Make final drying up to 0x more efficient.
ProSeed accelerates the final, most energy-intensive stage of drying, where conventional methods slow down and energy cost per litre climbs. Fully electric, no emissions, no off-gas to treat.
Two reasons to talk to us.
Make the final stage of drying more efficient by directing energy straight into the water itself. This helps keep the energy cost per litre stable as the moisture content decreases, exactly where conventional methods struggle most.
Suited for minerals that require precise moisture specifications, are mechanically sensitive, and where contamination is a risk.
Validated for a wide range of minerals.
Some minerals hold their water more tightly than others and take more energy to release it. Some cannot be put in contact with a hot gas stream at all, because the air is a contamination route. Others are mechanically fragile, or begin to degrade under sustained heat. Whichever the challenge, we build a process around it.
Built for the hardest part of the dry.
Hot air heats the whole environment and waits for moisture to find its way to the surface. In the final stage of drying, as the target moisture falls, the energy needed for every litre removed climbs sharply, the most energy-intensive part of the whole process.
We only apply power on the water, instead of the mineral itself. The energy consumption per litre barely increases as the moisture content gets lower, right through the final stage where conventional drying is at its slowest and most expensive.
Illustrative consolidated visualisation of acquired trial and reference data. Results depend on the specific mineral, moisture profile, equipment configuration, and operating parameters used, and should not be read as universal performance figures.
Continuous drying, but more efficient
A convection dryer spends time and energy heating the air around the material before any drying happens, then loses it again when the cycle ends. Ours has almost no thermal mass to move: material enters, material leaves, continuously. No cycling, no door, no load and unload, no warm-up.
Power modulates in milliseconds and follows the feed. A wetter patch draws more energy and a drier one draws less, without an operator touching anything. Instant on, instant off. A convection dryer can do neither.
The field couples to the water, not to the mineral, so the material itself is barely heated in the process. The output comes out colder than convection-dried material, because the mineral was never the thing being heated.
Modular by design.
Capacity is set by two parameters: the power per microwave generator, and the number of generators installed. Both are sized to the throughput required and balanced together for the process, so the same model carries from a small line to full production instead of being found again at every scale.
We design the process. Then we build the equipment.
Every material behaves differently, so we start by measuring yours. The process we build comes directly from that measurement. The containerised pilot is the proof: it ships to your site, runs on your feedstock, and returns an energy balance measured on your material.
Send us 2 tonnes.
We will send you
the energy balance.
Under NDA. Martigny, Valais, Switzerland.
Make final drying up to 0x more efficient.
ProSeed accelerates the final, most energy-intensive stage of drying, where conventional methods slow down and energy cost per litre climbs. Fully electric, no emissions, no off-gas to treat.
Two reasons to talk to us.
Make the final stage of drying more efficient by directing energy straight into the water itself. This helps keep the energy cost per litre stable as the moisture content decreases, exactly where conventional methods struggle most.
Suited for minerals that require precise moisture specifications, are mechanically sensitive, and where contamination is a risk.
Validated for a wide range of minerals.
Some minerals hold their water more tightly than others and take more energy to release it. Some cannot be put in contact with a hot gas stream at all, because the air is a contamination route. Others are mechanically fragile, or begin to degrade under sustained heat. Whichever the challenge, we build a process around it.
Built for the hardest part of the dry.
Hot air heats the whole environment and waits for moisture to find its way to the surface. In the final stage of drying, as the target moisture falls, the energy needed for every litre removed climbs sharply, the most energy-intensive part of the whole process.
We only apply power on the water, instead of the mineral itself. The energy consumption per litre barely increases as the moisture content gets lower, right through the final stage where conventional drying is at its slowest and most expensive.
Illustrative consolidated visualisation of acquired trial and reference data. Results depend on the specific mineral, moisture profile, equipment configuration, and operating parameters used, and should not be read as universal performance figures.
Continuous drying, but more efficient
A convection dryer spends time and energy heating the air around the material before any drying happens, then loses it again when the cycle ends. Ours has almost no thermal mass to move: material enters, material leaves, continuously. No cycling, no door, no load and unload, no warm-up.
Power modulates in milliseconds and follows the feed. A wetter patch draws more energy and a drier one draws less, without an operator touching anything. Instant on, instant off. A convection dryer can do neither.
The field couples to the water, not to the mineral, so the material itself is barely heated in the process. The output comes out colder than convection-dried material, because the mineral was never the thing being heated.
Modular by design.
Capacity is set by two parameters: the power per microwave generator, and the number of generators installed. Both are sized to the throughput required and balanced together for the process, so the same model carries from a small line to full production instead of being found again at every scale.
We design the process. Then we build the equipment.
Every material behaves differently, so we start by measuring yours. The process we build comes directly from that measurement. The containerised pilot is the proof: it ships to your site, runs on your feedstock, and returns an energy balance measured on your material.
Send us 2 tonnes.
We will send you
the energy balance.
Under NDA. Martigny, Valais, Switzerland.