mhurhangee/ep-ind-claims huggingface dataset:
An air treatment appliance, comprising: a removable cartridge containing a liquid compound to be aerosolized and including a cartridge outlet through which the aerosolized compound is discharged; a pump operatively coupled to the removable cartridge to supply air to the removable cartridge to generate the aerosolized compound from the liquid compound contained in the removable cartridge; a controller operatively coupled to the pump for controlling the pump to supply the air to the removable cartridge to generate the aerosolized compound and discharge the aerosolized compound from the cartridge outlet; and an appliance housing that accommodates the removable cartridge, the pump and the controller within an internal cavity thereof, the appliance housing including a base, a cover coupled to the base to define the internal cavity, and an inner sub-housing located within the internal cavity, the inner sub-housing coupled to the base to collectively define a passageway having an air outlet positioned to discharge a flow of air across a path of the aerosolized compound discharged from the cartridge outlet during operation. a removable cartridge containing a liquid compound to be aerosolized and including a cartridge outlet through which the aerosolized compound is discharged; a pump operatively coupled to the removable cartridge to supply air to the removable cartridge to generate the aerosolized compound from the liquid compound contained in the removable cartridge; a controller operatively coupled to the pump for controlling the pump to supply the air to the removable cartridge to generate the aerosolized compound and discharge the aerosolized compound from the cartridge outlet; and an appliance housing that accommodates the removable cartridge, the pump and the controller within an internal cavity thereof, the appliance housing including a base, a cover coupled to the base to define the internal cavity, and an inner sub-housing located within the internal cavity, the inner sub-housing coupled to the base to collectively define a passageway having an air outlet positioned to discharge a flow of air across a path of the aerosolized compound discharged from the cartridge outlet during operation.
A sheet material for a seat characterized in that the stress at 5 % elongation is from 40 to 300 N/4 cm width wherein A is a larger value between a stress measured in the longitudinal direction and a stress measured in the lateral direction at a tensile speed of 50 mm/min and an initial load of 2 to 3 N/4 cm, that ratio A/B is from 1.5 to 15.0 wherein B is the smaller value obtained in the above measurement, and that the reduction in width is from 0 to 15%, which is calculated according to the following formula: H % = H 0 − H 1 / 300 × 100 wherein H 0 is the space between the following two marking lines prior to reduction in width which is 300 mm when the sheet material, 400 mm x 400 mm, is fixed on a frame at the one end and the opposite end, a marking line 50 mm apart from one of the two ends that are not fixed is drawn on the sheet material surface, and also a marking line 50 mm apart from the other one thereof is drawn, and H 1 (mm) is the space between the marking lines after reduction in width when the central portion of the sheet material is compressed with a disk-like compressing jig 100 mm in diameter at a speed of 50 mm/min at a load of 245 N which is held for 15 sec.
A washing machine assembly, comprising: a body; an outer drum connected to the body, the outer drum forming a receiving cavity and an opening groove in communication with receiving cavity therein; an inner drum located in the receiving cavity, the inner drum forming a washing tank; a door assembly rotatably connected to the outer drum for opening or closing to the outer drum, the door assembly covering the outer drum to block the opening groove, and the door assembly forming a mounting hole therein; and an ultrasonic device located in the mounting hole and connected to the door assembly, and the ultrasonic device being at least partially located in the washing tank when the door assembly is closed; and characterized in that the ultrasonic device comprises an excitation plate and a vibrator provided on the excitation plate, the excitation plate is located in the mounting hole and connected to the door assembly, and the vibrator is located in the mounting hole. a body; an outer drum connected to the body, the outer drum forming a receiving cavity and an opening groove in communication with receiving cavity therein; an inner drum located in the receiving cavity, the inner drum forming a washing tank; a door assembly rotatably connected to the outer drum for opening or closing to the outer drum, the door assembly covering the outer drum to block the opening groove, and the door assembly forming a mounting hole therein; and an ultrasonic device located in the mounting hole and connected to the door assembly, and the ultrasonic device being at least partially located in the washing tank when the door assembly is closed; and characterized in that the ultrasonic device comprises an excitation plate and a vibrator provided on the excitation plate, the excitation plate is located in the mounting hole and connected to the door assembly, and the vibrator is located in the mounting hole.
A wire guide capable of anchoring within a body lumen, comprising: an elongate member comprising a first proximal end and a first distal end, an expandable anchoring portion affixed to the first distal end of the elongate member, the expandable anchoring portion comprising a second proximal end and a second distal end and a plurality of expandable members extending between the second proximal end and the second distal end, the expandable anchoring portion self-expanding from a collapsed configuration to an expanded configuration; and characterized by one or more surface features (801, 900, 1100, 1201, 1401) disposed along the plurality of expandable members to anchor the expandable members to one or more walls of the body lumen when the expandable anchoring portion self-expands to the expanded configuration. an elongate member comprising a first proximal end and a first distal end, an expandable anchoring portion affixed to the first distal end of the elongate member, the expandable anchoring portion comprising a second proximal end and a second distal end and a plurality of expandable members extending between the second proximal end and the second distal end, the expandable anchoring portion self-expanding from a collapsed configuration to an expanded configuration; and characterized by one or more surface features (801, 900, 1100, 1201, 1401) disposed along the plurality of expandable members to anchor the expandable members to one or more walls of the body lumen when the expandable anchoring portion self-expands to the expanded configuration.
Automated tool clamping device, which is configured for a clamping-in of at least one tool (10a-b) in a tool chuck (14a-b) by a tightening of a union nut (12a-b) of the tool chuck (14a-b) or for an unclamping of the tool (10a-b) from the tool chuck (14a-b) by loosening the union not (12a-b), with a clamping element (16a-b) which is at least configured to create a connection to the union nut (12a-b) of the tool chuck (14a-b), and with a torque receiving element (18a-b), which is at least configured to receive at least a large portion of a torque occurring during a tool clamping process, characterised in that the clamping element (16a-b) and the torque receiving element (18a-b) are implemented separately from each other in such a way that the clamping element (16a-b) is realized such that it can be loosely put onto the tool chuck (14a-b) and/or can be loosely removed from the tool chuck (14a-b), and that the clamping element (16a-b) is movable at least while uncoupled from the torque receiving element (18a-b).
A peptide comprising the amino acid sequence: X 1 X 2 CX 3 X 4 X 5 X 6 X 7 X 8 X 9 X 10 X 11 CX 12 (SEQ ID NO: 48) wherein: X 1 is selected from L, M, A, S, and V; X 2 is selected from Y, D, E, I, L, N, and S; X 3 is selected from F, I, and Y; X 4 is selected from F, I, and Y; X 5 is selected from D and E; X 6 is selected from L, M, V, and P; X 7 is selected from S, N, D, A, and T; X 8 is selected from Y, D, F, N, and W; X 9 is selected from G, D, and E; X 10 is selected from Y and F; X 11 is selected from L, V, M, Q, and W; and X 12 is selected from F, L, C, V, and Y; wherein the peptide inhibits USP30 with an IC50 of less than 10 μM.
Process for producing a rubber mixture comprising at least the following steps: a) mixing at least one sulfur with at least one terpene and/or with at least one high-viscosity oil, b) dispersing the sulfur mixture comprising at least one terpene and/or at least one high-viscosity oil from step a) in a rubber mixture, wherein - the terpene has a hydrocarbon backbone constructed exclusively of isoprene units, - the high-viscosity oil has a kinematic viscosity at 40°C of greater than 80 mm 2 /s and - the rubber mixture comprises at least the following substances: - at least one polar or nonpolar rubber and - at least one light-coloured and/or dark-coloured filler and - further additives. a) mixing at least one sulfur with at least one terpene and/or with at least one high-viscosity oil, b) dispersing the sulfur mixture comprising at least one terpene and/or at least one high-viscosity oil from step a) in a rubber mixture, wherein - the terpene has a hydrocarbon backbone constructed exclusively of isoprene units, - the high-viscosity oil has a kinematic viscosity at 40°C of greater than 80 mm 2 /s and - the rubber mixture comprises at least the following substances: - at least one polar or nonpolar rubber and - at least one light-coloured and/or dark-coloured filler and - further additives. - the terpene has a hydrocarbon backbone constructed exclusively of isoprene units, - the high-viscosity oil has a kinematic viscosity at 40°C of greater than 80 mm 2 /s and - the rubber mixture comprises at least the following substances: - at least one polar or nonpolar rubber and - at least one light-coloured and/or dark-coloured filler and - further additives. - at least one polar or nonpolar rubber and - at least one light-coloured and/or dark-coloured filler and - further additives.
A cable arm bracket comprising: a body having a first end and a second end, generally opposite from the first end; a cable guide attached to the first end of the body; at least two apertures in the second end of the body; and a spring sheet connected to the body having a first end and a second end (31 0b), generally opposite from the first end and over the second end of the body, the spring sheet having a ridge at the second end that obstructs at least part of at least one aperture of the at least two apertures with the spring sheet in a first position, wherein the spring sheet is configured to bias into a second position so that the ridge does not obstruct the at least part of the at least one aperture. a body having a first end and a second end, generally opposite from the first end; a cable guide attached to the first end of the body; at least two apertures in the second end of the body; and a spring sheet connected to the body having a first end and a second end (31 0b), generally opposite from the first end and over the second end of the body, the spring sheet having a ridge at the second end that obstructs at least part of at least one aperture of the at least two apertures with the spring sheet in a first position, wherein the spring sheet is configured to bias into a second position so that the ridge does not obstruct the at least part of the at least one aperture.
An X-ray window arrangement (100; 200) arranged for separating an ambient pressure region (114; 214) from a reduced pressure region (110; 210) at a pressure between 10 -9 and 10 -6 bar, and arranged for allowing X-rays to leave the reduced pressure region, the window arrangement comprising: a primary window element (122; 222); a secondary window element (124; 224; 310); and a heat source adapted to heat at least a portion of said secondary window element for thereby evaporating contaminant having deposited thereon, wherein an intermediate region (112; 212) is located between the primary and secondary window elements, so that in use the primary window element separates the ambient pressure region from the intermediate region and the secondary window element separates the intermediate region and the reduced pressure region, wherein the primary window element is pressure-tight and arranged to carry most of the differential pressure between the ambient pressure region and the reduced pressure region. a primary window element (122; 222); a secondary window element (124; 224; 310); and a heat source adapted to heat at least a portion of said secondary window element for thereby evaporating contaminant having deposited thereon, wherein an intermediate region (112; 212) is located between the primary and secondary window elements, so that in use the primary window element separates the ambient pressure region from the intermediate region and the secondary window element separates the intermediate region and the reduced pressure region, wherein the primary window element is pressure-tight and arranged to carry most of the differential pressure between the ambient pressure region and the reduced pressure region.
A method for transmitting an enhanced physical downlink control channel, EPDCCH, at a base station in a wireless communication system, the method comprising: determining a number of usable resource elements in a data region of a resource block pair based on a number of symbols of the data region and pre-configured 24 resource elements for demodulation reference signal; determining a size of a resource allocation unit for the EPDCCH and a number of resource allocation units within the data region of the resource block pair, based upon the number of usable resource elements in the data region of the resource block pair, allocating all of the pre-configured 24 resource elements to the demodulation reference signal, when the number of resource allocation units is determined to be 4; allocating 12 resource elements of the pre-configured 24 resource elements to the demodulation reference signal and the remaining 12 resource elements to one or more resource allocation units, when the number of resource allocation units is less than 4; mapping the EPDCCH to a transmission resource within a predetermined number of resource block pairs, in accordance with the determined resource allocation units; and transmitting the EPDCCH to the user equipment by using one or more antennas according to a mapping result of the EPDCCH, wherein the size of the resource allocation unit is defined by the number of resource elements, and wherein the size of the resource allocation unit varies in accordance with the number of usable resource elements. determining a number of usable resource elements in a data region of a resource block pair based on a number of symbols of the data region and pre-configured 24 resource elements for demodulation reference signal; determining a size of a resource allocation unit for the EPDCCH and a number of resource allocation units within the data region of the resource block pair, based upon the number of usable resource elements in the data region of the resource block pair, allocating all of the pre-configured 24 resource elements to the demodulation reference signal, when the number of resource allocation units is determined to be 4; allocating 12 resource elements of the pre-configured 24 resource elements to the demodulation reference signal and the remaining 12 resource elements to one or more resource allocation units, when the number of resource allocation units is less than 4; mapping the EPDCCH to a transmission resource within a predetermined number of resource block pairs, in accordance with the determined resource allocation units; and transmitting the EPDCCH to the user equipment by using one or more antennas according to a mapping result of the EPDCCH, wherein the size of the resource allocation unit is defined by the number of resource elements, and wherein the size of the resource allocation unit varies in accordance with the number of usable resource elements.
A method comprising: supplying at least one gas to a limited portion of a metallic surface of a component; and locally heating the limited portion of the metallic surface in the presence of the at least one gas to a treatment temperature sufficient to cause the at least one gas or a gas that forms therefrom to chemically remove oxides from the limited portion of the metallic surface and not from at least a second portion of the metallic surface that is not locally heated to the treatment temperature; wherein the locally heating step is performed with an induction coil that surrounds the limited portion of the component and not the second portion of the component. supplying at least one gas to a limited portion of a metallic surface of a component; and locally heating the limited portion of the metallic surface in the presence of the at least one gas to a treatment temperature sufficient to cause the at least one gas or a gas that forms therefrom to chemically remove oxides from the limited portion of the metallic surface and not from at least a second portion of the metallic surface that is not locally heated to the treatment temperature; wherein the locally heating step is performed with an induction coil that surrounds the limited portion of the component and not the second portion of the component.
A front derailleur for a bicycle having a frame member and a chain engaging one of a plurality of chainwheels, the frame member having a longitudinal axis, the front derailleur comprising: a mount configured to be fixed to the frame member; a movable element separate from the mount and interiorly receiving a portion of the chain, wherein the movable element includes a cage having two side plates (30,32) fixed relative to each other, the two side plates (30, 32) spaced apart from each other and interiorly receiving the portion of the chain therebetween, the side plates (30, 32) contacting the exterior side of the chain to laterally displace the chain between the plurality of chainwheels; a linkage connecting the movable element to the mount, wherein said linkage has a plurality of link members and wherein said linkage is configured to move the movable element laterally with respect to the frame member, characterized in that the link members have different effective lengths, and that the linkage is configured to move the movable element rotatably about a yaw axis substantially parallel to the longitudinal axis. a mount configured to be fixed to the frame member; a movable element separate from the mount and interiorly receiving a portion of the chain, wherein the movable element includes a cage having two side plates (30,32) fixed relative to each other, the two side plates (30, 32) spaced apart from each other and interiorly receiving the portion of the chain therebetween, the side plates (30, 32) contacting the exterior side of the chain to laterally displace the chain between the plurality of chainwheels; a linkage connecting the movable element to the mount, wherein said linkage has a plurality of link members and wherein said linkage is configured to move the movable element laterally with respect to the frame member,
End underframe (20, 22) for a railway vehicle, comprising a headstock assembly and a bolster assembly, whereby said end underframe (20, 22) is made out of a single material which consists of cold rolled austenitic stainless steel; and the headstock assembly comprises a central coupler region, two buffer regions positioned laterally on the sides of the coupler region, characterized in that the headstock assembly also comprises a cross-beam extending from one buffer region to the other, and a rear structure, the coupler region comprising a front main plate and a rear main plate sandwiching together two solid pieces, the front main plate consisting of a bent plate, and having a through-hole formed therein, said through-hole opening in both a front face and a rear face of the front main plate and having a transversal cross-section greater than 50% of the surface of the front main plate.
A phased array antenna system, comprising: a multi-layer printed wiring board assembly; at least one probe integrated with the multi-layer printed wiring board assembly; at least one electronic device integrated with the multi-layer printed wiring board assembly; a metallic waveguide plate positioned adjacent to the multi-layer printed wiring board assembly such that heat generated by the at least one electronic device dissipates to the metallic waveguide plate; at least one waveguide formed within the metallic waveguide plate, characterized in that the metallic waveguide plate is positioned such that at least a portion of the probe is contained within the waveguide; and the waveguide contains dielectric material, the dielectric material surrounding the entire portion of the probe within the waveguide, wherein the dielectric material provides a dielectric barrier between the probe and the metallic waveguide plate. a multi-layer printed wiring board assembly; at least one probe integrated with the multi-layer printed wiring board assembly; at least one electronic device integrated with the multi-layer printed wiring board assembly; a metallic waveguide plate positioned adjacent to the multi-layer printed wiring board assembly such that heat generated by the at least one electronic device dissipates to the metallic waveguide plate; at least one waveguide formed within the metallic waveguide plate, characterized in that the metallic waveguide plate is positioned such that at least a portion of the probe is contained within the waveguide; and the waveguide contains dielectric material, the dielectric material surrounding the entire portion of the probe within the waveguide, wherein the dielectric material provides a dielectric barrier between the probe and the metallic waveguide plate.
A method of manufacturing at least a lengthwise portion of a wind turbine blade, the method comprising: through an additive manufacturing process including computer controlled deposition of individual layers of material based on a computer model of a part, depositing a main body in a plurality of layers such that a cross section of the main body includes a first region of a first density that surrounds a second region having a volume of void space and being of a second density, the first density being greater than the second density due to the volume of void space in the second region wherein the additive manufacturing process includes depositing each of said first region and said second region; and forming a surface layer that bounds the first region and that forms an exterior surface of the wind turbine blade. through an additive manufacturing process including computer controlled deposition of individual layers of material based on a computer model of a part, depositing a main body in a plurality of layers such that a cross section of the main body includes a first region of a first density that surrounds a second region having a volume of void space and being of a second density, the first density being greater than the second density due to the volume of void space in the second region wherein the additive manufacturing process includes depositing each of said first region and said second region; and forming a surface layer that bounds the first region and that forms an exterior surface of the wind turbine blade.