mhurhangee/ep-ind-claims huggingface dataset:
Rotor (1, 51) for an electric machine, - which comprises a laminated core which has laminations arranged in an axial direction and a groove, - wherein the laminated core and the groove extend in the axial direction from a first axial end to a second axial end along an axis of rotation, - wherein the groove has a groove filling which comprises a first material, - wherein the first material has a metal element of the periodic table, - wherein the groove filling has a cast metal region which extends with an end region at the first axial end at least partially over the laminated core perpendicularly to the axial direction in a first direction (21, 31), - wherein the cast metal region extends through the groove from the first axial end to the second axial end and fills up a first part of the groove with a first material perpendicularly to the axial direction in the first direction, - wherein an insert fills up a second part of the groove with a second material perpendicularly to the axial direction in the first direction, - wherein the second material has the metal element of the periodic table, - wherein the insert predominantly consists of the second material, - wherein the insert and the cast metal region are connected in a bonded manner by means of a connection zone, characterised in that the connection zone has an additional metal element of the periodic table. - which comprises a laminated core which has laminations arranged in an axial direction and a groove, - wherein the laminated core and the groove extend in the axial direction from a first axial end to a second axial end along an axis of rotation, - wherein the groove has a groove filling which comprises a first material, - wherein the first material has a metal element of the periodic table, - wherein the groove filling has a cast metal region which extends with an end region at the first axial end at least partially over the laminated core perpendicularly to the axial direction in a first direction (21, 31), - wherein the cast metal region extends through the groove from the first axial end to the second axial end and fills up a first part of the groove with a first material perpendicularly to the axial direction in the first direction, - wherein an insert fills up a second part of the groove with a second material perpendicularly to the axial direction in the first direction, - wherein the second material has the metal element of the periodic table, - wherein the insert predominantly consists of the second material, - wherein the insert and the cast metal region are connected in a bonded manner by means of a connection zone,
Fluid control valve (30; 40; 60) to be inserted in a valve housing, said valve comprising the valve housing and a sealing element (34; 44; 64) having a sealing surface and projecting in radial direction for sealing one or more fluid openings in said valve housing, which sealing element is responsive to fluid pressure to open and close to control the fluid flow through the fluid openings, wherein the sealing element is provided with at least one recess (37; 47; 67), wherein the recess is a groove (37; 47; 67), preferably forming an essentially closed loop, such that at least one sealing end (35; 45; 65) is defined on the sealing element extending between the recess and the periphery of the sealing element, said sealing end carrying the sealing surface, said recess forming a flexible area that functions as a hinge for the sealing end, wherein the sealing end comprises a thickened part (38; 48; 68) located adjacent the recess, wherein the height of the thickened part decreases towards the periphery of the sealing element and influences the value of the opening pressure of the fluid control valve, said opening pressure being larger than zero, characterized in that the groove (37; 47; 67) is located on the upper surface of the sealing element (34; 44; 64) opposite the sealing surface.
A hologram transfer film comprising: a substrate film; a volume hologram-forming layer provided on the substrate film; a heat-sensitive adhesive layer provided on the volume hologram-forming layer, wherein a release layer is provided between the substrate film and the volume hologram-forming layer, the volume hologram-forming layer comprising a volume hologram recording material comprising a matrix polymer, a photopolymerizable compound, a photopolymerization initiator, and a sensitizing dye, the matrix polymer comprising a polymethacrylic ester or a partial hydrolyzate thereof, the photopolymerizable compound comprising photocrosslinkable monomers, oligomers, prepolymers or mixtures thereof, the photopolymerizable compound having at least one ethylenically unsaturated bond per molecule, and the volume hologram-forming layer has a breaking strain of 0.5 to 15%, as measured in a tensile test at a tensile speed of 2 mm/min at 25°C, and a breaking strain of 0.5 to 30%, as measured in a viscoelasticity measurement test at a measurement frequency of 3.5 x 10 -4 Hz at 120°C. a substrate film; a volume hologram-forming layer provided on the substrate film; a heat-sensitive adhesive layer provided on the volume hologram-forming layer, wherein a release layer is provided between the substrate film and the volume hologram-forming layer, the volume hologram-forming layer comprising a volume hologram recording material comprising a matrix polymer, a photopolymerizable compound, a photopolymerization initiator, and a sensitizing dye, the matrix polymer comprising a polymethacrylic ester or a partial hydrolyzate thereof, the photopolymerizable compound comprising photocrosslinkable monomers, oligomers, prepolymers or mixtures thereof, the photopolymerizable compound having at least one ethylenically unsaturated bond per molecule, and the volume hologram-forming layer has a breaking strain of 0.5 to 15%, as measured in a tensile test at a tensile speed of 2 mm/min at 25°C, and a breaking strain of 0.5 to 30%, as measured in a viscoelasticity measurement test at a measurement frequency of 3.5 x 10 -4 Hz at 120°C.
A regulating slide valve apparatus having a housing which forms a duct through which a gaseous or liquid medium can flow and which has at least an inlet longitudinal portion, an outlet longitudinal portion and a further longitudinal portion arranged between bot longitudinal portions (20, 22), wherein a flange is arranged on each of the two ends of the housing, so that the regulating slide valve is mountable in a pipe; an adjustable regulating element for varying the flow cross section of the duct and adjusting the through flow rate, wherein the adjustment of the through flow is achieved in the further longitudinal portion, wherein a seat ring element is provided in the duct, the regulating element has a first longitudinal portion which has a circular cross section with diameters that vary in the longitudinal direction, the regulating element is adjustable in the longitudinal direction of the duct along an adjustment travel, wherein the regulating element, in a closure position, lies against the seat ring element and closes the duct and, in an open position, forms an annular gap, through which flow can pass, with the seat ring element, the varying diameters along the first longitudinal portion of the regulating element are configured such that the change in the cross-sectional area, through which flow can pass, of the annular gap with the adjustment of the regulating element in the longitudinal direction is such that the volume flow through the annular gap varies approximately linearly with the adjustment of the regulating element along the adjustment travel, and in the inlet longitudinal portion flow-guiding plates are provided, which condition the flow.
A composition, comprising an engineered T cell that separately expresses: 1) a chimeric antigen receptor that provides antigen signaling for the cell upon binding of PSCA; 2) a co-stimulation receptor that provides co-stimulation for the cell, which is a chimeric cytokine receptor comprising a TGFβR exodomain and a 4-1BB endodomain; and 3) a cytokine receptor that provides cytokine stimulation for the cell, which is a chimeric cytokine receptor comprising an IL-4 receptor exodomain and an IL-7 receptor endodomain; wherein the antigen receptor and the co-stimulation receptor are different molecules. 1) a chimeric antigen receptor that provides antigen signaling for the cell upon binding of PSCA; 2) a co-stimulation receptor that provides co-stimulation for the cell, which is a chimeric cytokine receptor comprising a TGFβR exodomain and a 4-1BB endodomain; and 3) a cytokine receptor that provides cytokine stimulation for the cell, which is a chimeric cytokine receptor comprising an IL-4 receptor exodomain and an IL-7 receptor endodomain;
A fluid inhalation device triggered by inhalation, including a main body and at least one cover element (11, 12) that is mounted to pivot on said main body between a closed position and an open position, said device including at least one individual reservoir containing a single dose of fluid, such as powder, opening means being provided for opening an individual reservoir each time the device is actuated, said device including movable support means that are adapted to move an individual reservoir against said opening means on each actuation, said movable support means being displaceable between a non-dispensing position and a dispensing position, said movable support means being urged towards their dispensing position by resilient means, such as a spring, and being held in their non-dispensing position by blocking means that are released by the user inhaling, said device including a cocking member that co-operates with said resilient means and with a cam surface that is formed on said movable support means, the fluid dispenser device being characterized in that said cam surface comprises at least three cam portions with slopes that are different, having at least one loader portion (511; 511') for loading said resilient means, at least one end portion (515; 515') for blocking said cocking member in said open position and/or in said closed position of said at least one cover element (11, 12), and at least one safety portion (513; 513') for interconnecting at least one loader portion (511; 511') with at least one end portion (515; 515'), said cocking member being displaceable over said safety portion (513; 513') without additional compression and without decompression of said resilient means, said device being in a stable position when said cocking member is stopped on said safety portion (513; 513').
A winglet for use with a wing of an aircraft, the winglet extending upwardly as it extends outboard in the span wise direction and having front and rear spars (14, 13), wherein the winglet comprises a cross-brace spar that links the front and rear spars and is oriented such that it is oblique to the front and rear spars.
An active matrix electrowetting on dielectric (AM-EWOD) device comprising: a substrate electrode; a plurality of array elements, each array element including an array element electrode; first circuitry configured to supply a first time varying signal V1 to at least a portion of the array element electrodes; second circuitry configured to supply a second time varying signal V2 to the substrate electrode; thin film electronics that includes the first circuitry and the second circuitry; and a substrate upon which the thin film electronics is disposed; wherein an actuation voltage at each array element is defined by a potential difference between V2 and V1, and the first circuitry further is configured to adjust the amplitude of V1 to adjust the actuation voltage; wherein the first circuitry is configured to adjust the amplitude of V1 between a first amplitude V1A and a second amplitude V1B, wherein V1A is greater than V1B and V1A is associated with a high voltage mode of operation and V1B is associated with a low voltage mode of operation; wherein the first circuitry is configured to adjust the first time varying signal V1 spatially; and wherein the first circuitry spatially adjusts the first time varying voltage V1 by supplying a voltage having the first amplitude V1A to a first portion of the plurality of array elements, and supplying a voltage having the second amplitude V1B to a second portion of the plurality of array element electrodes. a substrate electrode; a plurality of array elements, each array element including an array element electrode; first circuitry configured to supply a first time varying signal V1 to at least a portion of the array element electrodes; second circuitry configured to supply a second time varying signal V2 to the substrate electrode; thin film electronics that includes the first circuitry and the second circuitry; and a substrate upon which the thin film electronics is disposed; wherein an actuation voltage at each array element is defined by a potential difference between V2 and V1, and the first circuitry further is configured to adjust the amplitude of V1 to adjust the actuation voltage; wherein the first circuitry is configured to adjust the amplitude of V1 between a first amplitude V1A and a second amplitude V1B, wherein V1A is greater than V1B and V1A is associated with a high voltage mode of operation and V1B is associated with a low voltage mode of operation; wherein the first circuitry is configured to adjust the first time varying signal V1 spatially; and wherein the first circuitry spatially adjusts the first time varying voltage V1 by supplying a voltage having the first amplitude V1A to a first portion of the plurality of array elements, and supplying a voltage having the second amplitude V1B to a second portion of the plurality of array element electrodes.
A compound selected from a compound of formula 1: a compound of formula 2: a compound of formula 3: a compound of formula 4: and pharmaceutically acceptable salts thereof.
An electronic circuit, comprising: a first transistor device comprising a first drive node, a second drive node, and a load path (D1-S1); and a protection circuit coupled to the first and second drive nodes (G1, S1) and the load path (D1-S1) of the first transistor device, wherein the protection circuit comprises: a second transistor device comprising a first drive node, a second drive node, and a load path (D2-S2) connected between the first and second drive nodes (G1, S1) of the first transistor device; and a capacitor coupled between the load path (D1-S1) of the first transistor device and the first drive node of the second transistor device, characterised in that a capacitance of the capacitor is voltage dependent such that the capacitance decreases as a voltage across the capacitor increases. a first transistor device comprising a first drive node, a second drive node, and a load path (D1-S1); and a protection circuit coupled to the first and second drive nodes (G1, S1) and the load path (D1-S1) of the first transistor device, wherein the protection circuit comprises: a second transistor device comprising a first drive node, a second drive node, and a load path (D2-S2) connected between the first and second drive nodes (G1, S1) of the first transistor device; and a capacitor coupled between the load path (D1-S1) of the first transistor device and the first drive node of the second transistor device, characterised in that a capacitance of the capacitor is voltage dependent such that the capacitance decreases as a voltage across the capacitor increases. a second transistor device comprising a first drive node, a second drive node, and a load path (D2-S2) connected between the first and second drive nodes (G1, S1) of the first transistor device; and a capacitor coupled between the load path (D1-S1) of the first transistor device and the first drive node of the second transistor device, characterised in that a capacitance of the capacitor is voltage dependent such that the capacitance decreases as a voltage across the capacitor increases.
Sole for a sports shoe comprising a base or tread component, a top or midsole component and at least one intermediate or elastic cushioning component placed and packaged between the base component and the top component or arranged on or above the top or midsole component, i.e. opposite to the base or tread component with respect to the top or midsole component, wherein said at least one intermediate or elastic cushioning component is a single piece and includes a rear portion arranged at the level of the heel or rear of the sole and a front portion extending towards the front starting from the rear portion, in order to engage a zone at the waist edge or intermediate part of the sole, wherein said rear portion of said intermediate or elastic cushioning component includes two lateral tubular sections (9, 10) extending each at a respective side (11, 12) of the sole and a bridge connecting central section of said two lateral sections (9, 10), said connecting central section having a different configuration from said two lateral tubular sections (9, 10), thereby obtaining a behaviour reacting to pressure or crushing, such as cushioning, elastic yield and stability, during use, different of the sections (9, 10, 13) of said rear portion, wherein said tubular sections delimit a longitudinal opening extending around a longitudinal extension axis (x-x) transverse or orthogonal to the rear -front direction of said sole, each longitudinal opening opening externally at a respective side (11, 12) of the sole, and characterized in that said tubular sections (9, 10) have a substantially conical configuration or in any case with a circular or ellipsoidal or polygonal section, if desired, which decreases while approaching the connecting central section, so that the one or each longitudinal opening(s) tapers while approaching the longitudinal centre or centreline of the sole.
Tissue shears to cut biological tissue comprising: a first branch having a first sliding surface and a back facing away from the sliding surface, the back terminating at a first cutting edge, a second branch having a support layer and being connected to a cermet body and having a back and a second sliding surface that terminates at a second cutting edge, wherein a ceramic layer is provided on the second sliding layer, wherein the support consists of steel, and the cermet body has a higher thermal conductivity than steel; a joint at which the two branches (11, 12) are pivotably connected with one another, so that the sliding surfaces (25, 34) face one another and the first cutting edge can be moved past the second cutting edge; wherein an electrically conductive hard material layer is arranged on the first sliding surface and the ceramic layer arranged on the second sliding surface differs from the hard material layer of the first sliding surface and that the cermet body is in heat exchange contact with the sliding surface and is exposed on the back, facing away from the sliding surface, of the branch so that the cermet body as well as the support structure are exposed on the back of the branch and the back is covered. a first branch having a first sliding surface and a back facing away from the sliding surface, the back terminating at a first cutting edge, a second branch having a support layer and being connected to a cermet body and having a back and a second sliding surface that terminates at a second cutting edge, wherein a ceramic layer is provided on the second sliding layer, wherein the support consists of steel, and the cermet body has a higher thermal conductivity than steel; a joint at which the two branches (11, 12) are pivotably connected with one another, so that the sliding surfaces (25, 34) face one another and the first cutting edge can be moved past the second cutting edge; wherein an electrically conductive hard material layer is arranged on the first sliding surface and the ceramic layer arranged on the second sliding surface differs from the hard material layer of the first sliding surface and that the cermet body is in heat exchange contact with the sliding surface and is exposed on the back, facing away from the sliding surface, of the branch so that the cermet body as well as the support structure are exposed on the back of the branch and the back is covered.
A method for manufacturing a vitreous body surgical probe, comprising the steps of: bringing a flat steel plate in contact with an end surface of a steel pipe; irradiating an energy beam from the steel plate side and moving the point of the energy beam along the circumference of the pipe end surface at the center of the thickness of the pipe so as to weld together the steel plate and the center of the thickness of the pipe; and temporarily stopping irradiation of the energy beam, and restarting irradiation of the same energy beam from the steel plate side along the outer circumference of the pipe end surface, so as to cut the steel plate along the outer circumference of the pipe. bringing a flat steel plate in contact with an end surface of a steel pipe; irradiating an energy beam from the steel plate side and moving the point of the energy beam along the circumference of the pipe end surface at the center of the thickness of the pipe so as to weld together the steel plate and the center of the thickness of the pipe; and temporarily stopping irradiation of the energy beam, and restarting irradiation of the same energy beam from the steel plate side along the outer circumference of the pipe end surface, so as to cut the steel plate along the outer circumference of the pipe.
A method of scheduling user equipments, UEs, in an Orthogonal Frequency Division Multiplexing, OFDM, wireless communication network, comprising: determining received signal power densities for a plurality of UEs to be scheduled; allocating UEs to scheduling intervals based on a sorting of their received signal power densities, wherein allocating UEs to scheduling intervals based on a sorting of their received signal power densities comprises sorting UEs by their received signal power densities and allocating UEs from consecutive sorted positions to the scheduling interval until the scheduling interval is fully allocated; and assigning allocated UEs in the same scheduling interval to mirror frequency bands within an available frequency spectrum according to the sorting of their received signal power densities, wherein assigning allocated UEs in the same scheduling interval to mirror frequency bands within an available frequency spectrum according to the sorting of their received signal power densities comprises assigning pairs of the UEs which are adjacent in rank order of their received signal power densities to respective mirror frequency bands, in respect to a center frequency of a subcarrier, within an available frequency spectrum wherein consecutive pairs of the allocated UEs are assigned to consecutive mirror frequency bands. determining received signal power densities for a plurality of UEs to be scheduled; allocating UEs to scheduling intervals based on a sorting of their received signal power densities, wherein allocating UEs to scheduling intervals based on a sorting of their received signal power densities comprises sorting UEs by their received signal power densities and allocating UEs from consecutive sorted positions to the scheduling interval until the scheduling interval is fully allocated; and assigning allocated UEs in the same scheduling interval to mirror frequency bands within an available frequency spectrum according to the sorting of their received signal power densities, wherein assigning allocated UEs in the same scheduling interval to mirror frequency bands within an available frequency spectrum according to the sorting of their received signal power densities comprises assigning pairs of the UEs which are adjacent in rank order of their received signal power densities to respective mirror frequency bands, in respect to a center frequency of a subcarrier, within an available frequency spectrum wherein consecutive pairs of the allocated UEs are assigned to consecutive mirror frequency bands.