Abstract:
A device for conveying a fine bulk material including a housing with an opening therethrough for conducting such material; at least one conduit spanning such opening having a set of spaced openings along the length thereof, and connectable to a fluid pressure source; a member of porous material overlying a portion of such conduit, including end portions secured to such conduit and an intermediate portion spaced from such conduit, providing a chamber intercommunicating the openings in such conduit and the pores of such overlying member; and a magnetic bar disposed in such conduit provides a passageway between such fluid pressure source and such conduit openings.
Abstract:
A device for conveying a fine bulk material including a housing with an opening therethrough for conducting such material; at least one conduit spanning such opening having a set of spaced openings along the length thereof, and connectable to a fluid pressure source; a member of porous material overlying a portion of such conduit, including end portions secured to such conduit and an intermediate portion spaced from such conduit, providing a chamber intercommunicating the openings in such conduit and the pores of such overlying member; and a magnetic bar disposed in such conduit provides a passageway between such fluid pressure source and such conduit openings.
Abstract:
A system and method for separating mixed materials employing a primary material separation deck and a secondary modular separation pathway for further separation of a portion, e.g. a three-dimensional portion, of the mix materials.
Abstract:
The invention provides an apparatus (10) for removing magnetic particles (53) from a liquid flowing from an oil or gas operation and method of use. The apparatus (10) comprises a plurality of magnet assemblies (20), each having a first condition in which an operable part is active to attract magnetic particles (53) to the magnet assembly (20), and a second condition in which the operable part is inactive and magnetic particles (53) are not attracted to the magnet assembly (20). A drive mechanism (13) moves the magnet assemblies (20) between exposure to a flow path of from a liquid (40) flowing from an oil or gas operation and a collection location (54). An activation means (36) moves the magnet assemblies (20) between the first condition and the second condition.
Abstract:
A method and system is used to process slag material to yield by-products including a finished iron rich product and a finished low iron fines product. The by-products may include a finished high iron product and a finished medium iron product. The method and system include size classifying the material into a plurality of sized groups prior to using magnetic separation to separate at least one of the sized groups into two portions having differing magnetic susceptibilities. The method and system may include more than one phase of size classifying the material into a plurality of sized groups and using magnetic separation to separate at least one of the sized groups into portions, where the average size of the material remaining after one phase is reduced prior to the subsequent phase.
Abstract:
A disk brake pad (11) comprising a supporting base (13) with which a layer (15) of friction material is associated, characterized in that a wall (19) of said supporting base having associated therewith the layer of friction material is passed through by at least one channel (21, 23, 41) communicating with a chamber (17a, b), defined in correspondence of the supporting base, for collecting the powders produced due to the wear of the friction material.
Abstract:
A method of sorting particulate matter comprises creating an unconstrained monolayer feed stream of particulate matter moving with an initial first trajectory in a gaseous medium, and subjecting the monolayer feed stream while in the gaseous medium to a magnetic field of sufficient strength to influence the trajectory of at least some particles in the feed stream to cause a spread of particle trajectories from the first trajectory. The particles are subsequently sorted and/or collected on the basis of their trajectories.
Abstract:
An apparatus and method for removing solids and particulates from fluid by magnetic separation. First and second spaced rotatable drums move a closed loop belt. A portion of the belt is disposed in contact with the fluid flowing through a fluid passage disposed adjacent to a circumferential portion of the first rotatable drum where solids and particulates in the fluid are attracted to the belt by magnetic attraction from a magnetic source within the first rotatable drum. A wiper scrapes the solids deposited on the belt.
Abstract:
The present disclosure provides an apparatus for sorting a particulate material. The apparatus comprises a receiving portion for receiving the particulate material having a particle size within a predetermined range of sizes. The apparatus also comprises a distributor for receiving the particulate material at an upper end thereof and having a sloped distribution surface along which, in use, the particulate material passes substantially by gravity. A surface area of the sloped distribution surface increases towards a lower end of the distributor to facilitate a monolayer feed stream of the particles exiting and falling from a lower end of the distributor distributed as a curtain-like stream of particles. The apparatus further comprises a magnetic element for generating a magnetic force that is directed such that the particles of the falling feed stream that exit the lower end of the distributor have pathways that depend on magnetic properties of the particles. The apparatus also comprises sorting portions for sorting the particles based on the pathways of the particles.
Abstract:
The present application provides a magnetic rack for separating magnetic particles from a non-magnetic medium. The magnetic rack comprises a supporting housing having a top side, a bottom side, two opposite lengthwise sides, and a cavity, wherein at least one magnet is disposed in the cavity, each lengthwise side is attached with a receiving member, and the top side has at least two sockets. The magnetic rack further comprises a pair of supporting walls, wherein each supporting wall has a fixing member introduced onto or into the receiving member to tightly connect the supporting housing with the pair of supporting walls. With the coupling of the receiving member and the fixing member, the supporting wall and the supporting housing can be tightly connected together, therefore the shake of the magnetic rack or the sample vials inserted in the magnetic rack can be significantly avoided. In this way, the magnetic particles can be effectively separated from a non-magnetic medium in the sample vial.