mhurhangee/ep-ind-claims huggingface dataset:
A bicycle trainer adapted to be arranged with a bicycle to simulate riding a bicycle on an outdoor road, the bicycle trainer comprising: a stand adapted to support the bicycle; a roller pivoted to the stand and adapted to contact a bicycle wheel of the bicycle; a first resistance source coupled to the roller and providing resistance to the bicycle wheel via the roller; and characterized in that the bicycle trainer further comprises: a second resistance source coupled to the roller and providing resistance to the bicycle wheel via the roller, wherein the first resistance source is an automatic adjusting resistance source, and the second resistance source is a manual adjusting resistance source. a stand adapted to support the bicycle; a roller pivoted to the stand and adapted to contact a bicycle wheel of the bicycle; a first resistance source coupled to the roller and providing resistance to the bicycle wheel via the roller; and characterized in that the bicycle trainer further comprises: a second resistance source coupled to the roller and providing resistance to the bicycle wheel via the roller, wherein the first resistance source is an automatic adjusting resistance source, and the second resistance source is a manual adjusting resistance source.
An air circuit breaker coil adapter for adapting an air circuit breaker, the coil adapter comprising a coil unit housing for releasably receiving an air circuit breaker coil unit, the coil unit housing having a coil retainer element for preventing or limiting upward movement of an air circuit breaker coil unit therein, a locator at a bottom end of the housing for positively locating the housing in an aperture of an air circuit breaker housing, the locator having a plunger aperture therethrough by which an interior of the coil unit housing is in use communicable with an interior of the air circuit breaker housing, and a housing retainer element for at least in part preventing or limiting vertical displacement of the coil unit housing when mounted on the air circuit breaker housing.
Suspension and traction system with a traction and/or deflection pulley and a suspension and traction element with active adhesion control comprising a load bearing section provided with at least one wire and a sheath at least partially covering the bearing section, the sheath comprises a paramagnetic and polymeric material matrix and magnetic particles dispersed in said matrix in a proportion of at least 10% by volume and wherein the pulley or pulleys are provided on their outer and/or inner part with electromagnets capable of producing a variable magnetic field perpendicular to the suspension and traction element along the entire length of the suspension and traction element in contact with the pulley.
Support for a belt retention system for a vehicle, in particular a caravan or a van, comprising at least one vertically running prop, the prop having, in the horizontal direction, a substantially annular cross section which tapers towards the front and is provided with a vertical opening slot, the cross section comprising a wall that surrounds a central space and comprising flange faces extending in the transverse direction and located at the side of the opening slot, characterised in that the opening slot is vertically continuous and the cross section is thus open and Ω-shaped.
A method of operating a mobile lift crane, the lift crane comprising a carbody having moveable ground engaging members (614, 616); a rotating bed rotatably connected to the carbody such that the rotating bed can swing with respect to the ground engaging members (614, 616); a boom pivotally mounted on a front portion of the rotating bed, with a hoist line extending therefrom; a mast mounted at its first end on the rotating bed; a moveable counterweight unit; and at least one arm pivotally connected at a first end to the rotating bed and pivotally connected at a second end to the first end of a rack and pinion assembly, and the second end of the rack and pinion assembly is pivotally connected to the rotating bed, wherein the rack and pinion assembly causes the arm to pivot when the rack and pinion assembly is retracted and extended, and wherein the counterweight is positioned by extending and retracting the rack and pinion assembly; the method comprising: a) positioning the counterweight forward of a point directly below the top of the mast when no load is on the hoist line; and b) positioning the counterweight rearward of the top of the mast when the hoist line is supporting a load; c) wherein the moveable counterweight is never supported by the ground during crane pick, move and set operations other than indirectly by the moveable ground engaging members on the carbody. a) positioning the counterweight forward of a point directly below the top of the mast when no load is on the hoist line; and b) positioning the counterweight rearward of the top of the mast when the hoist line is supporting a load; c) wherein the moveable counterweight is never supported by the ground during crane pick, move and set operations other than indirectly by the moveable ground engaging members on the carbody.
A system for controlling a watercraft, the system comprising: a marine propulsion device (1a, 1b); an input device configured to output an operating signal indicating a first mode selected in accordance with an operation thereof; and a controller, wherein the controller is configured to receive the operating signal from the input device, the controller is configured to control the marine propulsion device (1a, 1b) such that the watercraft is kept located in a target spot under selection of the first mode, characterized in that when the controller receives instructions according an intention to move the watercraft to the target spot from a first spot remote from the target spot under selection of the first mode, the controller is configured to select in which of a bow mode and a stern mode the marine propulsion device (1a, 1b) is controlled depending on a position of the target spot with respect to the first spot so as to control the marine propulsion device (1a, 1b) such that the watercraft is moved from the first spot to the target spot in one selected from the bow mode and the stern mode, the bow mode orienting a bow of the watercraft toward the target spot, the stern mode orienting a stern of the watercraft toward the target spot. a marine propulsion device (1a, 1b); an input device configured to output an operating signal indicating a first mode selected in accordance with an operation thereof; and a controller, wherein the controller is configured to receive the operating signal from the input device, the controller is configured to control the marine propulsion device (1a, 1b) such that the watercraft is kept located in a target spot under selection of the first mode, characterized in that when the controller receives instructions according an intention to move the watercraft to the target spot from a first spot remote from the target spot under selection of the first mode, the controller is configured to select in which of a bow mode and a stern mode the marine propulsion device (1a, 1b) is controlled depending on a position of the target spot with respect to the first spot so as to control the marine propulsion device (1a, 1b) such that the watercraft is moved from the first spot to the target spot in one selected from the bow mode and the stern mode, the bow mode orienting a bow of the watercraft toward the target spot, the stern mode orienting a stern of the watercraft toward the target spot.
A purified peptide, which is a fragment of full-length lens epithelium derived growth factor (LEDGF), the peptide having a purity equal or higher than 90% as quantified by SDS-PAGE and SEC-HPLC and consisting of N-terminal amino acids 1-326 of LEDGF, which is LEDGF 1-326 (SEQ ID NO: 2), or a sequence selected from the group consisting of a sequence with an identity of at least 85%, a sequence with an identity of at least 90%, and a sequence with an identity of at least 95%, to the amino acid sequence of LEDGF 1-326 (SEQ ID NO: 2).
A method for denaturing a biochemical agent, comprising the steps of providing a decontamination apparatus comprising a source of a cleaning fluid, a mist generator having an input flow of said cleaning fluid and an output flow of a mist of said cleaning fluid at substantially one atmosphere ambient pressure, and an activator comprising a first activator and a second activator; producing an activated cleaning fluid mist from said cleaning fluid using said mist generator and said first activator, said first activator producing a photonic activating energy; wherein said activated cleaning fluid mist is at substantially one atmosphere ambient pressure and said activated cleaning fluid mist includes fine droplets of said cleaning fluid; and wherein an activated cleaning fluid mist is a cleaning fluid mist having at least a portion of the cleaning fluid mist in an ion, plasma, and/or free radical state; using said second activator to maintain said activated state of said activated cleaning fluid mist and/or to re-activate said cleaning fluid mist by using, on at least one additional occasion, an activating energy selected from the group consisting of electric and photonic energy; and contacting said activated cleaning fluid mist to a biochemical agent; wherein said first activator is proximate to the mist generator and is packaged together with said mist generator in a housing and is positioned to activate said mist of said cleaning fluid to produce an activated cleaning fluid mist; and wherein said second activator is remote from the mist generator is positioned outside said housing. wherein said activated cleaning fluid mist is at substantially one atmosphere ambient pressure and said activated cleaning fluid mist includes fine droplets of said cleaning fluid; and wherein an activated cleaning fluid mist is a cleaning fluid mist having at least a portion of the cleaning fluid mist in an ion, plasma, and/or free radical state; wherein said first activator is proximate to the mist generator and is packaged together with said mist generator in a housing and is positioned to activate said mist of said cleaning fluid to produce an activated cleaning fluid mist; and wherein said second activator is remote from the mist generator is positioned outside said housing.
Device for the insertion of elements into fuse boxes, comprising: - a tray designed to receive fuse boxes; - an actuator comprising displacement means along at least two coordinate axes; - an actuator controller; - at least one tool, linked to the actuator by detachable linking means; - a means of measurement of the force exerted by the actuator on at least one of the coordinates; - a calibrator of the means of measurement of the force exerted by the actuator; and - a calibrator of the position of the actuator; characterized in that the calibrator of the position of the actuator and the calibrator of the means of measurement of the force exerted by the actuator are arranged substantially in the same location. - a tray designed to receive fuse boxes; - an actuator comprising displacement means along at least two coordinate axes; - an actuator controller; - at least one tool, linked to the actuator by detachable linking means; - a means of measurement of the force exerted by the actuator on at least one of the coordinates; - a calibrator of the means of measurement of the force exerted by the actuator; and - a calibrator of the position of the actuator;
Microfluidic device for transporting a fluid, in particular a micropump or microvalve, characterized by films (2, 3) which bear with mutually opposite film surfaces one against the other and which are connected to one another with delimitation of a transport duct to be formed between the films (2, 3), and by deflection arrangements for forming the transport duct by the joint deflection, in a direction perpendicular to the film surfaces, of the films (2, 3) bearing one against the other, a deflectable surface region of the film at the rear in the deflection direction lying inside the deflectable surface region, delimited by the connection between the films (2, 3), of the film at the front in the deflection direction.
A package comprising a secondary packaging defining a central cavity containing a plurality of snack food packs comprising primary packaged products, the package comprising a folded layer of paper and having at least one mechanical seal (20,22,24) at which plural plies (12,13,14) of the layer of paper are mechanically crimped together, the mechanical crimping being the sole joining mechanism between the adjacent sealed plies (12,13,14), wherein the at least one mechanical seal (20,22,24) comprises an embossed mechanical interlock between adjacent paper plies (12,13,14) and comprises a succession of alternating concave and convex portions (26,28) inclined to the length direction of the mechanical seal (20,22,24), wherein the package is pillow-shaped and has opposed ends (16,18), each end having a respective transverse mechanical seal (20,22), and the package further has a longitudinal mechanical seal extending between the transverse mechanical seals (20,22).
A bipolar type electrode for a lithium battery comprising a resin current collector containing a polyolefin-based resin matrix and a conductive filler, a positive electrode active material layer provided on one surface of the resin current collector, and a negative electrode active material layer provided to have a direct contact with the other surface of the resin current collector, wherein the polyolefin-based resin matrix is polypropylene, wherein an electron conductive layer is disposed to have a direct contact with the surface of the resin current collector that is in contact with the positive electrode active material layer, and wherein the electron conductive layer contains an epoxy resin and a conductive filler. wherein the polyolefin-based resin matrix is polypropylene, wherein an electron conductive layer is disposed to have a direct contact with the surface of the resin current collector that is in contact with the positive electrode active material layer, and wherein the electron conductive layer contains an epoxy resin and a conductive filler.
Single screw extruder for the extrusion of food or feed, comprising in the direction of flow of a product to be extruded: i) a processing section; ii) a bypass outlet; ii) a valve plate; iii) a die plate; iv) a cutter with (a) rotatable knife(s) in a cutter housing configured to cut the product exiting the die plate into smaller pieces; wherein the flow of product can be directed - through the valve plate under normal operating conditions of the extruder, and - through the bypass outlet during start-up of the extruder or for maintenance purposes downstream of the valve plate; characterized in that the valve plate is arranged on or in a mounting plate; in that the cutter housing and the mounting plate are provided with interacting guiding means (P; H)that prevent rotation of the cutter housing vis-à-vis the mounting plate; and in that the cutter housing and the mounting plate are mechanically fastened to each other with rotational locking means. i) a processing section; ii) a bypass outlet; ii) a valve plate; iii) a die plate; iv) a cutter with (a) rotatable knife(s) in a cutter housing configured to cut the product exiting the die plate into smaller pieces; - through the valve plate under normal operating conditions of the extruder, and - through the bypass outlet during start-up of the extruder or for maintenance purposes downstream of the valve plate; the valve plate is arranged on or in a mounting plate; in that the cutter housing and the mounting plate are provided with interacting guiding means (P; H)that prevent rotation of the cutter housing vis-à-vis the mounting plate; and in that the cutter housing and the mounting plate are mechanically fastened to each other with rotational locking means.
Three-way-catalyst system comprising • a first three-way catalyst on an inert catalyst support which is a double-layer catalyst comprising a first layer on the inert catalyst support, comprising active alumina, a cerium/zirconium mixed oxide and palladium as a catalytically active noble metal and a second layer applied to the first layer and in direct contact with the exhaust gas to be purified, comprising active alumina and rhodium as a catalytically active noble metal, wherein the second layer is free of cerium and cerium containing materials, does not contain any catalytically active noble metal besides rhodium and comprises a neodymium/zirconium mixed oxide, and • a second three-way-catalyst. • a first three-way catalyst on an inert catalyst support which is a double-layer catalyst comprising a first layer on the inert catalyst support, comprising active alumina, a cerium/zirconium mixed oxide and palladium as a catalytically active noble metal and a second layer applied to the first layer and in direct contact with the exhaust gas to be purified, comprising active alumina and rhodium as a catalytically active noble metal, wherein the second layer is free of cerium and cerium containing materials, does not contain any catalytically active noble metal besides rhodium and comprises a neodymium/zirconium mixed oxide, and • a second three-way-catalyst.
A burner control valve (130, 230, 330, 340) comprising: a valve body (132, 232, 332, 432) having a gas inlet (134, 234, 334, 434) and a gas outlet (135, 235, 335, 435) connected to one another by an orifice (140, 240, 340, 440); a valve seat (138, 238, 338, 438) in the orifice (140, 240, 340, 440); a control element (136, 236, 336, 436) that cooperates with the valve seat (138, 238, 338, 438) to control a flow of gas through the valve body (132, 232, 332, 432); an actuator (142, 242, 342, 442) operatively connected to the control element (136, 236, 336, 436) to bias the control element (136, 236, 336, 436) to a closed position; a bonnet (146, 246, 346, 446) connected to the valve body (132, 232, 332, 432), the bonnet (146, 246, 346, 446) connecting the actuator (142, 242, 342, 442) to the valve body (132, 232, 332, 432), such that the bonnet (146, 246, 346, 446) is disposed between the valve seat (138, 238, 338, 438) and the actuator (142, 242, 342, 442), the bonnet (146, 246, 346, 446) including a loading pressure input (148, 248, 348, 448) and a loading pressure chamber (150, 250, 350, 450); and a speed control assembly (154, 254, 354, 454) to control the rate of gas that passes through the loading pressure input (148, 248, 348, 448) into the loading pressure chamber (150, 250, 350, 450) and to control thereby the rate at which the burner control valve (130, 230, 330, 340) opens. a valve body (132, 232, 332, 432) having a gas inlet (134, 234, 334, 434) and a gas outlet (135, 235, 335, 435) connected to one another by an orifice (140, 240, 340, 440); a valve seat (138, 238, 338, 438) in the orifice (140, 240, 340, 440); a control element (136, 236, 336, 436) that cooperates with the valve seat (138, 238, 338, 438) to control a flow of gas through the valve body (132, 232, 332, 432); an actuator (142, 242, 342, 442) operatively connected to the control element (136, 236, 336, 436) to bias the control element (136, 236, 336, 436) to a closed position; a bonnet (146, 246, 346, 446) connected to the valve body (132, 232, 332, 432), the bonnet (146, 246, 346, 446) connecting the actuator (142, 242, 342, 442) to the valve body (132, 232, 332, 432), such that the bonnet (146, 246, 346, 446) is disposed between the valve seat (138, 238, 338, 438) and the actuator (142, 242, 342, 442), the bonnet (146, 246, 346, 446) including a loading pressure input (148, 248, 348, 448) and a loading pressure chamber (150, 250, 350, 450); and a speed control assembly (154, 254, 354, 454) to control the rate of gas that passes through the loading pressure input (148, 248, 348, 448) into the loading pressure chamber (150, 250, 350, 450) and to control thereby the rate at which the burner control valve (130, 230, 330, 340) opens.
A press drive for a forming device comprising - a central drive shaft with an eccentric guide unit, - a toggle lever gearbox with two toggle levers, each of which have a first and a second lever arm (8, 9) connected with each other in an articulated manner, - wherein the first lever arms are connected with the eccentric guide unit and the second lever arms respectively with at least one slide connection with a press plunger and - the toggle levers are each rotatably mounted about a central bearing axis arranged in the first lever arm, characterized in that - the eccentric guide unit has a push rod, which is mounted with a first end in a lever arm guide on the first lever arm and in a support guide. - a central drive shaft with an eccentric guide unit, - a toggle lever gearbox with two toggle levers, each of which have a first and a second lever arm (8, 9) connected with each other in an articulated manner, - wherein the first lever arms are connected with the eccentric guide unit and the second lever arms respectively with at least one slide connection with a press plunger and - the toggle levers are each rotatably mounted about a central bearing axis arranged in the first lever arm, - the eccentric guide unit has a push rod, which is mounted with a first end in a lever arm guide on the first lever arm and in a support guide.
A computer-implemented method for predicting the orientation of fibers immersed in a fluid having polymer chains in an injection molding process where the fluid with the fibers immersed therein is injected into a cavity of a mold unit for producing fiber-reinforced thermoplastic composites reinforced by the fibers, said computer-implemented method comprising a step of calculating, using a computer processor, the orientation of the fibers by taking into consideration an interaction between the fibers and the fluid, wherein the interaction between the fibers and the fluid comprises changes in the configuration of the polymer chains to cause the entanglement or adsorption between the fibers and the polymer chains, wherein the interaction is represented using an expression: d ψ d t IOK = − kψ; k = pp − 1: d pp d t IOK; wherein Ψ represents a probability density function of aligned fibers; d ψ dt IOK represents a change in the probability density function of the aligned fibers decaying with respect to time; k represents a characteristic constant of the interaction between the fibers and the fluid; p represents orientation vector of a fiber; pp represents orientation tensor of a fiber; (pp) -1 represents inverse of orientation tensor pp; d pp dt IOK represents a change in orientation tensor pp with respect to time and IOK represents the Intrinsic Orientation Kinetic mechanism.