Abstract:
An above grate based inlet filter system for erosion and sediment control comprises a natural fiber filter mat configured to extend beyond the perimeter of the grate and a securing mechanism, such as magnets, configured to securing the filter mat around the perimeter of the grate. The system may include a filter berm secured in vicinity to the mat, and a rectangular array of magnets coupling the filter mat to the grate. The natural fiber filter mat may effectively be a coir fiber filter mat extending beyond the perimeter of the grate, wherein the coir fiber filter mat is formed of vertically aligned coir fibers. The optional filter berm may be effectively formed as triangular in cross section and formed of 100% reticulated polyether foam and formed to be at least 3″ in height.
Abstract:
A recycling bin and a cleaning device. The recycling bucket includes: an upper cover; a filtering part, which is detachably connected to the upper cover and which is provided with a plurality of filtering holes, a filtering space being formed between the filtering part and the upper cover; a sewage channel, which passes through the filtering part, and which includes a channel outlet that is located in the filtering space, the channel outlet being located above the filtering part.
Abstract:
An interconnection scheme between a filter cartridge and its corresponding manifold whereby a magnetic shear force is introduced to remove a blocking mechanism that would otherwise prohibit attachment. The magnetic shear force may also be employed to activate or deactivate a switch or valve, or engage or disengage an engagement mechanism relative to other components upon interconnection. The magnetic shear force is generated by complementary correlated magnet structures moved into close proximity to one another. The interconnection scheme may be a linear or rotational attachment of the filter cartridge with respect to the manifold. A valve assembly utilizing magnetic shear force may be employed to activate a bypass action between a manifold ingress port and egress port, thereby allowing water to flow when a filter cartridge is removed from the manifold and directing water to the filter cartridge when the valve assembly is activated.
Abstract:
A filtration system interconnection structure includes a filter manifold and a filter cartridge in magnetic communication produced by two complementary correlated magnets capable of generating a magnetic force when in close proximity to one another. The filter magnet polarity transitions are aligned with the manifold magnet polarity transitions such that a repulsion force is generated between the magnets when the filter cartridge is inserted within the manifold sump. The magnetic repulsion force may be used to move a blocking mechanism or actuate a latch structure in the manifold to secure the filter cartridge within the manifold sump upon insertion, or to provide non-contacting actuation of a downstream valve so as to permit or prevent the flow of fluid. Utilizing correlated magnetism in a filter interconnect further provides enhanced authentication and/or anti-counterfeiting means to ensure that only authorized or OEM filter cartridges can be installed.
Abstract:
A filtration system interconnection structure having a filter manifold including a sump and a coded polymagnet located on or connected to a portion of the manifold, and a filter cartridge including a filter media, first and second end caps sealed to the filter media, and a paired coded polymagnet magnet located on or connected to the filter cartridge. The polarity profiles of the paired coded polymagnets are aligned such that a magnetic attraction force, magnetic repulsion force, or combination thereof, is generated therebetween when the filter cartridge is inserted within the manifold sump housing and moved to the alignment position, thereby causing the coded polymagnet located on or connected to the manifold to translate with respect to a longitudinal axis of the sump to allowing for direct or indirect actuation of downstream system functionality.
Abstract:
An in-line filter is disclosed for filtering fluid flowing through a hydraulic system, particularly an automotive hydraulic system. The filter has a magnetic base with a central opening at its outlet and a seat with a central opening at its inlet. The base and the seat are joined by a cylindrical filter element made of a magnetically susceptible mesh screen material. A spring within the filter element biases a ball against the central opening of the seat normally sealing off the opening and forcing fluid to flow through the filter element to be filtered. If the mesh screen becomes clogged, backpressure forces the ball away from the seat against the bias of the spring to allow fluid to bypass the filter element and flow directly through the filter. Ferrous debris within the fluid flow continues to be captured by attraction to the magnetic base and the magnetized filter element.
Abstract:
Disclosed is a filter element butt joint mechanism, including: a fixed base with a mounting cavity; a butt joint base arranged in the mounting cavity and close to an inner end of the fixed base; a filter element including a housing, a head of the housing being inserted into the mounting cavity from an outer end, an insertion pipe being formed at the head of the housing; a limit sliding-clamping mechanism; and a screw transmission mechanism, wherein a groove is formed in the head of the housing, and an insertion pipe is formed in the groove; a boss matched with the groove is formed on the butt joint base, and a plug-hole matching the insertion pipe is formed on the boss.
Abstract:
An interconnection scheme between a filter cartridge and its corresponding manifold whereby a magnetic shear force is introduced to remove a blocking mechanism that would otherwise prohibit attachment. The magnetic shear force may also be employed to activate or deactivate a switch or valve, or engage or disengage an engagement mechanism relative to other components upon interconnection. The magnetic shear force is generated by complementary correlated magnet structures moved into close proximity to one another. The interconnection scheme may be a linear or rotational attachment of the filter cartridge with respect to the manifold. A valve assembly utilizing magnetic shear force may be employed to activate a bypass action between a manifold ingress port and egress port, thereby allowing water to flow when a filter cartridge is removed from the manifold and directing water to the filter cartridge when the valve assembly is activated.
Abstract:
A filtration system and method of using the same. The method comprises the steps of guiding, by alignment rail and mating boss, a filter cartridge into a manifold housing; aligning a filter magnet with a corresponding manifold magnet; rotating, by attractive magnetic forces, the manifold magnet upon rotation of the filter cartridge into an installed position; and actuating, by attractive magnetic forces, a manifold valve.
Abstract:
A filtration system interconnection structure having manifold with a rotatable manifold magnet of correlated magnets, a shroud with alignment tracks, an actuating valve for water ingress, and a filter cartridge having a rotatable filter magnet of correlated magnets, where the manifold magnet and the filter magnet are in magnetic communication with one another when the filter cartridge is inserted with the shroud, and are at least partially rotatably compatible, where the manifold magnet rotates with the filter magnet until the manifold magnet experiences a rotational stop beyond a predetermined rotation of the filter magnet, thus allowing the filter magnet to shift polarity with respect to the manifold magnet and present a repulsion force for removal of the filter cartridge from the shroud.