mhurhangee/ep-ind-claims huggingface dataset:
Energy transmitting device (200, 302) for wirelessly transmitting energy to a receiving apparatus, comprising: - a sending device configured to radiate energy by means of energy sending signals; - a receiving device configured to receive a message from the receiving apparatus, from which the amount of energy which has been supplied to the receiving apparatus using the radiated energy can be determined; - a comparing device being configured to compare the amount of radiated energy with the amount of energy supplied to the receiving apparatus; - a controlling device being configured to control the sending device to radiate energy by means of other energy sending signals optimized for the energy transmission from the sending device to the receiving apparatus if the ratio of the amount of energy supplied to the receiving apparatus and the amount of radiated energy is below a predetermined threshold; wherein said other energy sending signals are optimized for the energy transmission in accordance with estimated pulse responses of the transmission channels between the energy transmitting device and the receiving apparatus. - a sending device configured to radiate energy by means of energy sending signals; - a receiving device configured to receive a message from the receiving apparatus, from which the amount of energy which has been supplied to the receiving apparatus using the radiated energy can be determined; - a comparing device being configured to compare the amount of radiated energy with the amount of energy supplied to the receiving apparatus; - a controlling device being configured to control the sending device to radiate energy by means of other energy sending signals optimized for the energy transmission from the sending device to the receiving apparatus if the ratio of the amount of energy supplied to the receiving apparatus and the amount of radiated energy is below a predetermined threshold; wherein said other energy sending signals are optimized for the energy transmission in accordance with estimated pulse responses of the transmission channels between the energy transmitting device and the receiving apparatus.
Movement device having a position determination system, comprising a first assembly with a first movement surface and a separate second assembly with a second movement surface, which is arranged opposite the first movement surface, wherein the second assembly is movable relative to the first assembly, wherein the first assembly comprises a large number of planar first field interaction means, which are distributed flat over the first movement surface and arranged parallel to the latter, wherein they each define a first interaction surface, wherein the second assembly comprises a large number of second field interaction means, wherein the first and the second field interaction means (23; 43) can be brought into electromagnetic interaction, wherein, in each case, a coupling mediated via the corresponding field can be measured, wherein these couplings are taken into account during the determination of the relative position between the first and second assembly (20; 40), wherein the second field interaction means are each of planar design, wherein they are distributed flat over the second movement surface and arranged parallel to the latter, wherein they each define a second interaction surface, characterized in that the first assembly is immovable, wherein the second interaction surfaces are designed to be larger than the first interaction surfaces.
A support station of a belt conveyor, the support station comprising: - a frame; - at least two support rollers adapted to support a conveyor belt running longitudinally from an upstream side of the support rollers to a downstream side of the support rollers, the at least two support rollers being rotatably mounted on the frame about respective axes of rotation substantially perpendicular to the longitudinal direction and being transversely separated by at least one gap, nip angles being formed between the at least two support rollers and the conveyor belt when the conveyor belt rests on the at least two support rollers - a nip angle protector, comprising for each support roller a roller guard placed longitudinally opposite said support roller on an upstream side of said support roller, and, for the or each gap, a gap protector placed longitudinally opposite said gap on an upstream side of said gap; wherein the roller guards and the or each gap protector are integral with each other in a single part; wherein said single part comprises a continuous upper edge, intended to be placed immediately under the conveyor belt and extending transversely along each support roller and the or each nip; characterized in that said single part comprises, for each roller guard, a lower portion integral with the continuous upper edge and extending the continuous upper edge downwardly, the or each gap guard comprising only the continuous upper edge. - a frame; - at least two support rollers adapted to support a conveyor belt running longitudinally from an upstream side of the support rollers to a downstream side of the support rollers, the at least two support rollers being rotatably mounted on the frame about respective axes of rotation substantially perpendicular to the longitudinal direction and being transversely separated by at least one gap, nip angles being formed between the at least two support rollers and the conveyor belt when the conveyor belt rests on the at least two support rollers - a nip angle protector, comprising for each support roller a roller guard placed longitudinally opposite said support roller on an upstream side of said support roller, and, for the or each gap, a gap protector placed longitudinally opposite said gap on an upstream side of said gap; wherein the roller guards and the or each gap protector are integral with each other in a single part; wherein said single part comprises a continuous upper edge, intended to be placed immediately under the conveyor belt and extending transversely along each support roller and the or each nip; characterized in that said single part comprises, for each roller guard, a lower portion integral with the continuous upper edge and extending the continuous upper edge downwardly, the or each gap guard comprising only the continuous upper edge.
A method of fabricating a part, the method comprising the following steps: • making at least one fiber structure by three-dimensionally weaving metal yarns; and • subjecting the fiber structure to hot isostatic pressing so as to cause the metal yarns to agglomerate in such a manner as to obtain a solid part. • making at least one fiber structure by three-dimensionally weaving metal yarns; and • subjecting the fiber structure to hot isostatic pressing so as to cause the metal yarns to agglomerate in such a manner as to obtain a solid part.
A device for marking a commercial item that may or may not be packaged, the device comprising an axial tip and a rigid coupling member (32; 72; 82; 104) intended to couple the device to a commercial item or its packaging, the coupling member including a body provided with a first free end (32a; 74b; 104a) and an opposite second end (32b; 74a) fixed in an articulated and permanent manner to the device, the first free end being able to pivot around the second end, between a first position in which the first free end is separated from the device and a second position in which the first free end (32a; 74b; 104a) is arranged in a housing (50; 108) of the device that is at a distance from the axial tip, the first free end being able to go directly from one position to the other during its pivoting movement.
A shuttle valve comprising: a valve body comprising a longitudinal cylindrical bore, a first inlet port, a second inlet port, an outlet port, and a key that protrudes radially inward within the longitudinal cylindrical bore; and a shuttle mounted in the longitudinal cylindrical bore and configured to move axially therein, wherein the shuttle comprises a plurality of radial protrusions (206, 208, 210) that protrude radially outward from, and are circumferentially spaced apart about, a peripheral surface of the shuttle, and wherein the key of the valve body is interposed between a first radial protrusion and a second radial protrusion of the plurality of radial protrusions, such that the key of the valve body interacts with the first radial protrusion to preclude the shuttle from rotating about a longitudinal axis of the shuttle in a first direction by more than a threshold angle, and interacts with the second radial protrusion to preclude the shuttle from rotating about the longitudinal axis of the shuttle in a second direction by more than a respective threshold angle, wherein the shuttle is configured to shift between: (i) a first position adjacent to the first inlet port, wherein at the first position the shuttle blocks the first inlet port while allowing the second inlet port to be fluidly coupled to the outlet port, and (ii) a second position adjacent to the second inlet port, wherein at the second position the shuttle blocks the second inlet port while allowing the first inlet port to be fluidly coupled to the outlet port. a valve body comprising a longitudinal cylindrical bore, a first inlet port, a second inlet port, an outlet port, and a key that protrudes radially inward within the longitudinal cylindrical bore; and a shuttle mounted in the longitudinal cylindrical bore and configured to move axially therein, wherein the shuttle comprises a plurality of radial protrusions (206, 208, 210) that protrude radially outward from, and are circumferentially spaced apart about, a peripheral surface of the shuttle, and wherein the key of the valve body is interposed between a first radial protrusion and a second radial protrusion of the plurality of radial protrusions, such that the key of the valve body interacts with the first radial protrusion to preclude the shuttle from rotating about a longitudinal axis of the shuttle in a first direction by more than a threshold angle, and interacts with the second radial protrusion to preclude the shuttle from rotating about the longitudinal axis of the shuttle in a second direction by more than a respective threshold angle, wherein the shuttle is configured to shift between: (i) a first position adjacent to the first inlet port, wherein at the first position the shuttle blocks the first inlet port while allowing the second inlet port to be fluidly coupled to the outlet port, and (ii) a second position adjacent to the second inlet port, wherein at the second position the shuttle blocks the second inlet port while allowing the first inlet port to be fluidly coupled to the outlet port.
A bicomponent filament comprising: a first region comprising an ethylene-based polymer; a second region comprising a propylene-based polymer; and a compatibilizer comprising a crystalline block composite having a crystalline ethylene-based polymer a crystalline alpha-olefin-based polymer, and a block copolymer having a crystalline ethylene block and a crystalline alpha-olefin block, wherein the crystalline ethylene block is essentially the same composition as the crystalline ethylene-based polymer and the crystalline alpha-olefin block is essentially the same composition as the crystalline alpha-olefin-based polymer; wherein the compatibilizer is present in at least one of the first region or the second region. a first region comprising an ethylene-based polymer; a second region comprising a propylene-based polymer; and a compatibilizer comprising a crystalline block composite having a crystalline ethylene-based polymer a crystalline alpha-olefin-based polymer, and a block copolymer having a crystalline ethylene block and a crystalline alpha-olefin block, wherein the crystalline ethylene block is essentially the same composition as the crystalline ethylene-based polymer and the crystalline alpha-olefin block is essentially the same composition as the crystalline alpha-olefin-based polymer; wherein the compatibilizer is present in at least one of the first region or the second region.
A turbocharger turbine housing comprising: a bearing housing end and a treatment unit end; a volute wall that defines a volute; a wall (780, 880, 980) that defines at least a portion of a turbine wheel space that defines a turbine wheel space axis and a turbine wheel space diameter (D s), wherein the wall extends to an axial peak to define an extended space with an extended space outlet having an extended space outlet dimension (D e), wherein the extended space outlet dimension is greater than 110 percent of the turbine wheel space diameter and less than 200 percent of the turbine wheel space diameter; and an outlet wall that defines an outlet space with a treatment unit end outlet having an outlet dimension (D out) as a maximum dimension of the outlet space, wherein the outlet dimension is greater than the extended space outlet dimension, wherein the extended space is disposed at least in part axially between the turbine wheel space and the outlet space to increase axial velocity uniformity of exhaust flow at the treatment unit end outlet, and wherein the wall and the outlet wall form a double wall for axial positions at least over an azimuthally defined portion of the turbine housing, with respect to a cylindrical coordinate system with a z coordinate along a turbine wheel space axis and an r coordinate in radial direction of the turbine wheel space axis. a bearing housing end and a treatment unit end; a volute wall that defines a volute; a wall (780, 880, 980) that defines at least a portion of a turbine wheel space that defines a turbine wheel space axis and a turbine wheel space diameter (D s), wherein the wall extends to an axial peak to define an extended space with an extended space outlet having an extended space outlet dimension (D e), wherein the extended space outlet dimension is greater than 110 percent of the turbine wheel space diameter and less than 200 percent of the turbine wheel space diameter; and an outlet wall that defines an outlet space with a treatment unit end outlet having an outlet dimension (D out) as a maximum dimension of the outlet space, wherein the outlet dimension is greater than the extended space outlet dimension, wherein the extended space is disposed at least in part axially between the turbine wheel space and the outlet space to increase axial velocity uniformity of exhaust flow at the treatment unit end outlet, and wherein the wall and the outlet wall form a double wall for axial positions at least over an azimuthally defined portion of the turbine housing, with respect to a cylindrical coordinate system with a z coordinate along a turbine wheel space axis and an r coordinate in radial direction of the turbine wheel space axis.
A method of synthesizing an unsaturated carboxylic acid and/or a salt or ester thereof, wherein an apatite compound is used as a catalyst to synthesize an unsaturated carboxylic acid and/or a salt or ester thereof from a biomass-derived hydroxycarboxylic acid and/or a salt or ester thereof by a dehydration reaction.
A structure comprising: a heat dissipation plate thermally connected to a heating element (155 - 158); and a resin region (900A, 900B) having a resin material that fixes the heating element and the heat dissipation plate, wherein the heat dissipation plate includes a fin portion including a plurality of fins protruding from a heat dissipation surface of the heat dissipation plate and formed to be exposed from the sealing resin material, and a wall portion (800A-C) formed to protrude from the heat dissipation surface to a same side as the fin and which separates the fin portion and the resin region, characterized in that the wall portion (800A-C) has a first region and a second region in a periphery of the fin portion, and the first region is formed to be smaller than the second region in protruding height. a heat dissipation plate thermally connected to a heating element (155 - 158); and a resin region (900A, 900B) having a resin material that fixes the heating element and the heat dissipation plate, wherein the heat dissipation plate includes a fin portion including a plurality of fins protruding from a heat dissipation surface of the heat dissipation plate and formed to be exposed from the sealing resin material, and a wall portion (800A-C) formed to protrude from the heat dissipation surface to a same side as the fin and which separates the fin portion and the resin region, characterized in that the wall portion (800A-C) has a first region and a second region in a periphery of the fin portion, and the first region is formed to be smaller than the second region in protruding height.
A method of accessing a resource, the method being performed by a client side application executed on a primary client device, the method comprising: transmitting a request to an authorization service executing on a network server for access to a resource; receiving from the authorization service an indication that the primary client device must comply with a distribution rule associated with the resource;determining that the primary client device complies with the distribution rule; and in response to determining that the primary client device complies with the distribution rule, accessing the resource; characterised in that: the distribution rule requires a specified secondary client device to be in communication with the primary client device through a direct wireless network as a prerequisite to accessing the resource; and accessing the resource comprises communicating with the specified secondary client device to gain access to the resource using an authorization credential which has been received from the authorization service at the specified secondary client device. transmitting a request to an authorization service executing on a network server for access to a resource; receiving from the authorization service an indication that the primary client device must comply with a distribution rule associated with the resource;determining that the primary client device complies with the distribution rule; and in response to determining that the primary client device complies with the distribution rule, accessing the resource; characterised in that: the distribution rule requires a specified secondary client device to be in communication with the primary client device through a direct wireless network as a prerequisite to accessing the resource; and accessing the resource comprises communicating with the specified secondary client device to gain access to the resource using an authorization credential which has been received from the authorization service at the specified secondary client device. the distribution rule requires a specified secondary client device to be in communication with the primary client device through a direct wireless network as a prerequisite to accessing the resource; and accessing the resource comprises communicating with the specified secondary client device to gain access to the resource using an authorization credential which has been received from the authorization service at the specified secondary client device.
Armoured ventilation grille for an opening, said grille comprising an outer side intended to be exposed to a projectile firing and an inner side intended to be applied on the opening, said grille comprising a plurality of bars parallel to each other, the bars having a V-shaped section, each arm of the V being constituted by a blade (2, 3), said blades (2, 3) being arranged in chevrons in order to form baffles such that at least one blade (2, 3) is on the trajectory of the projectile firing regardless of its incidence, each bar comprising a so-called outer blade and a so-called inner blade, the outer blades forming the outer side of the grille and the inner blades forming the inner side of the grille, said grille being characterized in that the outer blades are made of an armour material while the inner blades are made of a ductile material, the blades (2, 3) being all removably fixed to transverse spars at bearing surfaces (15, 16).
A rigid needle guard comprising an inner part made of elastomeric material, and a rigid outer body that is fastened to said inner part made of elastomeric material via a folded-in portion of the bottom axial end of said rigid outer body, said folded-in portion extending radially inwards from the outer peripheral surface of said rigid outer body, the rigid needle guard being characterized in that the outer surface of said folded-in portion forms, at its axially-bottom and radially-outer edge, a sharp and acute angle relative to the outer peripheral surface of said rigid outer body.
Amethod of managing system priorities of multiple processes of multiple start-up applications comprising: placing multiple processes of the multiple applications in a container object for a configurable period of time after start-up in order that the multiple processes and dependent processes may betracked, thecontainer object imposing priority settings on the multiple processes and dependent processes that the process and dependent processes cannot break; tracking the multiple processes and dependent processes for the period of time; setting the priorities of the processes of the multiple processes of the multiple applications in thecontainer object lower and limiting a memory working set of the processes at start-up; restoring the priorities of the processes in the container object and un-limiting the memory working set of the processes after the period of time has expired; and removing the multiple processes of the multiple applications from thecontainer object. placing multiple processes of the multiple applications in a container object for a configurable period of time after start-up in order that the multiple processes and dependent processes may betracked, thecontainer object imposing priority settings on the multiple processes and dependent processes that the process and dependent processes cannot break; tracking the multiple processes and dependent processes for the period of time; setting the priorities of the processes of the multiple processes of the multiple applications in thecontainer object lower and limiting a memory working set of the processes at start-up; restoring the priorities of the processes in the container object and un-limiting the memory working set of the processes after the period of time has expired; and removing the multiple processes of the multiple applications from thecontainer object.
Method for operating an electronically commutated servomotor, wherein the servomotor is controlled according to an optimization target via a voltage space vector generated according to a commutation pattern, as a function of a predefined torque and a rotor position of a rotor of the servomotor, wherein a control range is predefined which specifies a range of allowable voltage space vectors, wherein the control of the servomotor is carried out in such a way that only voltage space vectors within the control range are used, characterized in that the control of the servomotor is carried out based on a predefined characteristic map which specifies the voltage space vector according to the optimization target, as a function of the predefined torque and the rotor position of the rotor of the servomotor.