mhurhangee/patent-ind-claim-en huggingface dataset:
A method for communicating sounding reference signals, SRSs, in a cellular time division duplex, TDD, millimeter wave, mmWave, system, the method comprising: receiving , by a user equipment, UE , a cell-specific SRS configuration message indicating resources allocated to the UE for uplink SRS; selecting , by the UE , from all beam directions , available to the UE , a subset of beam directions for uplink SRS transmission based on the received cell-specific SRS configuration message and UE's knowledge of best UE beams for DL transmission; sending , by the UE, an UE generated SRS configuration message to the base station, wherein the UE generated SRS configuration message comprises a time/frequency flag indicating whether or not SRS transmissions from different radio frequency, RF, chains of the UE are going to be multiplexed in the time-domain or the frequency domain; transmitting , by the UE , the uplink SRS signals to the base station according to beam directions (221a-221f, 311a-311i) in the subset of beam directions selected for uplink SRS transmission ; receiving , by the UE, configuration information of a transmission format sent by the base station; preparing , by the UE, receive beam directions to receive downlink data, and receiving , by the UE, downlink data from the base station using the selected subset of beam directions. receiving , by a user equipment, UE , a cell-specific SRS configuration message indicating resources allocated to the UE for uplink SRS; selecting , by the UE , from all beam directions , available to the UE , a subset of beam directions for uplink SRS transmission based on the received cell-specific SRS configuration message and UE's knowledge of best UE beams for DL transmission; sending , by the UE, an UE generated SRS configuration message to the base station, wherein the UE generated SRS configuration message comprises a time/frequency flag indicating whether or not SRS transmissions from different radio frequency, RF, chains of the UE are going to be multiplexed in the time-domain or the frequency domain; transmitting , by the UE , the uplink SRS signals to the base station according to beam directions (221a-221f, 311a-311i) in the subset of beam directions selected for uplink SRS transmission ; receiving , by the UE, configuration information of a transmission format sent by the base station; preparing , by the UE, receive beam directions to receive downlink data, and receiving , by the UE, downlink data from the base station using the selected subset of beam directions.
A method of driving an actuator, the actuator comprising an electroactive polymer structure for adopting at least a first actuation state and a second actuation state different from the first actuation state, the first actuation state having a first voltage associated with it and the second actuation state having a second voltage associated with it; the method comprising: - applying a drive signal having a drive signal voltage to the electroactive polymer structure for switching it from the first actuation state to the second actuation state, wherein the drive signal comprises: - an overdrive period in which the drive signal voltage is changed from the first voltage to an overdrive voltage by an amount that exceeds the difference between the second voltage and the first voltage; and - after the overdrive period, a holding period at least at the beginning of which the drive signal voltage is at the second voltage. - applying a drive signal having a drive signal voltage to the electroactive polymer structure for switching it from the first actuation state to the second actuation state, wherein the drive signal comprises: - an overdrive period in which the drive signal voltage is changed from the first voltage to an overdrive voltage by an amount that exceeds the difference between the second voltage and the first voltage; and - after the overdrive period, a holding period at least at the beginning of which the drive signal voltage is at the second voltage.
A vibrating flow meter , comprising: a flow conduit including a first end portion and a second end portion ; a case surrounding at least a portion of the flow conduit ; a first case connect including: a first portion coupled to the first end portion of the flow conduit ; and characterized by : one or more deformable members extending radially from the first portion and coupled to the case such that the one or more deformable members limit motion of the flow conduit in a direction parallel to a plane of the deformable members and in a direction parallel to an axis of rotation (X) of the flow conduit but allow the flow conduit to rotate about the axis of rotation (X). a flow conduit including a first end portion and a second end portion ; a case surrounding at least a portion of the flow conduit ; a first case connect including: a first portion coupled to the first end portion of the flow conduit ; and characterized by : one or more deformable members extending radially from the first portion and coupled to the case such that the one or more deformable members limit motion of the flow conduit in a direction parallel to a plane of the deformable members and in a direction parallel to an axis of rotation (X) of the flow conduit but allow the flow conduit to rotate about the axis of rotation (X). a first portion coupled to the first end portion of the flow conduit ; and characterized by : one or more deformable members extending radially from the first portion and coupled to the case such that the one or more deformable members limit motion of the flow conduit in a direction parallel to a plane of the deformable members and in a direction parallel to an axis of rotation (X) of the flow conduit but allow the flow conduit to rotate about the axis of rotation (X).
A transport device for transporting tubular pieces , comprising at least one upper and one lower transport means for guiding the tubular pieces , upper and lower pressure exerting units for exerting a contact pressure on the transport means , at least one upper and one lower drive unit for driving the transport means in a transport direction (z) at a substantially constant speed, wherein the transport means are arranged at least partially between the upper and lower pressure-exerting units , characterized in that the drive units are electrically controllable and are arranged inside the device in such a way that speed differences between the two transport means can be automatically compensated.
A filter cleaning system , comprising: a compressed air supply; at least one pulse nozzle operatively attached to the compressed air supply; a rotating plate assembly , wherein the compressed air supply and the at least one pulse nozzles are mounted to the rotating plate assembly ; and wherein the rotating plate assembly is designed to rotate during a cleaning cycle characterized in that the filter cleaning system is placed in a central cavity of a cylindrical filter element placed around the filter cleaning system; that the at least one pulse nozzle is arranged in a first semicircle of the cross-section of the filter element, and a target cleaning area of the filter element is in a second, opposite, semicircle of the cross-section of the filter element. a compressed air supply; at least one pulse nozzle operatively attached to the compressed air supply; a rotating plate assembly , wherein the compressed air supply and the at least one pulse nozzles are mounted to the rotating plate assembly ; and wherein the rotating plate assembly is designed to rotate during a cleaning cycle
Apparatus for automatically recovering meat from headed and gutted fish , comprising a transport device for transporting the fish along a transport path in transport direction T, a measuring device for detecting the anatomy of the fish , and a detaching device for detaching the meat from the bone structure , wherein the detaching device comprises at least two rotatingly driven and controllably moveable circular knives which are spaced apart from each other on mutually opposing sides of the transport path to form a gap S, wherein the detaching device comprises a control device , which is set up to adjust the width of the gap S depending on the fish anatomy detected by the measuring device , in particular the height, length and/or width of the fish , wherein the control device is configured to pre-adjust the width of the gap S before the meat is detached from the bone structure and wherein the control device is configured to vary the width of the gap S while the meat is being detached from the bone structure , characterised in that the control device comprises a cam control , wherein the cam control comprises a cam disc driven by means of a control drive unit for changing the position of the circular knives , the apparatus further comprising a control unit, electrically connected to the measuring device and the control device , which is configured and adapted to detect and/or process the fish anatomy data detected by the measuring device , in particular the height, length and/or width of the fish , and to actuate the control drive unit for adjusting the gap S according to the respective fish anatomy, in particular the height, length and/or width of the fish , in that the control unit actuates the control drive unit in such a manner as to adjust the circulation of the cam disc in a predetermined angular velocity profile.
A thin film transistor comprising: an active layer including a channel portion , a first connection portion and a second connection portion contacting opposite sides of the channel portion ; and a gate electrode overlapping the channel portion of the active layer , wherein the active layer includes: a first active layer ; a second active layer on the first active layer in the first connection portion and the second connection portion of the active layer ; and a third active layer contacting the first active layer in the channel portion and contacting the second active layer in the first connection portion and the second connection portion . an active layer including a channel portion , a first connection portion and a second connection portion contacting opposite sides of the channel portion ; and a gate electrode overlapping the channel portion of the active layer , wherein the active layer includes: a first active layer ; a second active layer on the first active layer in the first connection portion and the second connection portion of the active layer ; and a third active layer contacting the first active layer in the channel portion and contacting the second active layer in the first connection portion and the second connection portion . a first active layer ; a second active layer on the first active layer in the first connection portion and the second connection portion of the active layer ; and a third active layer contacting the first active layer in the channel portion and contacting the second active layer in the first connection portion and the second connection portion .
A coating for a medical device comprising: a first layer comprising polyvinylpyrrolidone derivatized with a photoreactive group; and a first cross-linking agent comprising at least two photoreactive groups, wherein the first cross-linking agent is ionic ; a second layer disposed on the first layer comprising polyvinylpyrrolidone derivatized with a photoreactive group; a second cross-linking agent comprising at least two photoreactive groups, wherein the second cross-linking agent is ionic; and a polymer comprising polyacrylamide, the polymer derivatized with at least one photoreactive group, wherein the thickness of the first layer and second layer combined is between 100 and 3000 nm when dry, preferably wherein the thickness of the first layer and second layer combined is 2000 nm when dry. a first layer comprising polyvinylpyrrolidone derivatized with a photoreactive group; and a first cross-linking agent comprising at least two photoreactive groups, wherein the first cross-linking agent is ionic ; a second layer disposed on the first layer comprising polyvinylpyrrolidone derivatized with a photoreactive group; a second cross-linking agent comprising at least two photoreactive groups, wherein the second cross-linking agent is ionic; and a polymer comprising polyacrylamide, the polymer derivatized with at least one photoreactive group, wherein the thickness of the first layer and second layer combined is between 100 and 3000 nm when dry, preferably wherein the thickness of the first layer and second layer combined is 2000 nm when dry.
Method for operating a heat pump in a motor vehicle, in particular hybrid or electric vehicle, wherein the heat pump has a refrigeration circuit with at least - a refrigerant compressor for compressing a refrigerant to a high pressure p HD , wherein the high pressure p HD results from ambient conditions and a vehicle state, - a heating heat exchanger for transferring heat energy from the refrigerant to an air mass flow for a vehicle interior compartment in order to provide a setpoint heat flow, - an expansion element, and - an evaporator, wherein the following steps are carried out: (a) determining, from the ambient conditions and the vehicle state, a potential or actual reduction of the high pressure p HD which leads to the setpoint heat flow not being achieved, and (b) increasing the high pressure p HD by way of a reduced flow cross section and the expansion element, such that the setpoint heat flow is achieved, characterized in that the method is carried out if a vehicle standstill is to be expected from the vehicle state, wherein, as a relevant measurement variable of the vehicle state, a profile with respect to time of a deceleration of the vehicle speed is taken into consideration, and/or a profile with respect to time of the actuation of an accelerator pedal and/or brake pedal is taken into consideration. - a refrigerant compressor for compressing a refrigerant to a high pressure p HD , wherein the high pressure p HD results from ambient conditions and a vehicle state, - a heating heat exchanger for transferring heat energy from the refrigerant to an air mass flow for a vehicle interior compartment in order to provide a setpoint heat flow, - an expansion element, and - an evaporator, (a) determining, from the ambient conditions and the vehicle state, a potential or actual reduction of the high pressure p HD which leads to the setpoint heat flow not being achieved, and (b) increasing the high pressure p HD by way of a reduced flow cross section and the expansion element, such that the setpoint heat flow is achieved,
A method for forming a radiation-hardened chip package for a circuit chip , comprising: providing a circuit chip ; coating the circuit chip with an alpha particle shielding material ; coating the alpha particle shielding material with a high energy particle shielding composite material , the high energy particle shielding composite material being a gadolinium/polyimide composite with 5 wt% Gd; coating the high energy particle shielding composite material with a high energy electromagnetic, EM, wave shielding composite material , wherein the high energy EM wave shielding composite material includes a rare earth element, wherein a coated circuit chip is formed; and encapsulating the coated circuit chip , the alpha particle shielding material , the high energy particle shielding composite material and the high energy EM wave shielding composite material with a molding compound . providing a circuit chip ; coating the circuit chip with an alpha particle shielding material ; coating the alpha particle shielding material with a high energy particle shielding composite material , the high energy particle shielding composite material being a gadolinium/polyimide composite with 5 wt% Gd; coating the high energy particle shielding composite material with a high energy electromagnetic, EM, wave shielding composite material , wherein the high energy EM wave shielding composite material includes a rare earth element, wherein a coated circuit chip is formed; and encapsulating the coated circuit chip , the alpha particle shielding material , the high energy particle shielding composite material and the high energy EM wave shielding composite material with a molding compound .
A process for preparing ( S )-2,2,4-trimethylpyrrolidine or a salt thereof comprising: (a) reacting 2,2,6,6-tetramethyl-piperidin-4-one or a salt thereof with chloroform and at least one base; (b) reacting the products of the reaction in (a) with an acid to produce 5,5-dimethyl-3-methylenepyrrolidin-2-one; (c) hydrogenating 5,5-dimethyl-3-methylenepyrrolidin-2-one to produce ( S )-3,5,5-trimethyl-pyrrolidin-2-one; (d) reducing ( S )-3,5,5-trimethyl-pyrrolidin-2-one to produce ( S )-2,2,4-trimethylpyrrolidine; and (e) optionally treating ( S )-2,2,4-trimethylpyrrolidine with acid to produce a salt of ( S )-2,2,4-trimethylpyrrolidine. (a) reacting 2,2,6,6-tetramethyl-piperidin-4-one or a salt thereof with chloroform and at least one base; (b) reacting the products of the reaction in (a) with an acid to produce 5,5-dimethyl-3-methylenepyrrolidin-2-one; (c) hydrogenating 5,5-dimethyl-3-methylenepyrrolidin-2-one to produce ( S )-3,5,5-trimethyl-pyrrolidin-2-one; (d) reducing ( S )-3,5,5-trimethyl-pyrrolidin-2-one to produce ( S )-2,2,4-trimethylpyrrolidine; and (e) optionally treating ( S )-2,2,4-trimethylpyrrolidine with acid to produce a salt of ( S )-2,2,4-trimethylpyrrolidine.
A data transmission method performed by a second user equipment, the method comprising: • receiving first data sent by a first user equipment by using a first radio bearer between the first user equipment and the second user equipment (S302, S702), • determining whether the first data carry terminal identifier information of the first user equipment, wherein the terminal identifier information is a layer 2 identifier of the first user equipment, the layer 2 identifier is used to instruct an access network to identify the first user equipment, and the terminal identifier information comprises a cell radio network temporary identifier, an Internet Protocol address, a temporary identity code, or an international mobile subscriber identity (S303, S704), • if the first data carry the terminal identifier information, sending the first data to a network side device by using a second radio bearer, wherein a third radio bearer is present between the network side device and the first user equipment (S304, S707), • if the first data do not carry the terminal identifier information, processing the first data. • receiving first data sent by a first user equipment by using a first radio bearer between the first user equipment and the second user equipment (S302, S702), • determining whether the first data carry terminal identifier information of the first user equipment, wherein the terminal identifier information is a layer 2 identifier of the first user equipment, the layer 2 identifier is used to instruct an access network to identify the first user equipment, and the terminal identifier information comprises a cell radio network temporary identifier, an Internet Protocol address, a temporary identity code, or an international mobile subscriber identity (S303, S704), • if the first data carry the terminal identifier information, sending the first data to a network side device by using a second radio bearer, wherein a third radio bearer is present between the network side device and the first user equipment (S304, S707), • if the first data do not carry the terminal identifier information, processing the first data.
A load carrier for a forklift truck , comprising a front part , a rear part and a tilt device , wherein the front part is adapted to carry at least one fork and the rear part is adapted to be movably arranged on a mast of a forklift truck , wherein the front part is movably attached to the rear part , such that the front part can pivot in relation to the rear part around a pivot axis (A), and wherein the tilt device comprises a movable component arranged for pivoting the front part , wherein the tilt device further comprises at least one contact member arranged on the movable component , characterized in that the at least one contact member is movably mounted in relation to the movable component and wherein the at least one contact member comprises a flat contact surface .
An apparatus for facilitating the treatment of parasites on fish, comprising; a conduit having first and second open ends and an internal passage to accommodate a fish passing from the first end to the second end through the internal passage; a light source adapted to illuminate a section of the internal passage radially inwardly from substantially all sides simultaneously, such that a fish moving through said section is illuminated from substantially all sides when the light source is activated; a detecting means for detecting a fish moving through the conduit, characterised in that the light source remains activated while the detecting means continues to detect a fish and is deactivated once the detecting means no longer detects a fish; and in that a control means is configured to activate the light source in response to the detection of a fish by the detection means, the control means comprising a switch which immediately triggers the activation of the light source upon detection of a fish, the detecting means being positioned relative to the light source, and the control means being configured to activate the light source, only when the eyes of the fish are beyond the section illuminated by the light source; further characterised in that the light source is operable to illuminate a fish within said section with light having a wavelength suitable to kill or immobilise a proportion of parasites without causing substantial damage to the fish, and said wavelength is in the range of 300-500 nm or in the range of 800-1200nm. a conduit having first and second open ends and an internal passage to accommodate a fish passing from the first end to the second end through the internal passage; a light source adapted to illuminate a section of the internal passage radially inwardly from substantially all sides simultaneously, such that a fish moving through said section is illuminated from substantially all sides when the light source is activated; a detecting means for detecting a fish moving through the conduit, characterised in that the light source remains activated while the detecting means continues to detect a fish and is deactivated once the detecting means no longer detects a fish; and in that a control means is configured to activate the light source in response to the detection of a fish by the detection means, the control means comprising a switch which immediately triggers the activation of the light source upon detection of a fish, the detecting means being positioned relative to the light source, and the control means being configured to activate the light source, only when the eyes of the fish are beyond the section illuminated by the light source; further characterised in that the light source is operable to illuminate a fish within said section with light having a wavelength suitable to kill or immobilise a proportion of parasites without causing substantial damage to the fish, and said wavelength is in the range of 300-500 nm or in the range of 800-1200nm.