A system and a process for dry recovery of iron oxide fines from iron hearing compact and semicompact rocks are provided, which system and process utilize primary, secondary and tertiary crushing components for preliminarily reducing the granulometry of ores containing the iron oxide fines in compact and semicompact rocks. Dynamic air classifier components are provided for finely grinding iron oxide minerals reduced through primary, secondary and tertiary crushing, along with static air classification components arranged in series for intermediate granulometric cuts and bag filters for retaining fine fraction. The system and process further comprise magnetic rolls, for magnetic separation, arranged in cascade at a variable leaning angle and formed by at least one of high or low magnetic intensity magnets.

A machine is described for magnetic separation of material, wherein the machine includes a supporting structure and at least one magnetic rotating drum supported by the supporting structure, wherein the machine further includes a vehicle for moving and transporting the supporting structure. The magnetic drum includes an outer rotating shell and a magnetic portion including at least one magnet positioned and housed within the outer shell, wherein the outer shell is rotatable around a central axis by a drive mechanism and the at least one magnet is positioned in a fixed location within the outer shell.

Systems and methods for processing pyrolyzable materials in order to recover one or more usable end products are provided. Pyrolysis methods and systems according to various aspects of the present invention are able to thermally decompose carbon-containing materials, including, for example, tires and other rubber-containing materials, in order recover hydrocarbon-containing products including synthesis gas, pyrolysis oil, and carbon black. Systems and methods according to aspects of the present invention may be successful on a commercial scale, and may be suitable for processing a variety of feedstock including, but not limited to, used tires and other types of industrial, agricultural, and consumer waste materials.

A conveying system, such as a conveying system for material including non-ferrous metals, includes a conveying belt and a stabilizer. The conveying belt includes a conveying surface and is adapted to convey the material on the conveying surface. The stabilizer is configured to apply a stabilizing force onto the material on the conveyor belt such that the material is stabilized while being conveyed. A method of stabilizing material on a conveyor belt includes receiving the material on the conveying surface of the conveyor belt, conveying the material at a conveying speed with the conveyor belt, and applying the stabilizing force onto the material with a stabilizer such that vertical displacement of at least some of the material is dampened and/or minimized at the conveying speed.

A conveying system, such as a conveying system for material including non-ferrous metals, includes a conveying belt and a stabilizer. The conveying belt includes a conveying surface and is adapted to convey the material on the conveying surface. The stabilizer is configured to apply a stabilizing force onto the material on the conveyor belt such that the material is stabilized while being conveyed. A method of stabilizing material on a conveyor belt includes receiving the material on the conveying surface of the conveyor belt, conveying the material at a conveying speed with the conveyor belt, and applying the stabilizing force onto the material with a stabilizer such that vertical displacement of at least some of the material is dampened and/or minimized at the conveying speed.

A system for the recovery of titanium, titanium alloys, zirconium and zirconium alloys is disclosed. The system is fed with a mixture of chips including titanium chips, titanium alloy chips, zirconium chips and zirconium alloy chips, ferromagnetic chips and electrically conductive non-ferromagnetic chips. The system has at least one magnetic separator, a drying device and an Eddy current separator.

A system for the recovery of titanium, titanium alloys, zirconium and zirconium alloys is disclosed. The system is fed with a mixture of chips including titanium chips, titanium alloy chips, zirconium chips and zirconium alloy chips, ferromagnetic chips and electrically conductive non-ferromagnetic chips. The system has at least one magnetic separator, a drying device and an Eddy current separator.

A solar panel recycling and sorting machine includes a crushing device and a recycling device. The crushing device is provided with a crushing tank, and the crushing device is configured to project metal particles into the crushing tank. The recycling device includes a first conveyor belt, a first magnetic separator, a recycling tube, and a metal particle container. The metal particles from the crushing tank is configured to fall onto the first conveyor belt and be fed into the first magnetic separator. The first magnetic separator is configured to sort out the metal particles on the first conveyor belt using magnetic force and direct the metal particles into the recycling tube, allowing the metal particles to enter the metal particle container through the recycling tube.

A solar panel recycling and sorting machine includes a crushing device and a recycling device. The crushing device is provided with a crushing tank, and the crushing device is configured to project metal particles into the crushing tank. The recycling device includes a first conveyor belt, a first magnetic separator, a recycling tube, and a metal particle container. The metal particles from the crushing tank is configured to fall onto the first conveyor belt and be fed into the first magnetic separator. The first magnetic separator is configured to sort out the metal particles on the first conveyor belt using magnetic force and direct the metal particles into the recycling tube, allowing the metal particles to enter the metal particle container through the recycling tube.

A magnet cleaner cooperates with one or more permanent magnets positioned over a conveyer carrying pieces of metal in non-ferrous material so as to remove the metal from the non-ferrous material. The magnet cleaner includes a frame and a capture sheet mounted to the frame and positioned on the frame so as to be substantially flush with the permanent magnets when they are in their lowered positioned. The magnets are spaced by an attenuation distance from the capture sheet when they are in their raised position. The permanent magnets, which may be mounted in a housing, are positionably mounted on the frame so as to be selectively elevatable between their lowered and raised positions upon actuation of an actuator. The actuator is positioned so as to cooperate with the permanent magnets and the frame so as to raise or lower the magnets relative to the capture sheet.