255,010 German farms, one labour problem

255,010 isn't a snapshot — it's the provisional endpoint of a long trend. Since the turn of the millennium, the number of agricultural holdings in Germany has fallen by well over 200,000, with the pace slowing markedly since 2010. The land itself rarely disappears; it gets consolidated, taken over, run as part of larger operations.

What doesn't show up in the statistic, but comes up in every conversation with a farm manager, is that a meaningful share of these mergers isn't a strategic choice — it's a forced one. The last available hand for the early barn shift, for the harvest window, for the same routine work every week simply can't be found, and the operation gives up or gets absorbed into a bigger one.

Anyone approaching agricultural robotics through regulation lands quickly on ISO 18497 — the standard for the safe design of semi-autonomous farm machinery. It's relevant to how a machine is built; it's irrelevant to whether a farm manager should buy one. That standard answers "is the machine built safely," not "do I need it."

The right first question is commercial: what does the work that currently goes undone, gets postponed, or gets patched together with temp labour actually cost — against what a reliably working system costs instead?

The common framing — "robot replaces farm worker" — misses what's actually happening on these 255,010 holdings. In most cases there's no worker being replaced; there's an open position that's gone unfilled for months or years. The comparison is robot versus vacancy, not robot versus employee.

A vacancy doesn't cost zero. It costs overtime for the remaining crew, temp labour at peak prices during harvest, and — most expensively — the work that simply doesn't happen because nobody has time for it. Those costs keep running whether or not the role is ever filled.

werob doesn't show up in agriculture as another farm-machinery manufacturer — it's a vendor-neutral systems integrator selecting, from 44+ OEM partners, the system that fits the specific operation: field size, crops, existing infrastructure. The process is built for speed: spec within 48 hours, quote within 5 days, live operation within 8 weeks.

That matters because agricultural decisions are seasonal. A decision that only goes operational after the next harvest window has closed has already missed the point it was made for.

One caveat belongs in any comparison like this: werob does not currently publish a defensible €/year saving for any agricultural use case, unlike individual cases already live in care or hospitality. The economics for a specific farm depend on that farm's own avoided-vacancy calculation — size, current staffing, seasonality — and can't honestly be generalised into a single figure across 255,010 very different holdings. What does generalise is the shape of the question: unfilled shift versus a reliably working system, deployment-ready in eight weeks.