mhurhangee/ep-ind-claims huggingface dataset:
Vehicle steering system comprising: - at least one servomotor, - a steering handle, by means of which a desired driver steering angle can be specified by the driver; - a control device which has a driver assistance function by means of which an assistance steering angle for controlling the servomotor can be specified independently of the driver; and which has at least one further function by means of which a restoring torque can be specified, in accordance with an obtained angle difference, for reducing the angle difference; wherein the further function is a reset function which is designed to return the steering handle to a predetermined neutral position in the absence of manual torque; wherein, when the driver specifies a driver steering angle when the driver assistance function is active, a restoring torque can be specified on the basis of an angle difference between the driver steering angle and the assistance steering angle by means of the further function; wherein control of the servomotor can be at least temporarily interrupted on the basis of the assistance steering angle. - at least one servomotor, - a steering handle, by means of which a desired driver steering angle can be specified by the driver; - a control device which has a driver assistance function by means of which an assistance steering angle for controlling the servomotor can be specified independently of the driver; and which has at least one further function by means of which a restoring torque can be specified, in accordance with an obtained angle difference, for reducing the angle difference; wherein the further function is a reset function which is designed to return the steering handle to a predetermined neutral position in the absence of manual torque; wherein, when the driver specifies a driver steering angle when the driver assistance function is active, a restoring torque can be specified on the basis of an angle difference between the driver steering angle and the assistance steering angle by means of the further function; wherein control of the servomotor can be at least temporarily interrupted on the basis of the assistance steering angle. wherein the further function is a reset function which is designed to return the steering handle to a predetermined neutral position in the absence of manual torque; wherein, when the driver specifies a driver steering angle when the driver assistance function is active, a restoring torque can be specified on the basis of an angle difference between the driver steering angle and the assistance steering angle by means of the further function; wherein control of the servomotor can be at least temporarily interrupted on the basis of the assistance steering angle.
A nasal implant comprising: a body comprising a distal end (36, 70); a proximal end (34, 72); a central portion disposed between the proximal end (34, 72) and the distal end (36, 70); a first arm (40, 76a) disposed at the distal end (36, 70), the arm (40, 76a) having a proximal end fixed to the body and a distal end not fixed to the body, the distal end of the arm (40, 76a) being adapted to move away from a central longitudinal axis of the body from a delivery configuration toward a deployed configuration; a second arm (42, 76b) disposed at the distal end (36, 70), the second arm (42, 76b) having a proximal end fixed to the body and a distal end not fixed to the body, the distal end of the second arm (42, 76b) being adapted to move away from a central longitudinal axis of the body from a delivery configuration toward a deployed configuration; and wherein the body defines an inner degradable portion formed from a degradable material, and characterized in that the body further defines an outer coating (500, 520) on an outer surface of the inner degradable portion, wherein the outer coating (500, 520) comprises a hydrophobic material; and an agent disposed between the inner degradable portion and the outer coating (500, 520). a body comprising a distal end (36, 70); a proximal end (34, 72); a central portion disposed between the proximal end (34, 72) and the distal end (36, 70); a distal end (36, 70); a proximal end (34, 72); a central portion disposed between the proximal end (34, 72) and the distal end (36, 70); a first arm (40, 76a) disposed at the distal end (36, 70), the arm (40, 76a) having a proximal end fixed to the body and a distal end not fixed to the body, the distal end of the arm (40, 76a) being adapted to move away from a central longitudinal axis of the body from a delivery configuration toward a deployed configuration; a second arm (42, 76b) disposed at the distal end (36, 70), the second arm (42, 76b) having a proximal end fixed to the body and a distal end not fixed to the body, the distal end of the second arm (42, 76b) being adapted to move away from a central longitudinal axis of the body from a delivery configuration toward a deployed configuration; and wherein the body defines an inner degradable portion formed from a degradable material, and characterized in that the body further defines an outer coating (500, 520) on an outer surface of the inner degradable portion, wherein the outer coating (500, 520) comprises a hydrophobic material; and an agent disposed between the inner degradable portion and the outer coating (500, 520).
A system for analysing body composition of a patient comprising: - a transmitter arranged to generate and transmit a signal through a medium (14; 20), the signal comprising a plurality of different frequency components and the medium constituting at least part of the body of the patient; - a receiver arranged to receive the signal following propagation through the medium (14; 20), and - a processor connected to the receiver and arranged to generate transfer functions from the signal received at a first time, each transfer function defining values at different frequencies for a predetermined signal parameter, said predetermined signal parameter depending on the body composition of the patient; to generate further transfer functions from the signal received at a second time, to compare one of the transfer functions with the further transfer function for the same signal parameter, and to generate an output if the difference between the compared transfer function and further transfer function exceeds a preset threshold, characterized in that the transmitter is arranged to generate the signal using multiple different transmission technologies selected from bio-impedance, body-coupled communication and body-sound communication and the processor is adapted to generate transfer functions (22,22') for the different technologies. - a transmitter arranged to generate and transmit a signal through a medium (14; 20), the signal comprising a plurality of different frequency components and the medium constituting at least part of the body of the patient; - a receiver arranged to receive the signal following propagation through the medium (14; 20), and - a processor connected to the receiver and arranged to generate transfer functions from the signal received at a first time, each transfer function defining values at different frequencies for a predetermined signal parameter, said predetermined signal parameter depending on the body composition of the patient; to generate further transfer functions from the signal received at a second time, to compare one of the transfer functions with the further transfer function for the same signal parameter, and to generate an output if the difference between the compared transfer function and further transfer function exceeds a preset threshold, characterized in that the transmitter is arranged to generate the signal using multiple different transmission technologies selected from bio-impedance, body-coupled communication and body-sound communication and the processor is adapted to generate transfer functions (22,22') for the different technologies.
A device for digitizing a femoral neck axis of with respect to a pelvic frame of reference in computer-assisted surgery, comprising: a trackable member trackable for position and orientation by a computer-assisted surgery system; a body connected to the trackable member, the body having an interface portion adapted to be releasably coupled to a neck of one of an implanted femoral implant and a provisional in a known relation, and a bone interface portion adapted to be positioned against a pelvis such that the body of the device interrelates the implanted femoral implant or provisional to the pelvis, the neck axis of the femoral implant or provisional being calculable thereat with respect to the pelvic frame of reference as a function of the known relation and of the position and orientation of the trackable member; characterized in that the bone interface is shaped as a ball head that is shaped and selected as a function of the dimension of the acetabulum. a trackable member trackable for position and orientation by a computer-assisted surgery system; a body connected to the trackable member, the body having an interface portion adapted to be releasably coupled to a neck of one of an implanted femoral implant and a provisional in a known relation, and a bone interface portion adapted to be positioned against a pelvis such that the body of the device interrelates the implanted femoral implant or provisional to the pelvis, the neck axis of the femoral implant or provisional being calculable thereat with respect to the pelvic frame of reference as a function of the known relation and of the position and orientation of the trackable member; characterized in that the bone interface is shaped as a ball head that is shaped and selected as a function of the dimension of the acetabulum.
A method, comprising: identifying a resource-intensive task to be executed using a wireless transport; determining (802,806) whether one or more wireless links operating within same channel bandwidth as the wireless transport already exist that will interfere with, or share resources with, the wireless transport; determining a priority level between the resource-intensive task and priorities set for the one or more existing wireless links; wherein if the priority level set for any of the one or more existing wireless links is lower than the priority level of the resource-intensive task, adjusting at least one link parameter of the one or more existing wireless links with lower priority level to reconfigure said one or more existing wireless links to free up resources to the wireless transport for conducting the resource-intensive task, characterized in that the adjusting of the at least one link parameter includes increasing associated link timeout period by at least temporarily lengthening value of a connection timeout parameter of the associated link to avoid link disconnection while the associated link remains idle for longer period than in normal operation. identifying a resource-intensive task to be executed using a wireless transport; determining (802,806) whether one or more wireless links operating within same channel bandwidth as the wireless transport already exist that will interfere with, or share resources with, the wireless transport; determining a priority level between the resource-intensive task and priorities set for the one or more existing wireless links; wherein if the priority level set for any of the one or more existing wireless links is lower than the priority level of the resource-intensive task, adjusting at least one link parameter of the one or more existing wireless links with lower priority level to reconfigure said one or more existing wireless links to free up resources to the wireless transport for conducting the resource-intensive task,
An organic semiconductor film forming composition comprising at least: a first organic semiconductor compound which includes a mother nucleus that has two or more thiophene rings and is formed of a fused ring structure having at least four or more rings including the thiophene rings, and a substituent X bonded to the mother nucleus in a molecule; a second organic semiconductor compound which includes the same mother nucleus as the mother nucleus of the first organic semiconductor compound and satisfies any one requirement selected from the group consisting of the following requirements 1 to 3; and an organic solvent, Requirement 1: The second organic semiconductor compound includes a substituent Y which is bonded to the mother nucleus in the second organic semiconductor compound and different from the substituent X in the first organic semiconductor compound, Requirement 2: The second organic semiconductor compound includes the substituent X bonded to the mother nucleus, and a binding position of the substituent X with respect to the mother nucleus in the first organic semiconductor compound is different from a binding position of the substituent X with respect to the mother nucleus in the second organic semiconductor compound, and Requirement 3: The second organic semiconductor compound does not include a substituent, wherein the mother nucleus includes at least three or more thiophene rings, wherein the substituent X and the substituent Y are substituents each including an alkyl group having 1 to 16 carbon atoms, and characterized in that a ratio of the mass of the first organic semiconductor compound to the mass of the second organic semiconductor compound is in a range of 0.3 to 3.0, and the ratio indicates the mass of the first organic semiconductor compound to the mass of the second organic semiconductor compound in the film forming composition. Requirement 1: The second organic semiconductor compound includes a substituent Y which is bonded to the mother nucleus in the second organic semiconductor compound and different from the substituent X in the first organic semiconductor compound, Requirement 2: The second organic semiconductor compound includes the substituent X bonded to the mother nucleus, and a binding position of the substituent X with respect to the mother nucleus in the first organic semiconductor compound is different from a binding position of the substituent X with respect to the mother nucleus in the second organic semiconductor compound, and Requirement 3: The second organic semiconductor compound does not include a substituent,
Dosing device for providing a cleaning or disinfection solution, in particular for use in building technology, comprising at least one inlet for connecting to a container, in which a medium to be dosed is arranged, and at least one outlet for a target vessel, further comprising at least one pump that can be accessed by a control device, wherein an operating device for the initiation of a dosing process by an operator is arranged on the dosing device, characterised in that a device (36, 36a, 36b) for carrying out sign-in and sign-out by operators and/or service personnel is assigned to the dosing device.
A chip, wherein the chip has a first flange and a first plate surface configured to be in contact with a cooled medium, the first flange is formed on the first plate surface and extends in a first direction; at least one protrusion part and a cooled medium flow channel are formed on the first plate surface, the at least one protrusion part is located between the first flange and the cooled medium flow channel in a second direction, at least one blocking part configured to block the cooled medium is formed between the first flange and the at least one protrusion part; and the first direction is an extension direction of the cooled medium flow channel, and the second direction is parallel to the first plate surface and is perpendicular to the first direction; characterized in that, wherein the at least one blocking part has one end connected to the first flange, and the other end connected to the at least one protrusion part, in the second direction. at least one protrusion part and a cooled medium flow channel are formed on the first plate surface, the at least one protrusion part is located between the first flange and the cooled medium flow channel in a second direction, at least one blocking part configured to block the cooled medium is formed between the first flange and the at least one protrusion part; and the first direction is an extension direction of the cooled medium flow channel, and the second direction is parallel to the first plate surface and is perpendicular to the first direction; characterized in that, wherein the at least one blocking part has one end connected to the first flange, and the other end connected to the at least one protrusion part, in the second direction.
Method for heating and/or air conditioning a motor vehicle interior using a reversible refrigeration loop, in which a heat-transfer composition circulates, comprising a first heat exchanger, a pressure reducer, a second heat exchanger, a compressor and means for reversing the operation of the reversible refrigeration loop, wherein the heat-transfer composition comprises: - a refrigerant fluid comprising 2,3,3,3-tetrafluoropropene, and - a lubricant wherein the lubricant comprises a polyol ester, the solubility of the 2,3,3,3-tetrafluoropropene in the lubricant at 0°C and at an absolute pressure of 2.2 bar being lower than the solubility of the 1,1,1,2-tetrafluoroethane in the lubricant at 0°C and at an absolute pressure of 2.0 bar. - a refrigerant fluid comprising 2,3,3,3-tetrafluoropropene, and - a lubricant
A volumetric metering system comprising: a housing configured to be coupled to a commodity container, the housing having a transducer portion 306); a roller removably coupled within the housing, the roller having an encoding tab with at least one circuit, wherein the encoding tab is positioned to allow interaction between the circuit and the transducer portion when the roller is installed in the housing; and a controller operably coupled to the transducer portion and configured to cause the transducer portion to interact with the circuit and identify the roller based on the interaction, the controller being configured to automatically set roller information based on automatic identification of the roller; wherein the encoding tab has a plurality of contact points and an electronic component electrically coupled between the plurality of contact points, the electronic component having a value that encodes roller type or at least one circuit trace disposed between the plurality of contact points. a housing configured to be coupled to a commodity container, the housing having a transducer portion 306); a roller removably coupled within the housing, the roller having an encoding tab with at least one circuit, wherein the encoding tab is positioned to allow interaction between the circuit and the transducer portion when the roller is installed in the housing; and a controller operably coupled to the transducer portion and configured to cause the transducer portion to interact with the circuit and identify the roller based on the interaction, the controller being configured to automatically set roller information based on automatic identification of the roller; wherein the encoding tab has a plurality of contact points and an electronic component electrically coupled between the plurality of contact points, the electronic component having a value that encodes roller type or at least one circuit trace disposed between the plurality of contact points.
A method for dynamically partitioning preprocessing functionality between a remote sensor node (108, 110, 112, 114, 200, 300, 700) and a processing subsystem (104, 202, 302), the processing subsystem being configured to receive and process a sensor data stream from the remote sensor node and the sensor node being configured to provide sensor data through one or more preprocessor blocks of a plurality of preprocessor blocks included in the sensor node, each preprocessor block implementing a specific preprocessing operation, wherein the plurality of preprocessor blocks includes at least one preprocessor block that corresponds to a preprocessor block in the processing subsystem, the method comprising: detecting communication capabilities of a communications channel (106, 208, 308) between the remote sensor node and the processing subsystem, the communications channel carrying the sensor data stream; and adjusting allocation of functionality between the remote sensor node and the processing subsystem based on the detected communication capabilities, wherein adjusting the allocation of functionality comprises enabling the at least one preprocessor block of the remote sensor node and disabling the corresponding preprocessor block of the processing subsystem or disabling the at least one preprocessor block of the remote sensor node and enabling the corresponding preprocessor block of the processing subsystem, thereby changing characteristics of data communicated in the sensor data stream. detecting communication capabilities of a communications channel (106, 208, 308) between the remote sensor node and the processing subsystem, the communications channel carrying the sensor data stream; and adjusting allocation of functionality between the remote sensor node and the processing subsystem based on the detected communication capabilities, wherein adjusting the allocation of functionality comprises enabling the at least one preprocessor block of the remote sensor node and disabling the corresponding preprocessor block of the processing subsystem or disabling the at least one preprocessor block of the remote sensor node and enabling the corresponding preprocessor block of the processing subsystem, thereby changing characteristics of data communicated in the sensor data stream.
A data transmission method, wherein the method comprises: determining, by a first terminal, a frame structure in a time unit, wherein the frame structure indicates that N type-1 orthogonal frequency division multiplexing, OFDM, symbols and a guard period, GP, are comprised in the time unit, wherein the GP in the frame structure is behind the type-1 OFDM symbols, a subcarrier spacing of each type-1 OFDM symbol is Δf1, a time length of the GP is greater than or equal to a time length occupied by one type-2 OFDM symbol for Sounding Reference Signal, SRS, transmission, a subcarrier spacing of the type-2 OFDM symbol is Δf2, Δf1 is unequal to Δf2, the type-2 OFDM symbol is the last symbol of a subframe for legacy Long Term Evolution, LTE, and N is a positive integer; N is a maximum quantity of carried type-1 OFDM symbols in the time unit after the time length occupied by the type-2 OFDM symbol is subtracted, the first terminal is narrowband Internet of Things, NB-IOT, terminal; and the type-2 OFDM symbol is from a terminal of LTE; Δf1=3.75kHz, Δf2=15kHz; and sending, by the first terminal, the type-1 OFDM symbols according to the frame structure. determining, by a first terminal, a frame structure in a time unit, wherein the frame structure indicates that N type-1 orthogonal frequency division multiplexing, OFDM, symbols and a guard period, GP, are comprised in the time unit, wherein the GP in the frame structure is behind the type-1 OFDM symbols, a subcarrier spacing of each type-1 OFDM symbol is Δf1, a time length of the GP is greater than or equal to a time length occupied by one type-2 OFDM symbol for Sounding Reference Signal, SRS, transmission, a subcarrier spacing of the type-2 OFDM symbol is Δf2, Δf1 is unequal to Δf2, the type-2 OFDM symbol is the last symbol of a subframe for legacy Long Term Evolution, LTE, and N is a positive integer; N is a maximum quantity of carried type-1 OFDM symbols in the time unit after the time length occupied by the type-2 OFDM symbol is subtracted, the first terminal is narrowband Internet of Things, NB-IOT, terminal; and the type-2 OFDM symbol is from a terminal of LTE; Δf1=3.75kHz, Δf2=15kHz; and sending, by the first terminal, the type-1 OFDM symbols according to the frame structure.