyses for larger sites or multi-site projects may be billed separately.
Can we start with a single robot and expand later?
Yes, that's the recommended approach. A single robot in the pilot project provides the data needed for a scalable rollout decision. Starting with one unit prevents overinvestment during the validation phase.
What happens if the robot fails during continuous operation?
That depends on your SLA. With a corresponding service agreement, response times and spare parts supply are contractually guaranteed. Without an SLA, you are reliant on best-effort support. For mission-critical operations, an SLA is not optional.
Does our IT department need to be involved?
For simple standalone robots (e.g., a cleaning robot without system integration), the IT effort is minimal—a stable Wi-Fi connection is sufficient. For more complex scenarios involving elevator integration, fleet management, or ERP integration, IT involvement is required starting with the site survey.
Next Step: If you'd like to explore whether service robotics is suitable for your business, we'll start with a 30-minute qualification consultation. No sales pressure, no pre-selection – we'll work together to analyze your use case.
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