Capability creep becomes easier to see when the product is ridiculous enough. So: the lawn mower.
It cuts grass. This is a useful, durable problem. People have solved it with sharpened blades, engines, batteries, boundary wires, timers, GPS, and varying amounts of resentment. None of that creates a requirement for generative AI.
Yet “AI-powered” can attach itself to almost any product requirement. The useful question is not whether a model can be placed in the mower. It is whether model behavior produces an outcome worth the added complexity, access, dependency, and failure modes.
1. What problem exists?
The actual problem is maintaining grass at an acceptable height without spending more human time, energy, or money than the result is worth.
That problem changes with the product. A human-operated push mower needs to cut reliably, stop safely, and respond directly to its operator. A robotic mower needs to navigate a defined area, avoid hazards, manage its battery, and finish without constant supervision.
If the requirement is “make the mower feel intelligent,” the requirement is not ready. If it is “navigate an irregular yard without injuring anything,” now there is something to evaluate.
2. What would AI supposedly improve?
The weak version is familiar: conversational controls, generated lawn-care tips, a personality, or an app that describes cutting grass with surprising confidence. Those may be features. They do not improve the core task enough to justify a model by themselves.
The stronger claims are operational:
- distinguish grass from flower beds, pavement, toys, pets, and people;
- adapt a route to obstacles that move or were not mapped in advance;
- detect areas that were missed without prescribing every path;
- adjust behavior when terrain and visual conditions vary.
Those are specific capabilities. They can be tested without using “AI-powered” as the metric.
3. Could deterministic technology handle it?
For the push mower: yes. The operator supplies perception, judgment, routing, and authority. Mechanical interlocks and ordinary control systems handle the rest. Adding a language model would not remove the operator or materially improve the cut.
For a simple rectangular yard, a robotic mower may still succeed with boundary wire, bump sensors, a timer, deterministic coverage patterns, and a physical stop. That is automation. It is also often enough.
If fixed boundaries and sensors produce acceptable coverage and safety, congratulations: you have avoided a model, a camera pipeline, its update chain, its additional power use, and several new ways to make the mower weird.
4. What does AI genuinely add?
A model may earn its place when the environment is too variable for practical fixed rules. On-device vision could classify unfamiliar obstacles, interpret changing edges, or select a path through conditions that cannot be enumerated economically.
The value does not come from the mower being able to discuss grass. It comes from converting unstructured visual input into a narrow navigation or stop decision.
That distinction matters. “Uses AI” is an implementation detail. “Avoids an animal that entered an unmapped area” is a capability.
5. What new risk and dependency appear?
The model does not arrive alone. A vision-enabled connected mower can introduce cameras, stored imagery, account identity, mobile applications, cloud APIs, remote commands, location data, vendor update channels, and a safety-critical dependency on probabilistic classification.
A false positive may merely leave a strip of long grass. A false negative may drive a blade toward an animal, a child, a tool, or a drop. A cloud outage could turn a working appliance into ornamental yard equipment. An abandoned vendor account system could end useful service long before the motor fails.
The security and safety boundary therefore includes far more than model accuracy:
- What happens when confidence is low?
- Can a remote account start or steer the mower?
- Is imagery retained or sent off the device?
- Does loss of connectivity prevent safe local operation?
- Can an owner keep the machine working if the vendor disappears?
6. What is the minimum useful implementation?
If vision is necessary, keep the model attached to the narrow perception problem. Run it locally where practical. Convert camera frames into limited labels or stop signals, then discard the frames. Use ordinary control logic for speed, blade state, boundaries, battery management, and emergency stopping.
The mower does not need:
- a general-purpose conversational model;
- persistent memory about the household;
- continuous cloud video;
- access to calendars, email, contacts, or unrelated smart-home devices;
- permission to expand its own operating area;
- an internet connection to honor a physical stop command.
Give it enough intelligence to avoid the flower bed. Do not give the Shoggoth a key to the house.
Nothing, automation, or smaller AI—depending on the yard.
Push mower: no AI. The human already provides the variable judgment.
Simple robotic mower: deterministic automation may be sufficient.
Robotic mower in a genuinely variable environment: narrow, local machine vision may be justified. Keep it isolated from unrelated data, authority, and cloud dependency.
Give it the same test.
Seven questions will tell you whether the current evidence points toward no AI, process first, smaller AI, or AI justified.
Check Your Use Case