Magnetic separators with variable height of the magnetic matrices, and methods of using the same for processing material feed with lower grades and/or very fines particle sizes, allowing for better performance in terms of mass and metallurgical recoveries as well as higher grade products.

Magnetic separators with variable height of the magnetic matrices, and methods of using the same for processing material feed with lower grades and/or very fines particle sizes, allowing for better performance in terms of mass and metallurgical recoveries as well as higher grade products.

A system, apparatus and method for magnetically separating a fluid flow passing through a pipeline are provided. A magnetic separator assembly having a plurality of elongate magnetic members is provided. Each magnetic member can have a first end and a second end. A cleaner plate can be provided that can move along the magnetic members. After the magnetic separator assembly is used to collect magnetic particles from a fluid flow in a pipeline, the magnetic separator assembly can be cleaned by sliding the cleaning plate along the magnetic members.

A device for separating components of a mixture, particularly industrial fluids but also gases including air, allows for targeted components of the mixture to be attached onto a separating bar and removed from the mixture. The separating bars traverse a track formed within the body of the separating device and through respective tank, cleaning, free roll, and compression regions in a controlled cleaning system. The separating bars are detached from one another and allowed to move through the separating device independently of one another. The device removes the use of chains to connect cleaning bars traversing through a cleaning system.

A device for separating components of a mixture, particularly industrial fluids but also gases including air, allows for targeted components of the mixture to be attached onto a separating bar and removed from the mixture. The separating bars traverse a track formed within the body of the separating device and through respective tank, cleaning, free roll, and compression regions in a controlled cleaning system. The separating bars are detached from one another and allowed to move through the separating device independently of one another. The device removes the use of chains to connect cleaning bars traversing through a cleaning system.

A co-processing that includes converting oil drilling waste into a material with technical characteristics that can be used as fuel or alternative raw material for a specific petrochemical process. In the co-process, the components that make up the waste such as solid, oil, and water are recovered. The co-process is a self-sustaining process, reducing gas emissions into the atmosphere, accompanied by savings in the operating cost of the process.

A co-processing that includes converting oil drilling waste into a material with technical characteristics that can be used as fuel or alternative raw material for a specific petrochemical process. In the co-process, the components that make up the waste such as solid, oil, and water are recovered. The co-process is a self-sustaining process, reducing gas emissions into the atmosphere, accompanied by savings in the operating cost of the process.

The disclosure relates to a hydraulic accumulator, in particular in the form of a piston-type accumulator, having a separating element which is arranged in an accumulator housing and fluid-tightly separates two fluid chambers, in particular a closed accumulator chamber comprising a working gas and a liquid chamber comprising an operating liquid such as hydraulic oil, from one another, wherein a fluid port is fluidically connected to one of the fluid chambers. The hydraulic accumulator is characterised in that the fluid port has a magnetic-field-generating device which is received in a fixed position in the fluid port and separates magnetizable particles out of the fluid passing through the fluid port, to purify said fluid.

The present invention is directed to methods for using particles (e.g, microparticulate, nanoparticulate; magnetic, non-magnetic) comprising surfaces comprising capture moieties as described herein, to remove an interference as described herein, or enrich biomarkers, prior to a diagnostic test.

The present invention is directed to methods for using particles (e.g, microparticulate, nanoparticulate; magnetic, non-magnetic) comprising surfaces comprising capture moieties as described herein, to remove an interference as described herein, or enrich biomarkers, prior to a diagnostic test.