mhurhangee/ep-ind-claims huggingface dataset:
A gearbox housing, the gearbox housing comprising: a polymer; a reinforcing material (46, 48); a thermally conductive filler, wherein the thermally conductive filler is comprised of carbon nanotubes or carbon nano-fibers; a first housing component defined by the polymer such that the reinforcing material (46, 48) and the thermally conductive filler are embedded within the polymer to form a composite material; the first housing component having a first side, a second side, and the thermally conductive filler is configured to provide a thermally conductive path such that heat can be passively conducted from the first side to the second side in the through-thickness direction; wherein the reinforcing material (46,48) is a first reinforcing layer and a second reinforcing layer, and wherein the first and second reinforcing layers (46, 48) are layers of fabric formed from woven carbon fibers, and wherein the fibers of the first woven reinforcing layer and the second reinforcing layer are laid substantially perpendicularly to the thermally conductive path; wherein the first housing component is joined to a second housing component, wherein the second housing component includes the polymer, the reinforcing material (46,48), and the thermally conductive filler, and wherein the second housing component is formed of a composite material reinforced in the manner of the first housing component composite material. a polymer; a reinforcing material (46, 48); a thermally conductive filler, wherein the thermally conductive filler is comprised of carbon nanotubes or carbon nano-fibers; a first housing component defined by the polymer such that the reinforcing material (46, 48) and the thermally conductive filler are embedded within the polymer to form a composite material; the first housing component having a first side, a second side, and the thermally conductive filler is configured to provide a thermally conductive path such that heat can be passively conducted from the first side to the second side in the through-thickness direction; wherein the reinforcing material (46,48) is a first reinforcing layer and a second reinforcing layer, and wherein the first and second reinforcing layers (46, 48) are layers of fabric formed from woven carbon fibers, and wherein the fibers of the first woven reinforcing layer and the second reinforcing layer are laid substantially perpendicularly to the thermally conductive path; wherein the first housing component is joined to a second housing component, wherein the second housing component includes the polymer, the reinforcing material (46,48), and the thermally conductive filler, and wherein the second housing component is formed of a composite material reinforced in the manner of the first housing component composite material.
Absorber system with an absorber mass carrier for a plurality of absorber masses which have a toothing system in each case at their periphery-side ends, and with toothing devices which are provided on the periphery side in each case between two absorber masses, and the toothing system of which serves to connect the absorber masses among one another, the toothing devices in each case having a centre which is stationary with respect to the absorber mass carrier and is provided for rotatably receiving in each case one toothing unit, characterized in that the absorber mass carrier has at least two absorber mass carrier elements (70, 74) which are arranged at an axial spacing from one another, the said axial spacing being set fixedly by means of spacer devices, and the spacer devices serving in each case as centres which are stationary with respect to the absorber mass carrier for rotatably receiving in each case one toothing unit.
Thread draw-off nozzle for an open-end spinning device with a draw-off nozzle funnel for deflecting a produced yarn during the yarn draw-off process that contains a yarn deflection zone, the draw-off nozzle funnel having a two-part design with an external part containing a first area of the yarn deflection zone and an internal part containing a second area of the yarn deflection zone, characterized in that both parts (6a, 6b) are made of different materials and/or have different coatings at least in the areas (3a, 3b) of the yarn deflection zone and/or only one of the two parts (6a, 6b) has a coating.
An electronic device (101, 400) comprising: a housing (420, 520) including one side having a substantially circular opening; at least one detent disposed at the housing; a substantially circular structure (422, 510) configured to be rotatably positioned in or around the opening of the housing, at least one groove being formed on the structure; a first sensor configured to detect a rotation of the structure (422, 510) to generate a first signal; a second sensor configured to detect that the at least one detent is inserted into the at least one groove to generate a second signal; a processor (120, 700) coupled to the first sensor and the second sensor; and a memory coupled to the processor (120, 700), wherein the memory includes instructions to enable the processor (120, 700), on execution, to: receive the first signal from the first sensor; if the second signal from the second sensor is received, determine, based on the second signal, whether the at least one detent is inserted into the at least one groove; in response to determining that the at least one detent is inserted into the at least one groove, correct the first signal to reflect actual rotation of the structure (422, 510); and perform a predetermined action based on the corrected first signal. a housing (420, 520) including one side having a substantially circular opening; at least one detent disposed at the housing; a substantially circular structure (422, 510) configured to be rotatably positioned in or around the opening of the housing, at least one groove being formed on the structure; a first sensor configured to detect a rotation of the structure (422, 510) to generate a first signal; a second sensor configured to detect that the at least one detent is inserted into the at least one groove to generate a second signal; a processor (120, 700) coupled to the first sensor and the second sensor; and a memory coupled to the processor (120, 700), wherein the memory includes instructions to enable the processor (120, 700), on execution, to: receive the first signal from the first sensor; if the second signal from the second sensor is received, determine, based on the second signal, whether the at least one detent is inserted into the at least one groove; in response to determining that the at least one detent is inserted into the at least one groove, correct the first signal to reflect actual rotation of the structure (422, 510); and perform a predetermined action based on the corrected first signal. receive the first signal from the first sensor; if the second signal from the second sensor is received, determine, based on the second signal, whether the at least one detent is inserted into the at least one groove; in response to determining that the at least one detent is inserted into the at least one groove, correct the first signal to reflect actual rotation of the structure (422, 510); and perform a predetermined action based on the corrected first signal.
A composition comprising an apoptotic body for use in a method of treating a tumor formation, wherein the tumor is hepatocellular carcinoma, multiple myeloma, or a combination thereof, and wherein the apoptotic body comprises an apoptotic stem cell.
Turbofan engine, comprising: - a primary flow channel inside of which a primary flow flows through a gas generator (30, 40, 50) during operation; - a secondary flow channel inside of which a secondary flow is guided past the gas generator (30, 40, 50) during operation, and - an oil separator of a lube oil system that has a pipeline for discharging breather air, wherein the pipeline forms a pipeline end, - wherein the pipeline end is arranged inside the secondary flow channel and is provided and configured for the purpose of discharging breather air directly from the pipeline end into the secondary flow channel, characterized in that the pipeline of the oil separator at least partially extends inside a structure that is arranged inside the secondary flow channel, wherein the pipeline end projects from the axially rear end of the structure in the flow direction, wherein the pipeline end is arranged inside the secondary flow channel in the rear 20% of the axial length of the same. - a primary flow channel inside of which a primary flow flows through a gas generator (30, 40, 50) during operation; - a secondary flow channel inside of which a secondary flow is guided past the gas generator (30, 40, 50) during operation, and - an oil separator of a lube oil system that has a pipeline for discharging breather air, wherein the pipeline forms a pipeline end, - wherein the pipeline end is arranged inside the secondary flow channel and is provided and configured for the purpose of discharging breather air directly from the pipeline end into the secondary flow channel,
An augment device comprising a hollow sleeve surrounding a channel extending through the hollow sleeve from a top to a bottom of the hollow sleeve, the hollow sleeve comprising a wall having an inner face and an outer face, characterized in that the hollow sleeve comprises at least one bending joint (3, 3'), the bending joint (3, 3') being configured for compressing the channel.
A method of coordinating transmission of a downlink Positioning Reference Signal, DL-PRS, resource for positioning a User Equipment, UE, in a wireless communication network, the method comprising: obtaining, at a location server, an indication that a velocity of the UE exceeds a threshold; responsive to obtaining the indication, determining, at the location server, a PRS configuration in which a Tracking Reference Signal, TRS, is used as a Quasi-Collocation, QCL, reference for the DL-PRS resource, wherein: the determining comprises: (i) selecting the TRS from an existing TRS configuration obtained from a Transmission Reception Point, TRP, that is configured to transmit the TRS and the DL-PRS resource, or (ii) sending configuration information regarding the DL-PRS resource to the TRP and receiving, in response, information regarding the TRS; and sending the PRS configuration from the location server to the UE. obtaining, at a location server, an indication that a velocity of the UE exceeds a threshold; responsive to obtaining the indication, determining, at the location server, a PRS configuration in which a Tracking Reference Signal, TRS, is used as a Quasi-Collocation, QCL, reference for the DL-PRS resource, wherein: the determining comprises: (i) selecting the TRS from an existing TRS configuration obtained from a Transmission Reception Point, TRP, that is configured to transmit the TRS and the DL-PRS resource, or (ii) sending configuration information regarding the DL-PRS resource to the TRP and receiving, in response, information regarding the TRS; and sending the PRS configuration from the location server to the UE.
Brake force generator for a motor vehicle brake system, comprising • a displaceable force input element connected or connectable to a brake pedal, • a control valve actuable in accordance with a displacement of the force input element, • a chamber arrangement disposed in a booster housing and controllable by means of the control valve and comprising at least one vacuum chamber (28, 30) and at least one working chamber (24, 26), which are separated from one another by at least one movable wall (32, 34) connected to the control valve, and • a force output element for supplying a brake force to a downstream brake system, wherein the control valve with the force output element is biased by a resetting spring into a normal position, wherein the resetting spring is supported by its one end against the control valve, wherein a support ring (50 1, 50 2, 50 3, 50 4, 50 5, 50 6) is provided, against which the resetting spring is supported by its other end, wherein the support ring (50 1, 50 2, 50 3, 50 4, 50 5, 50 6) may be brought into supportive interaction with the booster housing, characterized in that the booster housing has a collar, against which the support ring (50 1, 50 2, 50 3, 50 4, 50 5, 50 6) is positionable with an end-face abutment surface (58, 62) against the collar of the booster housing. • a displaceable force input element connected or connectable to a brake pedal, • a control valve actuable in accordance with a displacement of the force input element, • a chamber arrangement disposed in a booster housing and controllable by means of the control valve and comprising at least one vacuum chamber (28, 30) and at least one working chamber (24, 26), which are separated from one another by at least one movable wall (32, 34) connected to the control valve, and • a force output element for supplying a brake force to a downstream brake system,
A method for managing a sleep mode in a terminal, the method comprising: negotiating a parameter of the sleep mode with a base station, wherein the parameter includes a group identifier, group ID, to which the terminal belongs among a plurality of group identifiers, and a frame number corresponding to a frame in which data are to be listened to by the terminal in order to determine whether said frame includes data to be transmitted to the terminal; operating in a sleep window; receiving a control signal that indicates whether data corresponding to the group ID to which the terminal belongs exists during a listening window after the sleep window, wherein the control signal includes a bitmap having a plurality of bits for designating the plurality of group identifiers, and wherein the control signal indicates whether the data corresponding to the group ID exists or not by setting a value of a bit corresponding to the group ID among the plurality of bits; entering into the sleep window when the control signal indicates that no data corresponding to the group ID to which the terminal belongs exists (S407, S409); and if the control signal indicates that data corresponding to the group ID to which the terminal; belongs exists, entering into the sleep window when the data to be transmitted to the terminal; is not included in the frame corresponding to the frame number (S410,S409). negotiating a parameter of the sleep mode with a base station, wherein the parameter includes a group identifier, group ID, to which the terminal belongs among a plurality of group identifiers, and a frame number corresponding to a frame in which data are to be listened to by the terminal in order to determine whether said frame includes data to be transmitted to the terminal; operating in a sleep window; receiving a control signal that indicates whether data corresponding to the group ID to which the terminal belongs exists during a listening window after the sleep window, wherein the control signal includes a bitmap having a plurality of bits for designating the plurality of group identifiers, and wherein the control signal indicates whether the data corresponding to the group ID exists or not by setting a value of a bit corresponding to the group ID among the plurality of bits; entering into the sleep window when the control signal indicates that no data corresponding to the group ID to which the terminal belongs exists (S407, S409); and if the control signal indicates that data corresponding to the group ID to which the terminal; belongs exists, entering into the sleep window when the data to be transmitted to the terminal; is not included in the frame corresponding to the frame number (S410,S409).
A control system for controlling the line pressure in a blood supply system in which a first pump is provided to pump blood from a reservoir via a primary passage at a flow rate and at a driving pressure toward a plurality of outlets, wherein one or more of the outlets are openable to permit flow through the outlet and closable to block flow through the outlet, wherein the control system comprises: a monitoring arrangement to determine a pressure value representative of a line pressure in the primary passage, and a controller responsive to the monitoring arrangement, the controller configured to control the first pump to maintain the line pressure in the primary passage above a pre-set level, and characterised in that the controller is configured to prevent opening of one or more outlets while there is not sufficient line pressure to avoid a negative line pressure when opening an outlet. a monitoring arrangement to determine a pressure value representative of a line pressure in the primary passage, and a controller responsive to the monitoring arrangement, the controller configured to control the first pump to maintain the line pressure in the primary passage above a pre-set level, and characterised in that the controller is configured to prevent opening of one or more outlets while there is not sufficient line pressure to avoid a negative line pressure when opening an outlet.
An endoscope apparatus comprising: an objective optical system that is provided at a distal end portion of an insertion portion of an endoscope which can be inserted into a body cavity of a subject; a temperature sensor unit that is provided at a distal end portion of the insertion portion and is configured to detect a temperature of the distal end portion; and a heating unit that is configured to generate heat for preventing fogging of the objective optical system, characterized by a control unit having a timer, the timer being configured to measure a time period during which the temperature of the distal end portion detected by the temperature sensor unit is equal to or lower than a predetermined temperature; and the control unit being configured to perform control so as to cause the heating unit to generate the heat when the time period measured by the timer continues for a predetermined time period or longer. an objective optical system that is provided at a distal end portion of an insertion portion of an endoscope which can be inserted into a body cavity of a subject; a temperature sensor unit that is provided at a distal end portion of the insertion portion and is configured to detect a temperature of the distal end portion; and a heating unit that is configured to generate heat for preventing fogging of the objective optical system, characterized by a control unit having a timer, the timer being configured to measure a time period during which the temperature of the distal end portion detected by the temperature sensor unit is equal to or lower than a predetermined temperature; and the control unit being configured to perform control so as to cause the heating unit to generate the heat when the time period measured by the timer continues for a predetermined time period or longer.
A bone cement composition kit for bone healing medical treatment, comprising a. a solid fraction, comprising partially deacetylated chitin with a degree of deacetylation in the range of 40-75%, and calcium phosphate; b. an acidic liquid fraction comprising water and an acid; said fractions being provided in separate vials, to be mixed prior to use, wherein the weight:weight ratio of the solids to liquid fraction is in the range from 1: 2 to 1:3. a. a solid fraction, comprising partially deacetylated chitin with a degree of deacetylation in the range of 40-75%, and calcium phosphate; b. an acidic liquid fraction comprising water and an acid;
A fire extinguishing system comprising: a wiring harness for a fire extinguishing system comprising: a connector having a pair of power leads and a pair of command leads; and at least one zone identification element built into the wiring harness in communication with the connector and configured to provide a zone location assignment to the connector; a component connected to the connector, the component comprising a microprocessor configured to interpret the zone location assignment and establish a zone location in response thereto; and a controller connected to the wiring harness and configured to receive the zone location from the component. a wiring harness for a fire extinguishing system comprising: a connector having a pair of power leads and a pair of command leads; and at least one zone identification element built into the wiring harness in communication with the connector and configured to provide a zone location assignment to the connector; a connector having a pair of power leads and a pair of command leads; and at least one zone identification element built into the wiring harness in communication with the connector and configured to provide a zone location assignment to the connector; a component connected to the connector, the component comprising a microprocessor configured to interpret the zone location assignment and establish a zone location in response thereto; and a controller connected to the wiring harness and configured to receive the zone location from the component.
A lighting apparatus comprising a laser (2; 102; 202) for emitting a first laser beam (3; 103; 203) and a diffractive reflective element (4; 104, 204), wherein the first laser beam (3;103; 203) and the diffractive reflective element (4;104; 204) are arranged such that the first laser beam (3;103; 203) is reflected by the diffractive reflective element (4;104; 204) for generating a second laser beam (5; 105; 205) being the reflected first laser beam, wherein the diffractive reflective element (4;104; 204) is adapted such that the effective surface area of the second laser beam (5; 105; 205) is larger than the effective surface area of the first laser beam (3;103; 203), wherein the lighting apparatus further comprises a light pattern producing unit for producing a light pattern, wherein the lighting apparatus comprises a casing in which the different elements are arranged and which comprises a window for allowing the second laser beam to leave the casing and wherein the laser, the diffractive reflective element and the light pattern producing unit are arranged such that (i) the first laser beam is influenced by the light pattern producing unit before meeting the diffractive reflective element (4;104; 204), or (ii) the second laser beam meets the light pattern producing unit for producing the light pattern; and - wherein the diffractive reflective element (4; 104; 204) is adapted to increase the effective surface area of the second laser beam (5; 105; 205) such that the second laser beam (5; 105; 205) is eye safe. the lighting apparatus further comprises a light pattern producing unit for producing a light pattern, wherein the lighting apparatus comprises a casing in which the different elements are arranged and which comprises a window for allowing the second laser beam to leave the casing and wherein the laser, the diffractive reflective element and the light pattern producing unit are arranged such that (i) the first laser beam is influenced by the light pattern producing unit before meeting the diffractive reflective element (4;104; 204), or (ii) the second laser beam meets the light pattern producing unit for producing the light pattern; and - wherein the diffractive reflective element (4; 104; 204) is adapted to increase the effective surface area of the second laser beam (5; 105; 205) such that the second laser beam (5; 105; 205) is eye safe. - wherein the diffractive reflective element (4; 104; 204) is adapted to increase the effective surface area of the second laser beam (5; 105; 205) such that the second laser beam (5; 105; 205) is eye safe.