mhurhangee/patent-ind-claim-en huggingface dataset:
A low pressure compressor ("LPC") case comprising: a first bleed duct (250; 320); and a first bleed valve assembly configured to seal the first bleed duct (250; 320), the first bleed valve assembly comprising: a first resonator chamber which is in fluid communication with the first bleed duct; a bleed valve (230; 310); and an actuator configured to drive the bleed valve (230; 310) toward the actuator in order to release bleed air through the bleed duct ; characterised in that : the first resonator chamber comprises a forward chamber portion and an aft chamber portion , wherein a depth (D1) of the forward chamber portion is less than a depth (D2) of the aft chamber portion , such that the resonator chamber has a stepped profile corresponding to a shape of the bleed valve to which it is adjacent. a first bleed duct (250; 320); and a first bleed valve assembly configured to seal the first bleed duct (250; 320), the first bleed valve assembly comprising: a first resonator chamber which is in fluid communication with the first bleed duct; a bleed valve (230; 310); and an actuator configured to drive the bleed valve (230; 310) toward the actuator in order to release bleed air through the bleed duct ; a first resonator chamber which is in fluid communication with the first bleed duct; a bleed valve (230; 310); and an actuator configured to drive the bleed valve (230; 310) toward the actuator in order to release bleed air through the bleed duct ; characterised in that : the first resonator chamber comprises a forward chamber portion and an aft chamber portion , wherein a depth (D1) of the forward chamber portion is less than a depth (D2) of the aft chamber portion , such that the resonator chamber has a stepped profile corresponding to a shape of the bleed valve to which it is adjacent.
Electromagnetic radiation reflecting element , characterised in that the reflecting element comprises a photonic element (20, 21; 30-32; 40; 43) that is arranged in the beam path (11, 14, 18; 35, 38) and/or on a surface (30 - 32) reflecting the radiation and has a tunable band gap in order to be able to modulate the radiation passing through the photonic element, the photonic element consisting of a photonic material in a liquid crystal environment such that the photonic band gap of the photonic material can be influenced by influencing the liquid crystal material in the nematic and/or ferroelectric state by an electric field.
A medical workstation comprising a trolley with at least one shelf in combination with a medical workstation mounting apparatus for mounting accessories to the medical workstation, the medical workstation mounting apparatus comprising an elongate body with first and second ends , upper and lower edges and front and rear faces , and the apparatus attached to the shelf of the medical workstation with the rear face against an edge of the shelf , the apparatus having a length (L) between the first and second ends , a depth (D) between the upper and lower edges and a thickness (T) which is the distance the apparatus extends out from the shelf , a pair of accessory receivers extending from the body , each accessory receiver comprising a pair of arms defining between them a channel configured to receive a hook of an accessory, wherein the apparatus has a maximum thickness (T) which is less than its maximum depth (D),the apparatus is attached to the shelf with the length (L) extending horizontally along the edge of the shelf , the depth (D) extending vertically and each channel extending vertically, the accessory receivers are located at the first and second ends of the elongate body , each arm comprises a proximal portion extending forward from the body and a distal portion extending parallel to the body , and the elongate body further comprises a centrally located protruding region stepped forward from adjacent areas of the body and spaced from the accessory receivers and defining a generally rectangular opening between the rear face of the body and a shelf when the apparatus is attached to the shelf .
A positive electrode for a lithium-sulfur battery comprising: a positive electrode active material layer including conductive carbon material and sulfur-containing material , wherein the sulfur-containing material is S 8 , Li 2 S, sulfurized polymer, or a mixture of two or more thereof, wherein a region in which the sulfur-containing material is densified and a region in which the carbon material is densified are arranged separately in the positive electrode active material layer , and characterized in that the positive electrode active material layer includes 60 to 90 wt% of the sulfur-containing material and the remaining wt% of the carbon material . a positive electrode active material layer including conductive carbon material and sulfur-containing material , wherein the sulfur-containing material is S 8 , Li 2 S, sulfurized polymer, or a mixture of two or more thereof, wherein a region in which the sulfur-containing material is densified and a region in which the carbon material is densified are arranged separately in the positive electrode active material layer , and characterized in that the positive electrode active material layer includes 60 to 90 wt% of the sulfur-containing material and the remaining wt% of the carbon material .
A system comprising: a portable device for providing tactile feedback to a user; and a handheld games controller , the games controller comprising a receiving portion for securing the portable device to the games controller via the connecting portion; the portable device comprising: a communication interface operable to receive text information; a tactile pad comprising a plurality of touch elements for generating a respective tactile output; a connecting portion for securing the portable device to a handheld games controller; and a processor configured to receive the text information and to control the tactile output of at least some of the touch elements based on the received text information; the handheld games controller comprising a touch sensitive surface , and wherein the portable device is positioned over the touch sensitive surface; and pressure applied by a user onto the portable device is relayed to the touch sensitive surface of the handheld games controller. a portable device for providing tactile feedback to a user; and a handheld games controller , the games controller comprising a receiving portion for securing the portable device to the games controller via the connecting portion; the portable device comprising: a communication interface operable to receive text information; a tactile pad comprising a plurality of touch elements for generating a respective tactile output; a connecting portion for securing the portable device to a handheld games controller; and a processor configured to receive the text information and to control the tactile output of at least some of the touch elements based on the received text information; the handheld games controller comprising a touch sensitive surface , and wherein the portable device is positioned over the touch sensitive surface; and pressure applied by a user onto the portable device is relayed to the touch sensitive surface of the handheld games controller. a communication interface operable to receive text information; a tactile pad comprising a plurality of touch elements for generating a respective tactile output; a connecting portion for securing the portable device to a handheld games controller; and a processor configured to receive the text information and to control the tactile output of at least some of the touch elements based on the received text information; the handheld games controller comprising a touch sensitive surface , and wherein the portable device is positioned over the touch sensitive surface; and pressure applied by a user onto the portable device is relayed to the touch sensitive surface of the handheld games controller.
A carpet cleaner comprising a base including a suction nozzle and a rotatable brushroll that is driven by a brush motor through a belt , wherein the brushroll is mounted for rotation in a brush carriage assembly , characterized by : a pair of spaced support legs pivotally mounted to the base and between them rotatably support the rotatable brushroll ; and an end cap mounted to one of the support legs and configured to releasably retain the brushroll between the support legs ; whereby the brushroll can be easily changed by removing the end cap without the use of a tool. a pair of spaced support legs pivotally mounted to the base and between them rotatably support the rotatable brushroll ; and an end cap mounted to one of the support legs and configured to releasably retain the brushroll between the support legs ;
Sabot for a sub-caliber projectile , the sabot consisting of at least two sabot segments (2.1, 2.2), bionic structures being provided in the sabot , the bionic structures being honeycombs, struts, bubbles, spherical cavities and/or combinations thereof, and the bionic structures being embedded within the sabot segments (2.1, 2.2), characterized in that the bionic structures are defined by a 3D printing process or by an SLS process and are created in a targeted manner during the manufacture of the sabot .
A method of manufacturing a metal nano coil, comprising the steps of: forming, with tension applied to a core member composed of nanofiber of a polymer, a metal thin film on a surface of the core member to fabricate a metal-covered nanofiber; reducing the tension of the metal-covered nanofiber; and heating, with the tension reduced, the metal-covered nanofiber to at or above a boiling point or a thermal decomposition temperature of the polymer and at or below the melting point of the metal thin film to vaporize the core member and shrink the metal thin film into a coil form, so that the metal nano coil is produced. forming, with tension applied to a core member composed of nanofiber of a polymer, a metal thin film on a surface of the core member to fabricate a metal-covered nanofiber; reducing the tension of the metal-covered nanofiber; and heating, with the tension reduced, the metal-covered nanofiber to at or above a boiling point or a thermal decomposition temperature of the polymer and at or below the melting point of the metal thin film to vaporize the core member and shrink the metal thin film into a coil form, so that the metal nano coil is produced.
A vehicle lighting module including a lighting unit comprising: at least one solid state lighting element ; at least one reflector ; and a lens array opposite the at least one reflector , said lens array comprising a plurality of abutting substantially upright columnar lenses for distributing the reflected light in a plane perpendicular to the propagation direction of said upright lenses , wherein the at least one reflector is arranged such that the reflected light covers several of the lenses of the lens array , characterized in that , the lighting unit further comprises - a light guide arranged to guide the light emitted by the at least one solid state lighting element towards the at least one reflector , wherein the light guide is placed such that the light guide does not interfere with the reflected light, wherein a pair of the solid state lighting elements is arranged at opposite ends of the light guide to emit light into said light guide ; and - a plurality of the reflectors is arranged in a row, wherein the light guide extends across said row of reflectors and comprises light scattering structures for redirecting light travelling through the light guide towards said reflectors . at least one solid state lighting element ; at least one reflector ; and a lens array opposite the at least one reflector , said lens array comprising a plurality of abutting substantially upright columnar lenses for distributing the reflected light in a plane perpendicular to the propagation direction of said upright lenses , wherein the at least one reflector is arranged such that the reflected light covers several of the lenses of the lens array , characterized in that , the lighting unit further comprises - a light guide arranged to guide the light emitted by the at least one solid state lighting element towards the at least one reflector , wherein the light guide is placed such that the light guide does not interfere with the reflected light, wherein a pair of the solid state lighting elements is arranged at opposite ends of the light guide to emit light into said light guide ; and - a plurality of the reflectors is arranged in a row, - a light guide arranged to guide the light emitted by the at least one solid state lighting element towards the at least one reflector , wherein the light guide is placed such that the light guide does not interfere with the reflected light, wherein a pair of the solid state lighting elements is arranged at opposite ends of the light guide to emit light into said light guide ; and - a plurality of the reflectors is arranged in a row, wherein the light guide extends across said row of reflectors and comprises light scattering structures for redirecting light travelling through the light guide towards said reflectors .
A Bluetooth Low Energy "BLE" data transmission method for a smart watch, comprising: receiving, by a first BLE module of a first micro-controller unit "MCU" of the smart watch, an instruction of transmitting data, wherein the instruction of transmitting data comprises an instruction of transmitting the data to an application processor "AP" of the smart watch or an instruction of transmitting the data to a mobile terminal; determining, by the first BLE module, whether the AP is in a wake-up state if the instruction of transmitting data is the instruction of transmitting the data to the AP, and transmitting the data to a second BLE module of the AP through a radio frequency communication RFCOMM interface if the AP is determined to be in the wake-up state, otherwise, buffering the to-be-transmitted data; and synchronizing, by the first BLE module, state information to the second BLE module of the AP in a pass-through manner if the instruction of transmitting data is the instruction of transmitting the data to the mobile terminal, and transmitting the data to the mobile terminal through the RFCOMM interface. receiving, by a first BLE module of a first micro-controller unit "MCU" of the smart watch, an instruction of transmitting data, wherein the instruction of transmitting data comprises an instruction of transmitting the data to an application processor "AP" of the smart watch or an instruction of transmitting the data to a mobile terminal; determining, by the first BLE module, whether the AP is in a wake-up state if the instruction of transmitting data is the instruction of transmitting the data to the AP, and transmitting the data to a second BLE module of the AP through a radio frequency communication RFCOMM interface if the AP is determined to be in the wake-up state, otherwise, buffering the to-be-transmitted data; and synchronizing, by the first BLE module, state information to the second BLE module of the AP in a pass-through manner if the instruction of transmitting data is the instruction of transmitting the data to the mobile terminal, and transmitting the data to the mobile terminal through the RFCOMM interface.
A method for controlling acoustic output radiating through an adjustable wing of a seat headrest (100;200;300), the method comprising: receiving , from a sensor disposed in the seat headrest, an input signal indicative of a position of the adjustable wing, the position being one of multiple positions within an angle range; updating , based on the input signal, values for one or more control parameters associated with a transducer that generates the acoustic output radiating through the adjustable wing; adjusting the transducer in accordance with the position of the adjustable wing using one or more control signals generated based on the updated values of the one or more control parameters; wherein the values of the one or more control parameters are determined in accordance with a target acoustic distribution, and wherein the target acoustic distribution is determined as a ratio of i) energy of the acoustic output radiating through the wing, and ii) energy of acoustic output radiating from at least one other acoustic transducer external to the seat headrest. receiving , from a sensor disposed in the seat headrest, an input signal indicative of a position of the adjustable wing, the position being one of multiple positions within an angle range; updating , based on the input signal, values for one or more control parameters associated with a transducer that generates the acoustic output radiating through the adjustable wing; adjusting the transducer in accordance with the position of the adjustable wing using one or more control signals generated based on the updated values of the one or more control parameters; wherein the values of the one or more control parameters are determined in accordance with a target acoustic distribution, and wherein the target acoustic distribution is determined as a ratio of i) energy of the acoustic output radiating through the wing, and ii) energy of acoustic output radiating from at least one other acoustic transducer external to the seat headrest.
A mounting structure for a power conversion device comprising: a vehicle body component extending in a front-rear direction of a vehicle; a mounting component provided on the vehicle body component ; a drive unit held by the vehicle body component via the mounting component ; and charaterized in a power conversion device attached to the mounting component , wherein a stiffness of the mounting component is greater than a stiffness of the vehicle body component , the power conversion device is arranged between a front end and a rear end of the drive unit in a side view of the vehicle, and a front end of the power conversion device is arranged at a more rear side of the vehicle than a front end of the mounting component . a vehicle body component extending in a front-rear direction of a vehicle; a mounting component provided on the vehicle body component ; a drive unit held by the vehicle body component via the mounting component ; and charaterized in a power conversion device attached to the mounting component , wherein a stiffness of the mounting component is greater than a stiffness of the vehicle body component , the power conversion device is arranged between a front end and a rear end of the drive unit in a side view of the vehicle, and a front end of the power conversion device is arranged at a more rear side of the vehicle than a front end of the mounting component .
A computer-implemented method, comprising: initiating authorization of a user seeking access to protected content with one or more user credentials; analyzing data , from one or more sensors accessible by a computing device of the user, to determine whether a single user is detected; unlocking the protected content for presentation by the computing device after successful authorization of the user and detection of a single user of the computing device; monitoring the one or more sensors of the computing device during presentation of the protected content with the computing device; characterised in that the computer-implemented method further comprises the step of halting presentation of the protected content in response to detecting less than one user of the protected content detected as a function of data from the one or more of the sensors. initiating authorization of a user seeking access to protected content with one or more user credentials; analyzing data , from one or more sensors accessible by a computing device of the user, to determine whether a single user is detected; unlocking the protected content for presentation by the computing device after successful authorization of the user and detection of a single user of the computing device; monitoring the one or more sensors of the computing device during presentation of the protected content with the computing device; characterised in that the computer-implemented method further comprises the step of halting presentation of the protected content in response to detecting less than one user of the protected content detected as a function of data from the one or more of the sensors.
Agricultural device, in particular a soil-working device, having at least one carrier beam which is arranged on a supporting frame and which carries ground-working tools , wherein the ground-working tools are fastened to the carrier beam by means of holders having supporting arms , wherein the carrier beam is arranged on the supporting frame by means of at least two rotary bearings which are arranged so as to be spaced apart from one another, wherein the carrier beam can be rotated to a limited degree about its longitudinal axis in the rotary bearings , wherein the respective rotary bearing has an inner bearing ring fastened to the carrier beam and an outer bearing ring which interacts with the inner bearing ring in a rotatably mounted manner and which is connected to the supporting frame , wherein a securing element which fixes the inner bearing ring with respect to the outer bearing ring in the axial direction is assigned to the respective rotary bearing on each side, wherein at least one of the securing elements is connected to one of the bearing rings in a releasable manner by means of fastening elements , characterized in that the securing element fastened in a releasable manner is fastened to the outer bearing ring by the fastening elements .
A method performed by a wireless device comprising determining a first bandwidth for monitoring a downlink control signal; determining a first set of possible downlink control indicator, DCI, formats that are compatible with the first bandwidth; receiving a first transmission from a network node using the first bandwidth; blindly decoding control information in the first transmission by using at least one DCI format of the first set of DCI formats; and when successful decoding of the control information, checking whether bandwidth to be monitored is indicated by the control information in the first transmission to be changed to a second bandwidth, and when bandwidth is indicated to be changed: determining the second bandwidth for downlink control signal monitoring, determining a second set of possible downlink control indicator, DCI, formats that are compatible with the second bandwidth, receiving a second transmission from the network node using the second bandwidth, and blindly decoding control information in the second transmission by using at least one DCI format of the second set of DCI formats. determining a first bandwidth for monitoring a downlink control signal; determining a first set of possible downlink control indicator, DCI, formats that are compatible with the first bandwidth; receiving a first transmission from a network node using the first bandwidth; blindly decoding control information in the first transmission by using at least one DCI format of the first set of DCI formats; and when successful decoding of the control information, checking whether bandwidth to be monitored is indicated by the control information in the first transmission to be changed to a second bandwidth, and when bandwidth is indicated to be changed: determining the second bandwidth for downlink control signal monitoring, determining a second set of possible downlink control indicator, DCI, formats that are compatible with the second bandwidth, receiving a second transmission from the network node using the second bandwidth, and blindly decoding control information in the second transmission by using at least one DCI format of the second set of DCI formats.