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Plant-based & vegetarian food

Texturized vegetable proteins

Lead the future with plant-based meat alternatives.

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Why Texturized Vegetable Proteins

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Research

Trend deep dive.

Dry TVP

Dry TVP.

Wet TVP

Wet TVP.

A scheme showing the differences between dry and wet tvp from a product, texture, shelf life, raw materials and application point of view
A macro photo showing the different types of texturized vegetables protein

The production is driven by balanced and determined steps

A mix of white flour

A device used to mix and combine different flours and dry raw materials, ensuring a fully homogeneous blend.

A rendering of an industrial gravimetric dosing unit

A gravimetric dosing system designed to efficiently handle the particle sizes of the flours used, including fine powders such as protein isolates.

A rendering of an industrial pre mixer showing the screw

A high-speed mixer that evenly distributes water throughout the flour stream, creating a uniform and consistent dough.

A rendering of an industrial mixer for flours

A mixing vessel equipped for steam injection, which enhances the processing of legume-based flours and improves dough development.

A rendering of an industrial extrusor

A tailor-made twin-screw extrusion system offering versatile screw configurations for protein denaturation. It provides a customizable setup suited to each raw material and the final food product you aim to create.

A rotary cutter with some flakes around

Depending on the type of TVP (Textured Vegetable Protein), two different processes may occur:
• Dry TVP: the product is cut into the desired shape.
• Wet TVP: the product undergoes a texturization process to achieve the required structure.

A rendering of an industrial dryer

An optional step, performed only when required by the characteristics of the final food product.

OBST cereals

The product is cooled to its ideal packaging temperature, preventing unwanted condensation inside the final pack.

A rendering of an industrial extrusor

GEA xTru Twin

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GEA Insights

The breakthrough that changed spray drying

In 1976, NIRO engineers responded to a competitive challenge by rethinking what spray drying could do. Their idea became the multi-stage dryer MSD. Fifty years later, the same fundamental principle helps turn liquids into the powders used in essential nutrition products and important medicines around the world. Refined through decades of engineering expertise, customer insight and continuous development, MSD is a story of innovation with lasting impact.

Beyond the machine: unlocking better plant performance

Beyond the machine: unlocking better plant performance

An efficient machine does not automatically make an efficient factory. Real improvement often starts by looking beyond individual equipment and understanding how processes, energy systems and operating decisions affect one another. It’s a holistic approach designed to uncover opportunities that might otherwise be missed.

How a valve reshapes the way food and drinks are made

How a valve reshapes the way food and drinks are made

In food and beverage plants, valves are commonly operated using compressed air. GEA Hydract® Actuation Technology moves valves with water instead, in a closed, digitally controlled circuit. The result is a valve that can be held exactly in place and steered in fine-tuned steps. This results in lower energy use and greater control.

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