mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting reference signals to a user equipment by a base station in a wireless communication system, the method comprising: configuring a first reference signal having a first time-axis density and a second reference signal having a second time-axis density, wherein the first reference signal is configured on a first partial band and the second reference signal is configured on a second partial band; transmitting subframe configuration information to the user equipment; and transmitting the configured reference signals to the user equipment based on the subframe configuration information, wherein a frequency of the first partial band is higher than a frequency of the second partial band; wherein the first time-axis density is higher than the second time-axis density, and wherein the subframe configuration information indicates whether each subframe is a 1 st type subframe having both the first reference signal and the second reference signal or a 2 nd type subframe having the second reference signal only. configuring a first reference signal having a first time-axis density and a second reference signal having a second time-axis density, wherein the first reference signal is configured on a first partial band and the second reference signal is configured on a second partial band; transmitting subframe configuration information to the user equipment; and transmitting the configured reference signals to the user equipment based on the subframe configuration information, wherein a frequency of the first partial band is higher than a frequency of the second partial band; wherein the first time-axis density is higher than the second time-axis density, and wherein the subframe configuration information indicates whether each subframe is a 1 st type subframe having both the first reference signal and the second reference signal or a 2 nd type subframe having the second reference signal only.
A method for controlling propulsion of a heavy-duty vehicle, where the heavy-duty vehicle comprises a differential drive arrangement arranged in connection to a drive axle with a left wheel and a right wheel, the method comprising determining a nominal shaft slip (λ 0, 440) corresponding to a desired wheel force (Fx) to be generated by the drive axle wheels (270, 280), wherein the nominal shaft slip is indicative of a difference between a current vehicle velocity ( v x) and a vehicle velocity corresponding to the shaft speed ( ω 0), determining a difference between a speed ( ω 1) of the left wheel and a speed ( ω 2) of the right wheel, adjusting the nominal shaft slip (λ 0, 440) in dependence of a magnitude of the wheel speed difference to a target shaft slip (λ T, 460), wherein the target shaft slip (λ T, 460) is smaller than the nominal wheel slip (λ 0, 440) by an amount determined as a function of the magnitude of the wheel speed difference, and controlling the shaft speed ( ω 0) based on the target shaft slip (λ T, 460). determining a nominal shaft slip (λ 0, 440) corresponding to a desired wheel force (Fx) to be generated by the drive axle wheels (270, 280), wherein the nominal shaft slip is indicative of a difference between a current vehicle velocity ( v x) and a vehicle velocity corresponding to the shaft speed ( ω 0), determining a difference between a speed ( ω 1) of the left wheel and a speed ( ω 2) of the right wheel, adjusting the nominal shaft slip (λ 0, 440) in dependence of a magnitude of the wheel speed difference to a target shaft slip (λ T, 460), wherein the target shaft slip (λ T, 460) is smaller than the nominal wheel slip (λ 0, 440) by an amount determined as a function of the magnitude of the wheel speed difference, and controlling the shaft speed ( ω 0) based on the target shaft slip (λ T, 460).
Equipment for sorting parcels in a logistics center, said equipment comprising an automated sorting conveyor mounted at a height over a platform and with sorting outlets (S1, S2, S3) equipped with sorting chutes in the form of ramps sloping downwards from respective sorting outlets to the platform below, the equipment further comprising at least one shuttle trolley mounted on wheels and suitable for transporting non-standard parcels that are not machine-sortable on the sorting conveyor, said equipment being characterized in that the shuttle trolley is controlled so as to move a non-standard parcel from a loading point to an unloading point while passing under the ramps.
A method for controlling an actuator for a building mobile equipment comprising the steps consisting in: (a) providing a model connecting at least one modeling parameter to at least one characteristic physical quantity of the environment or of the operation of the actuator having a time evolution, (b) collecting a set of measurement values (VCm) relating to the at least one characteristic physical quantity of the environment or of the operation of the actuator during a measurement interval (Tm), each measurement value (VCm) being associated with an instant (tm) of the measurement interval (Tm); wherein the set of the measurement values comprises values collected by a physical sensor and measurement values relating to user's actions corresponding to control instructions input by the user; (c) determining or correcting at least one value of the at least one modeling parameter so that a modeled time evolution (Ee) defined from the application of the model to the at least one modeling parameter value corresponds to or approaches an observed time evolution (Eo) of the characteristic physical quantity determined from the set of the measurement values (VCm); (d) applying or correcting a definition of an operation of the actuator as a function of the at least one value of the at least one parameter determined or corrected in step c); such that step c) comprises the use of a randomized algorithm. (a) providing a model connecting at least one modeling parameter to at least one characteristic physical quantity of the environment or of the operation of the actuator having a time evolution, (b) collecting a set of measurement values (VCm) relating to the at least one characteristic physical quantity of the environment or of the operation of the actuator during a measurement interval (Tm), each measurement value (VCm) being associated with an instant (tm) of the measurement interval (Tm); wherein the set of the measurement values comprises values collected by a physical sensor and measurement values relating to user's actions corresponding to control instructions input by the user; (c) determining or correcting at least one value of the at least one modeling parameter so that a modeled time evolution (Ee) defined from the application of the model to the at least one modeling parameter value corresponds to or approaches an observed time evolution (Eo) of the characteristic physical quantity determined from the set of the measurement values (VCm); (d) applying or correcting a definition of an operation of the actuator as a function of the at least one value of the at least one parameter determined or corrected in step c);
An ink set, comprising: a water-based ink for ink jet recording; and a treatment liquid, wherein the water-based ink comprises a phosphate group-modified self-dispersing pigment, water, and a water-soluble organic solvent, and the treatment liquid comprises a monovalent metal ion, water, and a water-soluble organic solvent. a water-based ink for ink jet recording; and a treatment liquid, wherein the water-based ink comprises a phosphate group-modified self-dispersing pigment, water, and a water-soluble organic solvent, and the treatment liquid comprises a monovalent metal ion, water, and a water-soluble organic solvent.
An adenosine or guanosine monomer comprising: a protected 3'-amino group which is protected with an acid-labile group; a nucleoside base which is protected with a dialkyl-, di(cycloalkyl)-, or di(aralkyl)-formamidinyl group; and a 5'-O-(2-cyanoethyl-N,N-diisopropylamino)phosphoramidite group. a protected 3'-amino group which is protected with an acid-labile group; a nucleoside base which is protected with a dialkyl-, di(cycloalkyl)-, or di(aralkyl)-formamidinyl group; and a 5'-O-(2-cyanoethyl-N,N-diisopropylamino)phosphoramidite group.
Method for providing a web service at a plurality of edge networks distributed geographically, wherein the web service comprises a static module and a dynamic module, wherein each edge network comprises a plurality of edge database servers, a plurality of application servers and a load balancer, wherein the method comprises the steps of: a) distributing the static module from a content provider network to the plurality of application servers, b) redirecting a request of the web service from a user to one of the application servers hosting the static module by the load balancer, c) redirecting the request of the web service to one of the edge database servers by the load balancer, and generating the dynamic module of the web service, wherein the plurality of edge database servers is adapted to generate the dynamic module of the web service, d) delivering a web service reply to the user, the reply comprising the static module hosted by said one of the application servers and the dynamic module generated by said one of the edge database servers, e1) automatically adding an additional application and/or edge database server when the load of the existing application and/or edge database server exceeds a first predetermined threshold, or e2) automatically removing an existing application and/or edge database server when the load of the existing application and/or edge database server falls below a second predetermined threshold. a) distributing the static module from a content provider network to the plurality of application servers, b) redirecting a request of the web service from a user to one of the application servers hosting the static module by the load balancer, c) redirecting the request of the web service to one of the edge database servers by the load balancer, and generating the dynamic module of the web service, wherein the plurality of edge database servers is adapted to generate the dynamic module of the web service, d) delivering a web service reply to the user, the reply comprising the static module hosted by said one of the application servers and the dynamic module generated by said one of the edge database servers, e1) automatically adding an additional application and/or edge database server when the load of the existing application and/or edge database server exceeds a first predetermined threshold, or e2) automatically removing an existing application and/or edge database server when the load of the existing application and/or edge database server falls below a second predetermined threshold.
A frameless-display device, comprising: a button having a lens and a button cover; and a display device provided below the lens, wherein the lens is disposed on top of the button and comprises a curved surface formed on the periphery of the top surface of the lens, a depression formed on the bottom surface of the lens, a step formed at the periphery of the lens, and an inclined surface formed at the inner side of the step and inclined towards the center of the lens, wherein a frame portion of the button cover viewed from directly above or from an oblique direction is made invisible and an image (9E, 31) is displayed on the entire surface of the button. a button having a lens and a button cover; and a display device provided below the lens, wherein the lens is disposed on top of the button and comprises a curved surface formed on the periphery of the top surface of the lens, a depression formed on the bottom surface of the lens, a step formed at the periphery of the lens, and an inclined surface formed at the inner side of the step and inclined towards the center of the lens, wherein a frame portion of the button cover viewed from directly above or from an oblique direction is made invisible and an image (9E, 31) is displayed on the entire surface of the button. wherein the lens is disposed on top of the button and comprises a curved surface formed on the periphery of the top surface of the lens, a depression formed on the bottom surface of the lens, a step formed at the periphery of the lens, and an inclined surface formed at the inner side of the step and inclined towards the center of the lens, wherein a frame portion of the button cover viewed from directly above or from an oblique direction is made invisible and an image (9E, 31) is displayed on the entire surface of the button.
A fastener cartridge assembly for a surgical instrument, the fastener cartridge assembly comprising: a cartridge body defining a longitudinal axis, wherein the cartridge body comprises fastener cavities; woven lattices extending across the longitudinal axis of the cartridge body, wherein the woven lattices comprise a resilient material; and a fastener moveable between an initial position and a fired position, wherein the fastener is at least partially positioned in a fastener cavity when the fastener is in its initial position, and wherein the fastener is configured to compress at least one woven lattice when the fastener is moved to its fired position; characterized in that the woven lattices are woven tubular lattices. a cartridge body defining a longitudinal axis, wherein the cartridge body comprises fastener cavities; woven lattices extending across the longitudinal axis of the cartridge body, wherein the woven lattices comprise a resilient material; and a fastener moveable between an initial position and a fired position, wherein the fastener is at least partially positioned in a fastener cavity when the fastener is in its initial position, and wherein the fastener is configured to compress at least one woven lattice when the fastener is moved to its fired position; characterized in that the woven lattices are woven tubular lattices.
Wire rack for a cooking appliance, with a frame, and placement area, which has at least one support bar and a number of N grid bars, wherein the N grid bars are each connected to the support bar and the support bar is connected to the frame at two points, wherein the frame is raised in relation to the placement area and is connected to the placement area in an electrically conductive manner via a number of M short-circuit wires, characterised in that the M short-circuit wires are attached to the underside of the frame, wherein the number M of short-circuit wires is less than the number N of grid bars, and wherein the wire rack has two or more short-circuit wires per side of the frame, which are connected to the placement area via the short-circuit wires, in order to avoid a tilting of the wire rack on a base support.
An electric valve, comprising: a valve body component, wherein, the valve body component comprises a valve body and a valve cover, and the valve cover is fixedly connected with the valve body; a valve core component, which is arranged in an inner chamber of the valve body; a transmission component, which is static with respect to the valve body in an axial direction; and a valve seat component, wherein, the valve seat component comprises a valve seat body, a valve seat core and a valve port jacket, the valve seat body is fixedly connected with the valve body, an upper stepped portion is provided on an inner wall of the valve seat body with a stepped surface facing an upper end portion of the valve seat body, the valve seat core is arranged on the upper stepped portion, and the valve seat core is sleeved outside the valve port jacket, characterized in that, the valve port jacket is a thin-walled cylindrical member, and a balance aperture is arranged at a wall portion of the valve port jacket corresponding to the stepped surface of the upper stepped portion; or the valve port jacket is an annular thin-walled member formed by crimping a thin metal sheet, and an axial opening groove is provided at a butt position of the crimping. a valve body component, wherein, the valve body component comprises a valve body and a valve cover, and the valve cover is fixedly connected with the valve body; a valve core component, which is arranged in an inner chamber of the valve body; a transmission component, which is static with respect to the valve body in an axial direction; and a valve seat component, wherein, the valve seat component comprises a valve seat body, a valve seat core and a valve port jacket, the valve seat body is fixedly connected with the valve body, an upper stepped portion is provided on an inner wall of the valve seat body with a stepped surface facing an upper end portion of the valve seat body, the valve seat core is arranged on the upper stepped portion, and the valve seat core is sleeved outside the valve port jacket, characterized in that, the valve port jacket is a thin-walled cylindrical member, and a balance aperture is arranged at a wall portion of the valve port jacket corresponding to the stepped surface of the upper stepped portion; or the valve port jacket is an annular thin-walled member formed by crimping a thin metal sheet, and an axial opening groove is provided at a butt position of the crimping.
A wind turbine generator for increasing active power output to a power system in a case where a frequency decrease has occurred in the power system, the wind turbine generator comprising: a detection unit that detects a predetermined frequency variation; and a first control unit that, in a case where the predetermined frequency variation has been detected, calculates a marginal active power based on a difference between a predetermined rotational speed lower limit value obtained by providing a parallel-off rotational speed, at which parallel-off is executed, with a predetermined margin, and a measured value of a shaft rotational speed, and generates an active power command value indicating active power to be supplied to the power system based on the marginal active power, characterized in that the first control unit determines a period of supply of the active power command value to be supplied to the power system according to the amount of change in the system frequency per unit time, and sets the period to be shorter as the amount of change is greater. a detection unit that detects a predetermined frequency variation; and a first control unit that, in a case where the predetermined frequency variation has been detected, calculates a marginal active power based on a difference between a predetermined rotational speed lower limit value obtained by providing a parallel-off rotational speed, at which parallel-off is executed, with a predetermined margin, and a measured value of a shaft rotational speed, and generates an active power command value indicating active power to be supplied to the power system based on the marginal active power, characterized in that the first control unit determines a period of supply of the active power command value to be supplied to the power system according to the amount of change in the system frequency per unit time, and sets the period to be shorter as the amount of change is greater.
Cooking element for steam cooker, comprising a tubular side wall (51; 201) having a lower edge resting on a base (56; 206) forming a perforated bottom (55; 205) having a plurality of openings (53; 203) designed to allow the passage of steam, the tubular side wall (51; 201) being made at least partially from transparent plastic material, characterised in that said transparent plastic material is plastically deformable in bending under load at a temperature of less than or equal to 100 °C, and in that the base (56; 206) holds at the outside a lower portion of the tubular side wall (51; 201) above the lower edge.
A radio-controlled seed planter comprising: a radio-controlled truck including a remote control module to cause the RC truck to be controlled remotely by a radio control unit; and a seeding unit coupled and installed in the RC truck to perform seeding work wherein the RC truck comprises: a main frame; a subframe; an engine installed on the main frame; a battery installed on the subframe, the battery being charged by the power of the engine; and driving units disposed on front and rear sides on both sides of the subframe, respectively, to drive wheels with electric power of the battery so as to produce driving power; characterized in that the subframe is formed to be spaced apart from the main frame; and the RC truck further comprises damper units installed between the main frame and the subframe to dampen impact, wherein each of the damper units comprises: a damping rod protruding vertically upward from a top surface of the main frame and having an engagement ledge formed on a top end thereof; a guide bushing provided to the subframe in such a manner that the damping rod penetrates through the guide bushing; and a spring mounted between the engagement ledge formed on the top end of the damping rod and an upper end of the guide bushing to support the load to be applied to the main frame and to dampen vibration of the main frame when the RC truck travels. a radio-controlled truck including a remote control module to cause the RC truck to be controlled remotely by a radio control unit; and a seeding unit coupled and installed in the RC truck to perform seeding work wherein the RC truck comprises: a main frame; a subframe; an engine installed on the main frame; a battery installed on the subframe, the battery being charged by the power of the engine; and driving units disposed on front and rear sides on both sides of the subframe, respectively, to drive wheels with electric power of the battery so as to produce driving power; a main frame; a subframe; an engine installed on the main frame; a battery installed on the subframe, the battery being charged by the power of the engine; and driving units disposed on front and rear sides on both sides of the subframe, respectively, to drive wheels with electric power of the battery so as to produce driving power; a damping rod protruding vertically upward from a top surface of the main frame and having an engagement ledge formed on a top end thereof; a guide bushing provided to the subframe in such a manner that the damping rod penetrates through the guide bushing; and a spring mounted between the engagement ledge formed on the top end of the damping rod and an upper end of the guide bushing to support the load to be applied to the main frame and to dampen vibration of the main frame when the RC truck travels.