mhurhangee/patent-ind-claim-en huggingface dataset:
A feed roller, comprising a round plate-type flange body , and radial ribs fixed at an even spacing over its outer circumference with gripping members for providing a firm grip of the surface of a tree stem being handled by the feed roller, characterized in that the outer edge of the plate-type ribs is disposed at an oblique angle (α) to the axis of the feed roller, and the outer edge of each rib comprises several gripping members having a straight blade edge , arranged such that the blade edges extend parallel to the axis of the feed roller.
A method for producing a molded article , the molded article comprising a thermoplastic resin and reinforcing fibers having a number-average fiber length of 1 mm or longer, the method comprising: molding a material containing the thermoplastic resin and reinforcing fibers having a number-average fiber length of less than 30 mm, using a first closed mold ; and then molding only the molded material once again using a second closed mold ; wherein either the shape of the second closed mold differs from the shape of the first closed mold and the material temperature when the material is applied to the second closed mold is from 0.1 to 7°C lower than a material temperature when the material is applied to the first closed mold , or the shape of the second closed mold is identical to the shape of the first closed mold and the material temperature when the material is applied to the second closed mold is from 0.1 to 20°C lower than a material temperature when the material is applied to the first closed mold . molding a material containing the thermoplastic resin and reinforcing fibers having a number-average fiber length of less than 30 mm, using a first closed mold ; and then molding only the molded material once again using a second closed mold ; wherein either the shape of the second closed mold differs from the shape of the first closed mold and the material temperature when the material is applied to the second closed mold is from 0.1 to 7°C lower than a material temperature when the material is applied to the first closed mold , or the shape of the second closed mold is identical to the shape of the first closed mold and the material temperature when the material is applied to the second closed mold is from 0.1 to 20°C lower than a material temperature when the material is applied to the first closed mold .
A method of wireless communication at a first base station , comprising: predetermining a plurality of bandwidth parts to be monitored by a user equipment, UE, associated with the first base station in a plurality of transmission slots based on resource reservation information received from at least a second base station , wherein the plurality of transmission slots include one or more transmission slots for first transmissions of ultra-reliable low-latency, URLLC, traffic associated with the second base station and one or more retransmission slots for retransmissions of ultra-reliable low-latency, URLLC, traffic associated with the second base station, wherein the resource reservation information indicates that the one or more retransmission slots associated with the second base station are unused by user equipment, UE, associated with the at least one second base station; and transmitting , to the user equipment, UE, associated with the first base station in a radio resource control, RRC, message, information indicating the predetermined bandwidth parts in the one or more transmission slots; and scheduling the UE associated with the first base station in the one or more retransmission slots associated with the second base station for transmission of best effort traffic. predetermining a plurality of bandwidth parts to be monitored by a user equipment, UE, associated with the first base station in a plurality of transmission slots based on resource reservation information received from at least a second base station , wherein the plurality of transmission slots include one or more transmission slots for first transmissions of ultra-reliable low-latency, URLLC, traffic associated with the second base station and one or more retransmission slots for retransmissions of ultra-reliable low-latency, URLLC, traffic associated with the second base station, wherein the resource reservation information indicates that the one or more retransmission slots associated with the second base station are unused by user equipment, UE, associated with the at least one second base station; and transmitting , to the user equipment, UE, associated with the first base station in a radio resource control, RRC, message, information indicating the predetermined bandwidth parts in the one or more transmission slots; and scheduling the UE associated with the first base station in the one or more retransmission slots associated with the second base station for transmission of best effort traffic.
A flow path member comprising: a base; and a flow path which includes an inlet and an outlet in the base; wherein the base is made of ceramics whose surface resistance is 1X10 7 Ω /sq or more, and the flow path includes a low resistance portion whose surface resistance is less than 1X10 7 Ω /sq in at least a part thereof, wherein the flow path includes an inflow path on the inlet side, an outflow path on the outlet side, and a circulation path between the inflow path and the outflow path , and the low resistance portion is provided in the inflow path , characterized in that a surface resistance of the low resistance portion of the inflow path decreases stepwise towards the inlet . a base; and a flow path which includes an inlet and an outlet in the base; wherein the base is made of ceramics whose surface resistance is 1X10 7 Ω /sq or more, and the flow path includes a low resistance portion whose surface resistance is less than 1X10 7 Ω /sq in at least a part thereof, wherein the flow path includes an inflow path on the inlet side, an outflow path on the outlet side, and a circulation path between the inflow path and the outflow path , and the low resistance portion is provided in the inflow path , characterized in that a surface resistance of the low resistance portion of the inflow path decreases stepwise towards the inlet .
An apparatus for separating particulate-fluid suspensions comprising: a first section having a first inside diameter; a second section having a second inside diameter, wherein the first and second sections are disposed coaxially along a common longitudinal centerline; a conical stabilizer disposed coaxially along the common longitudinal centerline between the first and second sections , wherein the stabilizer is disposed with the apex towards the first section , and wherein the stabilizer has a base diameter less than the second inside diameter; characterized in that it further comprises a transition section having a frustoconical configuration with a first upper end having a diameter equal to the diameter of the second section and a second lower end having a diameter equal to the diameter of one or more connections and being disposed coaxially along the longitudinal centerline of the separator between the second section and the one or more connections ; one or more apertures disposed about the wall forming the transition section , wherein a fluid distribution channel is in fluid communication with the one or more apertures via one or more fluid conduits . a first section having a first inside diameter; a second section having a second inside diameter, wherein the first and second sections are disposed coaxially along a common longitudinal centerline; a conical stabilizer disposed coaxially along the common longitudinal centerline between the first and second sections , wherein the stabilizer is disposed with the apex towards the first section , and wherein the stabilizer has a base diameter less than the second inside diameter; a transition section having a frustoconical configuration with a first upper end having a diameter equal to the diameter of the second section and a second lower end having a diameter equal to the diameter of one or more connections and being disposed coaxially along the longitudinal centerline of the separator between the second section and the one or more connections ; one or more apertures disposed about the wall forming the transition section , wherein a fluid distribution channel is in fluid communication with the one or more apertures via one or more fluid conduits .
A fiber optic assembly comprising: a ferrule assembly including a ferrule and a stub fiber ; a fiber optic cable including a cable fiber that is fusion spliced to the stub fiber at a splice location ; and a hub mounted over a rear end of the ferrule and also over the splice location , the hub including an outer hub shell defining an interior chamber that is occupied by a splice over mold material that encapsulates the splice location , the fiber optic assembly further comprising a connector body in which the ferrule and the hub are at least partially positioned, the connector body including a front end and a rear end, the ferrule being accessible at the front end of the connector body , the fiber optic assembly further including a spring that biases the hub and the ferrule in a forward direction, the connector body including a front piece and a rear piece [PCT, page 16, lines 25-26 and page 32, lines 9-10], wherein when the front and rear pieces are connected together, the spring and the hub are captured between the front and rear pieces [PCT, page 17, lines 3-5]. a ferrule assembly including a ferrule and a stub fiber ; a fiber optic cable including a cable fiber that is fusion spliced to the stub fiber at a splice location ; and a hub mounted over a rear end of the ferrule and also over the splice location , the hub including an outer hub shell defining an interior chamber that is occupied by a splice over mold material that encapsulates the splice location , the fiber optic assembly further comprising a connector body in which the ferrule and the hub are at least partially positioned, the connector body including a front end and a rear end, the ferrule being accessible at the front end of the connector body , the fiber optic assembly further including a spring that biases the hub and the ferrule in a forward direction, the connector body including a front piece and a rear piece [PCT, page 16, lines 25-26 and page 32, lines 9-10], wherein when the front and rear pieces are connected together, the spring and the hub are captured between the front and rear pieces [PCT, page 17, lines 3-5].
Tank for containing a component fluid or a mixture of components, said tank comprising a first main wall or first wall portion , a second main wall or second wall portion , said walls delimiting at least one housing area of said component fluid or mixture of components, first heating means of said first wall or first wall portion and second heating means of said second wall or second wall portion , at least one controller means of the flow rate of said component fluid leaving said tank, a control unit (CU) designed to operate said heating means so as to maintain said first wall at a temperature lower than said second wall , said control unit (CU) being designed to receive the signals of said controller means and to consequently control said heating means so as to increase, decrease or keep constant the temperature difference between said first wall and said second wall according to whether the flow rate of said component fluid evaluated or obtained by said control unit (CU) as a function of the signals received by said at least one controller means is respectively less than, greater than or equal to a given value or range of values.
A track measuring vehicle for recording a track geometry of a track , including a vehicle frame which has rail undercarriages and is mobile on two rails of the track , and including a first measuring base on which are arranged an inertial measuring unit and, for a position determination relative to each rail , at least one contact-less position measuring device , characterized in that a lowerable second measuring base is arranged which comprises measuring running wheels designed to be set upon the rails and which is connected to the first measuring base via compensation measuring devices .
Flap fitting for a wall unit for movement control of a furniture part movably received on a furniture carcass , wherein the flap fitting comprises guide means acting between the furniture carcass and the furniture part and by means of which the furniture part can be brought out of a closed state relative to the furniture carcass , in which the furniture assumes a position in which it can be moved up to a front side of the furniture, can be brought into an open state of the furniture part relative to the furniture carcass and can be moved back again into the closed state, wherein the guide means are designed to move the furniture part during an opening operation out of the closed state in such a way that, in a first movement phase of the opening operation, a horizontal distance between the furniture part and the front side of the furniture carcass increases, and in a second movement phase of the opening operation, the furniture part is pivoted about an axis by a single-axis pivoting movement, characterized in that the second movement phase with the pivoting movement at least partially overlaps the movement of the first movement phase.
An exhaust nozzle assembly for use with a propulsion system for an aircraft , the propulsion system including an engine configured to produce a jet, the exhaust nozzle assembly comprising: a nozzle body configured to be fluidly coupled with the engine and to receive the jet; an outer cover at least partially covering the nozzle body ; a movable component configured to move between a first position and a second position when a force is applied to the movable component , the movable component disposed and configured to have an effect on one of the jet and an exhaust plume produced by the propulsion system when the movable component moves between the first position and the second position; and a linkage coupled to the movable component and adapted for coupling to an actuator configured to generate the force, the linkage transmitting the force to the moveable component when the linkage is coupled with the actuator and when the actuator is actuated, wherein a gap exists between an inner surface of the outer cover and an outer surface of the nozzle body , wherein the linkage is partially disposed within the gap , and characterised in that , in use, the exhaust nozzle assembly is free of the actuator . a nozzle body configured to be fluidly coupled with the engine and to receive the jet; an outer cover at least partially covering the nozzle body ; a movable component configured to move between a first position and a second position when a force is applied to the movable component , the movable component disposed and configured to have an effect on one of the jet and an exhaust plume produced by the propulsion system when the movable component moves between the first position and the second position; and a linkage coupled to the movable component and adapted for coupling to an actuator configured to generate the force, the linkage transmitting the force to the moveable component when the linkage is coupled with the actuator and when the actuator is actuated, wherein a gap exists between an inner surface of the outer cover and an outer surface of the nozzle body , wherein the linkage is partially disposed within the gap , and characterised in that , in use, the exhaust nozzle assembly is free of the actuator .
Method for determining the abrasion resistance of at least one wear layer arranged on a core board comprising the steps - Recording at least one NIR spectrum of the wear layer arranged on the at least one core board a) before hardening of the at least one wear layer, b) after hardening of at least one wear layer; or c) before and after hardening of the at least one wear layer with the core board using at least one NIR detector in a wavelength range between 500 nm and 2500 nm, preferably between 700 nm and 2000 nm, in particular preferably between 900 nm and 1700 nm; - Determining the abrasion resistance of the at least one wear layer by comparing the NIR spectrum recorded for determining the abrasion resistance of the at least one wear layer with at least one NIR spectrum recored for at least one reference sample of the at least one wear layer with known abrasion resistance by means of a multivariate data analysis, wherein the at least one NIR spectrum recorded for the at least one reference sample with known abrasion resistance of the at least one wear layer a) after hardening or b) before and after hardening has been determined beforehand using the same NIR detector in a wavelength range between 500 nm and 2500 nm, preferably between 700 nm and 2000 nm, in particular preferably between 900 nm and 1700 nm, wherein the at least one NIR detector traverses the entire width of the core board. - Recording at least one NIR spectrum of the wear layer arranged on the at least one core board a) before hardening of the at least one wear layer, b) after hardening of at least one wear layer; or c) before and after hardening of the at least one wear layer with the core board using at least one NIR detector in a wavelength range between 500 nm and 2500 nm, preferably between 700 nm and 2000 nm, in particular preferably between 900 nm and 1700 nm; a) before hardening of the at least one wear layer, b) after hardening of at least one wear layer; or c) before and after hardening of the at least one wear layer with the core board using at least one NIR detector in a wavelength range between 500 nm and 2500 nm, preferably between 700 nm and 2000 nm, in particular preferably between 900 nm and 1700 nm; - Determining the abrasion resistance of the at least one wear layer by comparing the NIR spectrum recorded for determining the abrasion resistance of the at least one wear layer with at least one NIR spectrum recored for at least one reference sample of the at least one wear layer with known abrasion resistance by means of a multivariate data analysis,
An optoelectronic device for extracting features contained in the spectrum of noised, continuous or pulsed analogue radiofrequency signals, forming an analogue input signal, the optoelectronic extraction device being characterised in that it comprises: - an input module generating an optical carrier wave and performing modulation of this optical carrier by the analogue input signal, by multiplication/mixing, to form a modulated optical signal; - an array of linear optical cavities coupled and pumped optically by all or part of the modulated optical signal, routed to the array by a means for feeding light; - a device for directly or indirectly optically measuring measured amounts of optical fields which are: intensities, amplitudes and/or phases of optical fields within coupled linear cavities, these optical fields being induced by the modulated optical signal by the analogue input signal; - a computation module connected to the optical measurement device, performing a linear transformation on the measured amounts of the optical fields, by multiplication with a matrix W and addition of a bias vector b; to allow reconstructing and extracting targeted features contained in the spectrum of the radiofrequency input signal, the computation module having performed machine learning on training noised analogue radiofrequency signals having the same targeted features in order to determine the parameters W and b. - an input module generating an optical carrier wave and performing modulation of this optical carrier by the analogue input signal, by multiplication/mixing, to form a modulated optical signal; - an array of linear optical cavities coupled and pumped optically by all or part of the modulated optical signal, routed to the array by a means for feeding light; - a device for directly or indirectly optically measuring measured amounts of optical fields which are: intensities, amplitudes and/or phases of optical fields within coupled linear cavities, these optical fields being induced by the modulated optical signal by the analogue input signal; - a computation module connected to the optical measurement device, performing a linear transformation on the measured amounts of the optical fields, by multiplication with a matrix W and addition of a bias vector b;
A force multiplier for controlling motion of an invasive probe relative to a sheath enclosing the probe and configured to multiply a force applied manually by an operator to the probe, the force multiplier comprising: an outer casing , configured for connection to the sheath ; and a drive mechanism , fixedly connected to the outer casing, the drive mechanism comprising: a fixed unit fixed to the outer casing; a movable unit connected to the fixed unit; a first set of components, configured to translate the moveable unit relative to the fixed unit along a direction parallel to an axis of the probe, in order to advance and retract the probe with respect to the sheath in a translational stepwise manner; and a second set of components, configured to rotate the moveable unit relative to the fixed unit around the axis of the probe, in order to rotate the probe clockwise and counter-clockwise, with respect to the sheath, in a rotational stepwise manner. an outer casing , configured for connection to the sheath ; and a drive mechanism , fixedly connected to the outer casing, the drive mechanism comprising: a fixed unit fixed to the outer casing; a movable unit connected to the fixed unit; a first set of components, configured to translate the moveable unit relative to the fixed unit along a direction parallel to an axis of the probe, in order to advance and retract the probe with respect to the sheath in a translational stepwise manner; and a second set of components, configured to rotate the moveable unit relative to the fixed unit around the axis of the probe, in order to rotate the probe clockwise and counter-clockwise, with respect to the sheath, in a rotational stepwise manner. a fixed unit fixed to the outer casing; a movable unit connected to the fixed unit; a first set of components, configured to translate the moveable unit relative to the fixed unit along a direction parallel to an axis of the probe, in order to advance and retract the probe with respect to the sheath in a translational stepwise manner; and a second set of components, configured to rotate the moveable unit relative to the fixed unit around the axis of the probe, in order to rotate the probe clockwise and counter-clockwise, with respect to the sheath, in a rotational stepwise manner. a first set of components, configured to translate the moveable unit relative to the fixed unit along a direction parallel to an axis of the probe, in order to advance and retract the probe with respect to the sheath in a translational stepwise manner; and a second set of components, configured to rotate the moveable unit relative to the fixed unit around the axis of the probe, in order to rotate the probe clockwise and counter-clockwise, with respect to the sheath, in a rotational stepwise manner.
Electronic input interface , comprising: - a dielectric base , one face of which is accessible to the user, and - a capacitive detector which is located at a distance from said face and which comprises at least two distinct antennas and an electronic circuit , which electronic circuit is connected to said two antennas and is suitable for producing an object detection signal, at least part of said electronic circuit , the dielectric base and the two antennas together forming a moulded interconnection device. - a dielectric base , one face of which is accessible to the user, and - a capacitive detector which is located at a distance from said face and which comprises at least two distinct antennas and an electronic circuit , which electronic circuit is connected to said two antennas and is suitable for producing an object detection signal,