A hazelnut processing plant provides separation of unshelled hazelnut as shell and as decorticated hazelnut by means of breaking the shells thereof. The hazelnut processing plant includes at least one calibration sieve where the unshelled hazelnut is transferred in order to be categorized in accordance with the dimensions thereof, at least one calibration line which has at least one each calibration silos for each category of the unshelled hazelnut separated according to dimensions in said calibration sieve, at least one stone, where the unshelled hazelnut is transferred in order to be separated from the shell thereof, at the continuation of said calibration line, at least one charger sieve which can separate the hazelnut broken at said stone by sieving the dust of said hazelnut, at least one breaking line, which has at least one ventilator in order to provide separation of decorticated hazelnuts, shells and creased hazelnuts.

A method of treating a powder material includes classifying a powder material within a vessel by using a fluidized bed of the powder material to separate smaller particles of the powder material from larger particles of the powder material, and degassing the separated smaller particles and the larger particles within the vessel by heating and fluidizing the larger particles and the separated smaller particles.

A method of treating a powder material includes classifying a powder material within a vessel by using a fluidized bed of the powder material to separate smaller particles of the powder material from larger particles of the powder material, and degassing the separated smaller particles and the larger particles within the vessel by heating and fluidizing the larger particles and the separated smaller particles.

Systems and methods for increasing recyclable material recovery from automobile shredder residue (4). Embodiments include separation of automobile shredder residue with a sorting system (5) such as an air sorting system, a non-ferrous automobile shredder residue air sorter, an air-locked automobile shredder residue sorting system, a non-magnetic magnetic sorter, a substantially isotropic quantization sorting system, an air-locked Z-box air classifier, low susceptance microparticle separator, a magnetic fuzz separator, a wind tunnel system, or the like perhaps with substantially horizontal laminar air flow (7) and can be used with or without out other traditional automobile shredder residue sorting systems (16) or (15) perhaps creating additional recyclable quantities and even better separated results such as with zorba and zurik and the like.

Systems and methods for increasing recyclable material recovery from automobile shredder residue (4). Embodiments include separation of automobile shredder residue with a sorting system (5) such as an air sorting system, a non-ferrous automobile shredder residue air sorter, an air-locked automobile shredder residue sorting system, a non-magnetic magnetic sorter, a substantially isotropic quantization sorting system, an air-locked Z-box air classifier, low susceptance microparticle separator, a magnetic fuzz separator, a wind tunnel system, or the like perhaps with substantially horizontal laminar air flow (7) and can be used with or without out other traditional automobile shredder residue sorting systems (16) or (15) perhaps creating additional recyclable quantities and even better separated results such as with zorba and zurik and the like.

The current invention, in a first aspect, concerns a method for separating a lead component from a lead coated glass, for instance glass from a CRT recycling process. The coated glass is crushed and ground to achieve a finely grained material of a mixture of a glass fraction and a lead fraction. The lead fraction is separated from the glass fraction based upon a difference in specific weight and/or density. In a second aspect the current invention concerns an apparatus for separating a lead component from a lead coated glass, for instance glass from a CRT recycling process. The apparatus is provided with a grinding unit. The apparatus includes a separator unit suited for separation based upon a difference in specific weight and/or density.

The current invention, in a first aspect, concerns a method for separating a lead component from a lead coated glass, for instance glass from a CRT recycling process. The coated glass is crushed and ground to achieve a finely grained material of a mixture of a glass fraction and a lead fraction. The lead fraction is separated from the glass fraction based upon a difference in specific weight and/or density. In a second aspect the current invention concerns an apparatus for separating a lead component from a lead coated glass, for instance glass from a CRT recycling process. The apparatus is provided with a grinding unit. The apparatus includes a separator unit suited for separation based upon a difference in specific weight and/or density.

A powder processing apparatus includes a vessel. The vessel has an interior chamber that includes top and bottom regions, and a gas outlet to the exterior of the vessel. A wall divides the bottom region into first and second sub-regions, with the top region extending above the wall. First and second porous plates divide the first and second sub-regions such that there are first and second manifold regions below the first and second porous plates. The first and second gas manifold regions include first and second gas inlets from the exterior of the vessel.

A powder processing apparatus includes a vessel. The vessel has an interior chamber that includes top and bottom regions, and a gas outlet to the exterior of the vessel. A wall divides the bottom region into first and second sub-regions, with the top region extending above the wall. First and second porous plates divide the first and second sub-regions such that there are first and second manifold regions below the first and second porous plates. The first and second gas manifold regions include first and second gas inlets from the exterior of the vessel.

A method and device are used for separating particles of plastic foil from organic material. The device includes a chamber with a perforated wall. A mixture of particles of plastic foil and organic material is fed into the chamber through a feed opening. The mixture is set into a rotating movement inside the chamber by a rotor. In the vicinity of the perforations, the centrifugal force to which a particle is subjected is at least fifty times greater than the gravitational force to which the particle is subjected. An airflow is generated in the chamber parallel to the rotational axis of the rotor. Particles of organic material leave the chamber through the perforations. Particles of plastic foil are carried along by the first airflow and then discharge through an opening in the chamber.