mhurhangee/ep-ind-claims huggingface dataset:
A removable seat cover for a seat of a vehicle, the removable seat cover comprising: a first and a second portion defined by a slit which extends across at least part of a width of a main panel of the seat cover; a first coupling arrangement configured to couple the first and second portions of the seat cover; and at least one attachment arrangement (5, 6) configured to fit the seat cover with respect to a seat of a vehicle, wherein: the first coupling arrangement is configured such that the decoupling of the first coupling arrangement permits the first and second portions of the seat cover to be moved with respect to each other whilst the seat cover is substantially fitted with respect to the seat; the seat cover is configured to cover at least a part of a seat back, a seat squab, and a seat headrest of the seat; and the first coupling arrangement is a re-coupleable coupling arrangement. a first and a second portion defined by a slit which extends across at least part of a width of a main panel of the seat cover; a first coupling arrangement configured to couple the first and second portions of the seat cover; and at least one attachment arrangement (5, 6) configured to fit the seat cover with respect to a seat of a vehicle, wherein: the first coupling arrangement is configured such that the decoupling of the first coupling arrangement permits the first and second portions of the seat cover to be moved with respect to each other whilst the seat cover is substantially fitted with respect to the seat; the seat cover is configured to cover at least a part of a seat back, a seat squab, and a seat headrest of the seat; and the first coupling arrangement is a re-coupleable coupling arrangement. the first coupling arrangement is configured such that the decoupling of the first coupling arrangement permits the first and second portions of the seat cover to be moved with respect to each other whilst the seat cover is substantially fitted with respect to the seat; the seat cover is configured to cover at least a part of a seat back, a seat squab, and a seat headrest of the seat; and the first coupling arrangement is a re-coupleable coupling arrangement.
A computer -implemented method of graphics processing comprising: performing a binning operation on primitives of a scene; calculating an overdraw number representing an amount of overdraw of primitives in a region of the scene; and selecting a rendering mode based on the calculated overdraw number, wherein calculating the overdraw number representing an amount of overdraw comprises: calculating an overlap value for each of one or more pixels in a bin, the overlap value being the number of primitives greater than 1 that touch a pixel; summing each calculated overlap value for each of the pixels in the bin to produce a total overlap value; and dividing the total overlap value by a number of the pixels in the bin to produce the overdraw number. performing a binning operation on primitives of a scene; calculating an overdraw number representing an amount of overdraw of primitives in a region of the scene; and selecting a rendering mode based on the calculated overdraw number, wherein calculating the overdraw number representing an amount of overdraw comprises: calculating an overlap value for each of one or more pixels in a bin, the overlap value being the number of primitives greater than 1 that touch a pixel; summing each calculated overlap value for each of the pixels in the bin to produce a total overlap value; and dividing the total overlap value by a number of the pixels in the bin to produce the overdraw number. calculating an overlap value for each of one or more pixels in a bin, the overlap value being the number of primitives greater than 1 that touch a pixel; summing each calculated overlap value for each of the pixels in the bin to produce a total overlap value; and dividing the total overlap value by a number of the pixels in the bin to produce the overdraw number.
A method, comprising: receiving, by a network traffic hub, a request for port services from a smart appliance, the smart appliance and a router being on a same local area network; transmitting, by the network traffic hub, a request for authorization to an authorization device; receiving, by the network traffic hub, an authorization message from the authorization device approving the port services request from the smart appliance; transmitting, by the network traffic hub, a second request for port services to the router; receiving, from the router by the network traffic hub, forwarded network traffic from a wide area network; and monitoring, by the network traffic hub, the forwarded network traffic from the router to the smart appliance to identify malicious activity. receiving, by a network traffic hub, a request for port services from a smart appliance, the smart appliance and a router being on a same local area network; transmitting, by the network traffic hub, a request for authorization to an authorization device; receiving, by the network traffic hub, an authorization message from the authorization device approving the port services request from the smart appliance; transmitting, by the network traffic hub, a second request for port services to the router; receiving, from the router by the network traffic hub, forwarded network traffic from a wide area network; and monitoring, by the network traffic hub, the forwarded network traffic from the router to the smart appliance to identify malicious activity.
A microfluidic tissue dissociation and filtration device comprising: an inlet coupled to a first microfluidic channel at an upstream location, the first microfluidic channel coupled to a first outlet at a downstream location, the first microfluidic channel located in a first plane of the microfluidic tissue dissociation device; a first filter membrane interposed between the first microfluidic channel and a second microfluidic channel, wherein the second microfluidic channel is in fluidic communication with the first microfluidic channel via the first filter membrane and wherein the second microfluidic channel is located in a second plane of the microfluidic tissue dissociation device and the first filter membrane is disposed in a via, hole, or aperture formed between the first microfluidic channel and the second microfluidic channel; and a second outlet coupled to a downstream location of the second microfluidic channel. an inlet coupled to a first microfluidic channel at an upstream location, the first microfluidic channel coupled to a first outlet at a downstream location, the first microfluidic channel located in a first plane of the microfluidic tissue dissociation device; a first filter membrane interposed between the first microfluidic channel and a second microfluidic channel, wherein the second microfluidic channel is in fluidic communication with the first microfluidic channel via the first filter membrane and wherein the second microfluidic channel is located in a second plane of the microfluidic tissue dissociation device and the first filter membrane is disposed in a via, hole, or aperture formed between the first microfluidic channel and the second microfluidic channel; and a second outlet coupled to a downstream location of the second microfluidic channel.
A pneumatic drive mechanism for a medical robot, comprising: a manifold having a plurality of cylinders extending in a first direction; and respective rods corresponding to the plurality of cylinders, the rods extending on one side in the first direction, the manifold further having a plurality of air supply ports (17, 17a, 17b) that feed the cylinders with air for moving the respective rods forward and backward, the air supply ports (17, 17a, 17b) being provided on another side in the first direction in the manifold, wherein the pneumatic drive mechanism further comprises a peripheral member attached using the manifold as a reference; characterized in that a linear encoder having a scale portion and a detection unit is provided corresponding to each of the plurality of cylinders, and the peripheral member includes the detection units; a transmission member corresponding to each of the plurality of cylinders, wherein each transmission member being connected to a respective rod and to a respective scale, wherein each transmission member being supported on a linear motion guide via the scale portion, wherein each transmission member being supported so as to be linearly movable together with the scale portion relative the motion guide; and the manifold is positioned with respect to a linear motion guide which supports the scale portion. a manifold having a plurality of cylinders extending in a first direction; and respective rods corresponding to the plurality of cylinders, the rods extending on one side in the first direction, the manifold further having a plurality of air supply ports (17, 17a, 17b) that feed the cylinders with air for moving the respective rods forward and backward, the air supply ports (17, 17a, 17b) being provided on another side in the first direction in the manifold, wherein the pneumatic drive mechanism further comprises a peripheral member attached using the manifold as a reference; characterized in that a linear encoder having a scale portion and a detection unit is provided corresponding to each of the plurality of cylinders, and the peripheral member includes the detection units; a transmission member corresponding to each of the plurality of cylinders, wherein each transmission member being connected to a respective rod and to a respective scale, wherein each transmission member being supported on a linear motion guide via the scale portion, wherein each transmission member being supported so as to be linearly movable together with the scale portion relative the motion guide; and the manifold is positioned with respect to a linear motion guide which supports the scale portion.
A system for distributing force in a multi-stage pump stack comprising: a shaft (110, 204); an impeller (206, 300, 410, 500) coupled to the shaft (110, 204), the impeller (206, 300, 410, 500) including a balance ring (304, 504), a balance hole (310, 412), and a hub; a diffuser (208, 600) disposed adjacent to the impeller (206, 300, 410, 500); and a thrust washer (306, 400, 506) coupled to the impeller (206, 300, 410, 500), the thrust washer (306, 400, 506) located between the balance ring (304, 504) and the hub without blocking the balance hole (310, 412) to allow fluid flow through the impeller (206, 300, 410, 500) and the diffuser (208, 600), wherein the diffuser (208, 600) includes a thrust washer contact surface, the thrust washer contact surface having a surface area greater than a surface area of a portion of the diffuser (208, 600) that connects the thrust washer contact surface to the diffuser (208, 600). a shaft (110, 204); an impeller (206, 300, 410, 500) coupled to the shaft (110, 204), the impeller (206, 300, 410, 500) including a balance ring (304, 504), a balance hole (310, 412), and a hub; a diffuser (208, 600) disposed adjacent to the impeller (206, 300, 410, 500); and a thrust washer (306, 400, 506) coupled to the impeller (206, 300, 410, 500), the thrust washer (306, 400, 506) located between the balance ring (304, 504) and the hub without blocking the balance hole (310, 412) to allow fluid flow through the impeller (206, 300, 410, 500) and the diffuser (208, 600), wherein the diffuser (208, 600) includes a thrust washer contact surface, the thrust washer contact surface having a surface area greater than a surface area of a portion of the diffuser (208, 600) that connects the thrust washer contact surface to the diffuser (208, 600).
Dosing device for cooperation with a further dosing device for dosing a first granular material to a second granular material, comprising: a) storage means (2; 3) comprising a first storage for storing a first quantity of the first granular material and a first outlet for releasing the first granular material from the storage means (2;3), wherein the first storage is provided with a first inlet for supplying the first granular material to the first storage; b) transport means for transporting the released first granular material to the second granular material; c) weighing means for determining the weight of the first granular material transported to the second granular material; d) control means for controlling the dosing device based on the determined weight and a predetermined weight setting; characterized in that the storage means (2; 3) - comprise a second storage for storing a second quantity of the first granular material, wherein the second quantity is smaller than the first quantity, - the second storage is arranged for receiving the first granular material from the first storage; - the second storage comprises a second outlet for releasing the first granular material to the transport means; - the weighing means are arranged for determining the weight of the first granular material transported to the second granular material by determining the decrease in weight of the second storage and the transport means. a) storage means (2; 3) comprising a first storage for storing a first quantity of the first granular material and a first outlet for releasing the first granular material from the storage means (2;3), wherein the first storage is provided with a first inlet for supplying the first granular material to the first storage; b) transport means for transporting the released first granular material to the second granular material; c) weighing means for determining the weight of the first granular material transported to the second granular material; d) control means for controlling the dosing device based on the determined weight and a predetermined weight setting; - comprise a second storage for storing a second quantity of the first granular material, wherein the second quantity is smaller than the first quantity, - the second storage is arranged for receiving the first granular material from the first storage; - the second storage comprises a second outlet for releasing the first granular material to the transport means; - the weighing means are arranged for determining the weight of the first granular material transported to the second granular material by determining the decrease in weight of the second storage and the transport means.
A composition depositable by spin coating or printing, comprising a luminescent metal ion or metal ion complex embedded within an organic matrix, characterized in that the organic matrix is luminescent, producing a system wherein the organic matrix is elevatable to an excited state having an energy higher than the excited state of the metal ion or metal ion complex, which then transfers energy to the metal ion or metal ion complex which then emits light; wherein the matrix comprises oligomers comprising aromatic repeat units or discrete molecules, and wherein the luminescent metal ion or luminescent metal ion complex comprises a metal ion selected from the group consisting of manganese, ruthenium, silver, iridium, platinum.
A system for manipulating magnetic particles in a sample vial comprising: (a) a sample vial receiving member for holding the sample vial containing magnetic particles; and, (b) a magnet array comprising, (i) a first magnet having an upper horizontal surface, wherein a north pole of said first magnet is positioned to face said sample vial positioned in said sample vial receiving member, (ii) a spacer having an upper horizontal surface, wherein said spacer is positioned on said upper horizontal surface of said first magnet, (iii) a second magnet having an upper horizontal surface, said second magnet is positioned on said upper horizontal surface of said spacer, wherein a north pole of said second magnet is positioned to face said sample vial, and (iv) a third magnet positioned on said upper horizontal surface of said second magnet, wherein a south pole of said third magnet is positioned to face said sample vial, wherein, said magnet array generates a magnetic field for manipulating said magnetic particles in said sample vial. (a) a sample vial receiving member for holding the sample vial containing magnetic particles; and, (b) a magnet array comprising, (i) a first magnet having an upper horizontal surface, wherein a north pole of said first magnet is positioned to face said sample vial positioned in said sample vial receiving member, (ii) a spacer having an upper horizontal surface, wherein said spacer is positioned on said upper horizontal surface of said first magnet, (iii) a second magnet having an upper horizontal surface, said second magnet is positioned on said upper horizontal surface of said spacer, wherein a north pole of said second magnet is positioned to face said sample vial, and (iv) a third magnet positioned on said upper horizontal surface of said second magnet, (i) a first magnet having an upper horizontal surface, wherein a north pole of said first magnet is positioned to face said sample vial positioned in said sample vial receiving member, (ii) a spacer having an upper horizontal surface, wherein said spacer is positioned on said upper horizontal surface of said first magnet, (iii) a second magnet having an upper horizontal surface, said second magnet is positioned on said upper horizontal surface of said spacer, wherein a north pole of said second magnet is positioned to face said sample vial, and (iv) a third magnet positioned on said upper horizontal surface of said second magnet,
A solid wire for gas metal arc welding, having a chemical composition containing, in mass%: C: 0.2 % to 0.8 %, Si: 0.15 % to 0.90 %, Mn: 17.0 % to 28.0 %, P: 0.03 % or less, S: 0.03 % or less, Ni: 0.01 % to 10.00 %, Cr: 0.4 % to 4.0 %, Mo: 0.01 % to 3.50 %, B: less than 0.0010 %, and N: 0.003 % to 0.12 %, and optionally at least one selected from the group consisting of V: 0.04 % or less, Ti: 0.04 % or less, Nb: 0.04 % or less, Cu: 1.0 % or less, Al: 0.1 % or less, Ca: 0.01 % or less, and REM: 0.02 % or less, with the balance consisting of Fe and inevitable impurities. C: 0.2 % to 0.8 %, Si: 0.15 % to 0.90 %, Mn: 17.0 % to 28.0 %, P: 0.03 % or less, S: 0.03 % or less, Ni: 0.01 % to 10.00 %, Cr: 0.4 % to 4.0 %, Mo: 0.01 % to 3.50 %, B: less than 0.0010 %, and N: 0.003 % to 0.12 %, and optionally at least one selected from the group consisting of V: 0.04 % or less, Ti: 0.04 % or less, Nb: 0.04 % or less, Cu: 1.0 % or less, Al: 0.1 % or less, Ca: 0.01 % or less, and REM: 0.02 % or less,
A system for preventing attacks, on an organization having plural computers, via the computers' Universal Serial Bus, USB, ports, the system comprising: at least one processor configured to monitor at least one aspect of a connection between a peripheral and a computer's USB port, to identify aspects which match pre-configured criteria and responsively, to take action, wherein the system stores descriptor sets, each including at least one descriptor, for known rogue devices and for known legitimate devices and identifies peripherals which have these descriptors, wherein the system is updated by adding descriptor sets for new models or types of legitimate or rogue USB devices to system memory, when a Machine Learning, ML, based algorithm is able to classify a certain USB device as a legitimate non malicious device with a sufficiently high level of confidence, wherein the system determines that an unknown descriptor set, which does not match the descriptor sets for the known rogue devices and the known legitimate devices, is for an unknown legitimate device after the unknown descriptor set repeats for over a threshold number of USB devices in the organization. at least one processor configured to monitor at least one aspect of a connection between a peripheral and a computer's USB port, to identify aspects which match pre-configured criteria and responsively, to take action, wherein the system stores descriptor sets, each including at least one descriptor, for known rogue devices and for known legitimate devices and identifies peripherals which have these descriptors, wherein the system is updated by adding descriptor sets for new models or types of legitimate or rogue USB devices to system memory, when a Machine Learning, ML, based algorithm is able to classify a certain USB device as a legitimate non malicious device with a sufficiently high level of confidence,
A fuel cell system comprising: a fuel cell for generating a power by causing an electrochemical reaction between an oxidant gas supplied to an oxidant electrode and a fuel gas supplied to a fuel electrode; a fuel gas supplier (HS: 10, 11, L1) for supplying the fuel gas to the fuel electrode; a discharge system capable of opening and closing an outlet of the fuel electrode side; and a controller for controlling the fuel gas supplier (HS: 10, 11, L1) to thereby supply the fuel gas to the fuel electrode, the controller being configured to implement a pressure change, wherein based on a first pressure change pattern (T1→T2, T3→T4) for implementing the pressure change at a first pressure width (ΔP1), the controller periodically changes a pressure of the fuel gas at the fuel electrode, characterized in that based on the first pressure change pattern (T1→T2, T3→T4) for implementing the pressure change at the first pressure width (ΔP1) to provide a decrease in pressure by the first pressure width (ΔP1) and based on a second pressure change pattern (Tm→Tn) for implementing the pressure change at a second pressure width (ΔP2) which is larger than the first pressure width (ΔP1), the controller periodically changes the pressure of the fuel gas at the fuel electrode. a fuel cell for generating a power by causing an electrochemical reaction between an oxidant gas supplied to an oxidant electrode and a fuel gas supplied to a fuel electrode; a fuel gas supplier (HS: 10, 11, L1) for supplying the fuel gas to the fuel electrode; a discharge system capable of opening and closing an outlet of the fuel electrode side; and a controller for controlling the fuel gas supplier (HS: 10, 11, L1) to thereby supply the fuel gas to the fuel electrode, the controller being configured to implement a pressure change, wherein based on a first pressure change pattern (T1→T2, T3→T4) for implementing the pressure change at a first pressure width (ΔP1), the controller periodically changes a pressure of the fuel gas at the fuel electrode, characterized in that
Use of a composition consisting of: • an association of: A) 70% mass of an ultraviolet filter from the cinnamate family, referred to hereafter as compound A; and B) 15% mass of an ultraviolet filter from the dibenzoylmethane family, referred to hereafter as compound B; and C) 15% mass of an ultraviolet filter from the silicylate family, referred to hereafter as compound C, and • if necessary, a surfactant; as additive for stabilising the colour of a formulation, wherein said composition is present in liquid form and the mass percents are mass percents in relation to the total mass of compounds A, B and C. • an association of: A) 70% mass of an ultraviolet filter from the cinnamate family, referred to hereafter as compound A; and B) 15% mass of an ultraviolet filter from the dibenzoylmethane family, referred to hereafter as compound B; and C) 15% mass of an ultraviolet filter from the silicylate family, referred to hereafter as compound C, and A) 70% mass of an ultraviolet filter from the cinnamate family, referred to hereafter as compound A; and B) 15% mass of an ultraviolet filter from the dibenzoylmethane family, referred to hereafter as compound B; and C) 15% mass of an ultraviolet filter from the silicylate family, referred to hereafter as compound C, • if necessary, a surfactant;