EXAIOSIndustries › Energy architecture for agriculture & food processing
Industry

Energy architecture for agriculture & food processing

Dairies, abattoirs, cold stores and processing plants combine high, constant cooling and process-heat demand with large roof and open areas. That is a strong PV-plus-storage profile — provided generation, cooling load and grid connection are computed together.

The typical load profile

Year-round cooling load plus seasonal processing peaks (harvest, campaign). High base load and the thermal inertia of refrigeration open up self-consumption and flexibility at the same time.

The architecture question

How large should PV on barn roofs, halls and open land be? Does storage pay off, or is cooling flexibility enough? How does § 14a EnWG enter the sizing? And does the rural grid connection bind the feed-in?

What EXAIOS computes

EXAIOS couples PV, storage, cooling flexibility and grid connection and finds the architecture with the lowest lifecycle energy cost — including the self-consumption share, the feed-in cap and atypical grid usage.

The result

IRR, NPV, DSCR and p10 per site, with an honest NO-GO. A free first indication for your operation.

Example result — your case, computed live

EXAIOS returns the decisive figures for every site:

IRRNPVDSCRp10

We publish no invented numbers. Compute your real site in minutes — the first indication is free.

Start a free indication

Frequently asked questions

Is cooling load an advantage or a drawback?

An advantage: constant cooling load raises PV self-consumption and can be steered flexibly as a thermal store.

Does PV pay off despite a weak rural grid?

Often yes for self-consumption — the question is the feed-in. EXAIOS checks whether the connection binds the PV size and sizes accordingly.

What does § 14a EnWG bring?

Controllable consumption devices can receive reduced grid fees. EXAIOS prices that effect into the sizing.