LinkedIn post 30-01-2026

๐—˜๐—ป๐—ฒ๐—ฟ๐—ด๐˜† ๐—ฎ๐˜€ ๐—ฎ ๐——๐—ฒ๐˜€๐—ถ๐—ด๐—ป ๐—Ÿ๐—ฒ๐˜ƒ๐—ฒ๐—ฟ ๐—ถ๐—ป ๐—›๐—ถ๐—ด๐—ต-๐—ง๐—ฒ๐—ฐ๐—ต ๐—š๐—ฟ๐—ฒ๐—ฒ๐—ป๐—ต๐—ผ๐˜‚๐˜€๐—ฒ๐˜€

In most high-tech greenhouses, energy is not only one of the largest operating costs, it is also one of the few parameters that can be structurally improved through design.

Across colder and temperate climates, heating and climate control typically account for around 70โ€“80% of total energy use, with electricity and other fuels making up the remainder.

Well-considered climate strategies can materially change this profile:

– ๐—ง๐—ต๐—ฒ๐—ฟ๐—บ๐—ฎ๐—น ๐˜€๐—ฐ๐—ฟ๐—ฒ๐—ฒ๐—ป๐˜€ ๐—ฎ๐—ป๐—ฑ ๐—ผ๐—ฝ๐˜๐—ถ๐—บ๐—ถ๐˜€๐—ฒ๐—ฑ ๐—ฐ๐—ผ๐˜ƒ๐—ฒ๐—ฟ๐—ถ๐—ป๐—ด๐˜€ can reduce heating demand by approximately 20โ€“40% or more, depending on climate and configuration.

– ๐—ฉ๐—ฒ๐—ป๐˜๐—ถ๐—น๐—ฎ๐˜๐—ถ๐—ผ๐—ป ๐—ฎ๐—ป๐—ฑ ๐—ฐ๐—น๐—ถ๐—บ๐—ฎ๐˜๐—ฒ-๐—ฐ๐—ผ๐—ป๐˜๐—ฟ๐—ผ๐—น ๐˜€๐˜๐—ฟ๐—ฎ๐˜๐—ฒ๐—ด๐—ถ๐—ฒ๐˜€ that combine natural and hybrid approaches can further reduce electrical demand for fans and cooling equipment.

– ๐—œ๐—ป๐˜๐—ฒ๐—ด๐—ฟ๐—ฎ๐˜๐—ฒ๐—ฑ ๐—ฟ๐—ฒ๐—ป๐—ฒ๐˜„๐—ฎ๐—ฏ๐—น๐—ฒ ๐—ฎ๐—ป๐—ฑ ๐—ต๐—ถ๐—ด๐—ต-๐—ฒ๐—ณ๐—ณ๐—ถ๐—ฐ๐—ถ๐—ฒ๐—ป๐—ฐ๐˜† ๐˜€๐˜†๐˜€๐˜๐—ฒ๐—บ๐˜€ allow facilities to move toward near-net-zero operation while maintaining stable growing conditions.

The lesson is straightforward: a greenhouse that appears efficient on paper can still lock in high and volatile energy costs if climate and energy strategy are not engineered into the concept from the beginning.

At VEK, energy performance is treated as a core design parameter, not an add-on. Heating, cooling, ventilation, screening and potential renewable options are integrated into a single system model so that production, cost and resilience can be managed together over the full life of the facility.