mhurhangee/patent-ind-claim-en huggingface dataset:
A device for identifying a use of an item of clothing by a user, having a lining for arranging on an inner side of said item of clothing, facing the user, and for absorbing human exudate, a. the lining comprises indicator means, b. wherein the indicator means have at least one indicator compound, c. which, as a consequence of its reaction with substances which are characteristic of human secretions, displays a colour change, d the lining is configured as a textile flat structure and/or paper flat structure, characterised in that e. an upper region of the lining has sections which contain textile flat structures of differing composition and at least one indicator compound, f. a first section of the upper region of the lining comprises a non-woven fabric with twisted filaments, g. at least a second section comprises a non-woven fabric, with twisted and smooth filaments, as a textile flat structure. a. the lining comprises indicator means, b. wherein the indicator means have at least one indicator compound, c. which, as a consequence of its reaction with substances which are characteristic of human secretions, displays a colour change, d the lining is configured as a textile flat structure and/or paper flat structure, characterised in that e. an upper region of the lining has sections which contain textile flat structures of differing composition and at least one indicator compound, f. a first section of the upper region of the lining comprises a non-woven fabric with twisted filaments, g. at least a second section comprises a non-woven fabric, with twisted and smooth filaments, as a textile flat structure.
A meander-type, azimuth frequency-scanned antenna with reduced elevation beam squint suitable for use on an automated vehicle radar system, said antenna comprising: a plurality of linear parallel sub-arrays formed by a serpentine-arrangement of a continuous-strip of material, wherein a first sub-array , configured to support signal propagation in a first-direction , is adjacent to a second sub-array , wherein the second sub-array is configured to support signal propagation in a second-direction , opposite to the first-direction , wherein the first sub-array and the second sub-array each further comprise a plurality of radiators configured such that a radar-beam emitted by the antenna in response to the signal has an elevation-angle that is substantially unchanged when a frequency of the signal is varied, wherein the radiators are slot-radiators , wherein the slot-radiators have a respective slot-angle measured with respect to an axis of the serpentine-arrangement , characterized in that each instance of a slot-radiator in the first sub-array corresponds to an instance of a slot-radiator in the second sub-array that is adjacent to an instance of a slot-radiator in the first sub-array, and the slot-angles of corresponding instances of slot-radiators vary monotonically across the plurality of sub-arrays. a plurality of linear parallel sub-arrays formed by a serpentine-arrangement of a continuous-strip of material, wherein a first sub-array , configured to support signal propagation in a first-direction , is adjacent to a second sub-array , wherein the second sub-array is configured to support signal propagation in a second-direction , opposite to the first-direction , wherein the first sub-array and the second sub-array each further comprise a plurality of radiators configured such that a radar-beam emitted by the antenna in response to the signal has an elevation-angle that is substantially unchanged when a frequency of the signal is varied, wherein the radiators are slot-radiators , wherein the slot-radiators have a respective slot-angle measured with respect to an axis of the serpentine-arrangement , characterized in that each instance of a slot-radiator in the first sub-array corresponds to an instance of a slot-radiator in the second sub-array that is adjacent to an instance of a slot-radiator in the first sub-array, and the slot-angles of corresponding instances of slot-radiators vary monotonically across the plurality of sub-arrays.
A handover processing method, performed by a terminal device, the method comprising: receiving a handover command, wherein the handover command comprising configuration information, and the configuration information comprising a signaling radio bearer, SRB, release condition and a data radio bearer, DRB, release condition configured for the terminal device, the SRB release condition comprising: in response to a handover being completed, releasing a SRB between the terminal device and a source network device, and the DRB release condition comprising: in response to the handover command being received, releasing a DRB between the terminal device and the source network device; establishing, in response to the receipt of the handover command, a SRB between the terminal device and a target network device and a DRB between the terminal device and the target network device, releasing the DRB between the UE and the source network device according to the DRB release condition, and retaining the SRB between the terminal device and the source network device; performing , based on the handover command, the handover; and releasing, according to the SRB release condition, the SRB between the terminal device and the source network device after the handover is completed. receiving a handover command, wherein the handover command comprising configuration information, and the configuration information comprising a signaling radio bearer, SRB, release condition and a data radio bearer, DRB, release condition configured for the terminal device, the SRB release condition comprising: in response to a handover being completed, releasing a SRB between the terminal device and a source network device, and the DRB release condition comprising: in response to the handover command being received, releasing a DRB between the terminal device and the source network device; establishing, in response to the receipt of the handover command, a SRB between the terminal device and a target network device and a DRB between the terminal device and the target network device, releasing the DRB between the UE and the source network device according to the DRB release condition, and retaining the SRB between the terminal device and the source network device; performing , based on the handover command, the handover; and releasing, according to the SRB release condition, the SRB between the terminal device and the source network device after the handover is completed.
A non-polarising beam-splitter cube comprising at least two substrates between which a coating having a sequence of refractive layers is received, said sequence of layers having at least one layer of a low-refractive-index material, at least one layer of a medium-refractive-index material and at least one layer of a high-refractive-index material, wherein said refractive layers are made of a dielectric material, wherein said sequence of layers is formed to be free of metal layers and wherein said substrates have the same refractive index and the refractive index of the substrates is > 1.55, so that a predetermined 50:50 splitting ratio is maintained over a wave length range between 400 nm and 1,200 nm, wherein said low-refractive-index material is or contains a first oxidic and/or fluoridic material, said first oxidic material being or containing SiO 2 and said fluoridic material being or containing AlF 3 , wherein said medium-refractive-index material is or contains a second oxidic material, said second oxidic material being or containing Al 2 O 3 , wherein said high-refractive-index material is or contains a third oxidic material, said third oxidic material being or containing TiO 2 , wherein said coating has at least 20 layers and the or each layer of low-refractive-index material has a refractive index of 1.3 to 1.5, the or each layer of medium-refractive-index material has a refractive index of > 1.5 to 1.8, and the or each layer of high-refractive-index material has a refractive index of > 1.8 to 2.4. wherein said refractive layers are made of a dielectric material, wherein said sequence of layers is formed to be free of metal layers and wherein said substrates have the same refractive index and the refractive index of the substrates is > 1.55, so that a predetermined 50:50 splitting ratio is maintained over a wave length range between 400 nm and 1,200 nm, wherein said low-refractive-index material is or contains a first oxidic and/or fluoridic material, said first oxidic material being or containing SiO 2 and said fluoridic material being or containing AlF 3 , wherein said medium-refractive-index material is or contains a second oxidic material, said second oxidic material being or containing Al 2 O 3 , wherein said high-refractive-index material is or contains a third oxidic material, said third oxidic material being or containing TiO 2 , wherein said coating has at least 20 layers and the or each layer of low-refractive-index material has a refractive index of 1.3 to 1.5, the or each layer of medium-refractive-index material has a refractive index of > 1.5 to 1.8, and the or each layer of high-refractive-index material has a refractive index of > 1.8 to 2.4.
Cooling arrangement, comprising a traction battery (T) having a plurality of battery modules (B1-B4), wherein a refrigerant is guided along said modules through channels (11, 12; 11', 12') perpendicularly to a longitudinal orientation of the battery modules (B1-B4) and the channels (11, 12; 11', 12') are thermally conductively connected to the battery modules (B1-B4), wherein at least one first channel (11; 11') is present in which the refrigerant can be guided in a first direction along the battery modules (B1-B4) to at least one connecting element and at least one second channel (12; 12') in which the refrigerant can be guided back again in a second, opposite direction along the battery modules (B1-B4), the directions being oriented in parallel with one another and the connecting element fluidically interconnecting the channels (11, 12; 11', 12'), characterized in that an evaporator for the refrigerant is formed from the channels (11, 12; 11', 12'), the channels (11, 12; 11', 12') being part of identical flat tubes (FR) having a longitudinal orientation (I2), the flat tubes (FR) each having a thermally conductive contact surface (F1, F2) and being guided along in parallel under the battery modules (B1-B4), the battery modules (B1-B4) being cuboid-shaped with the same dimensions and a longitudinal orientation of the battery modules (B1-B4) being perpendicular to the longitudinal orientation (I2) of the flat tubes (FR), the flat tubes (FR) each being thermally conductively connected to the battery modules (B1-B4) of the traction battery (T) via the thermally conductive contact surface (F1, F2) such that an area ratio of the total contact surface (F1) of the at least one supply channel to the total contact surface (F2) of the at least one return channel (12; 12') is 1:2 or 2:1, wherein exactly three flat tubes (FR) are present of which a middle flat tube (FR) has at least one supply channel and of which two outer flat tubes (FR) each have at least one return channel , or of which two outer flat tubes (FR) each have at least one supply channel and of which a middle flat tube (FR) has at least one return channel .
A stacking apparatus that stacks chip assemblies each having a plurality of chips disposed continuously with circuit patterns and electrodes, including a plurality of stages each allowed to move arbitrarily, on which the chip assemblies are placed, the stacking apparatus characterized by : a storage means for storing an estimated extent of change in a position of an electrode at each chip, expected to occur as heat is applied to the chip assemblies placed on the plurality of stages during a stacking process; and a control means for setting positions of the plurality of stages to be assumed relative to each other during the stacking process based upon the estimated extent of change in the position of the electrode at each chip provided from the storage means and position information indicating positions of individual chips formed at the chip assemblies and controlling at least one of the plurality of stages. a storage means for storing an estimated extent of change in a position of an electrode at each chip, expected to occur as heat is applied to the chip assemblies placed on the plurality of stages during a stacking process; and a control means for setting positions of the plurality of stages to be assumed relative to each other during the stacking process based upon the estimated extent of change in the position of the electrode at each chip provided from the storage means and position information indicating positions of individual chips formed at the chip assemblies and controlling at least one of the plurality of stages.
A method for controlling a filling process, wherein a predetermined filling quantity of a medium is filled into a container , the flow rate of the medium flowing into the container being measured as a time series of measured values for the instantaneous flow rate and the filling quantity already filled being estimated therefrom, characterized in that at least one current measured value of the time series is corrected on the basis of at least one earlier measured value of an earlier time series of measured values of the flow rate of an earlier filling process.
A power inductor, comprising: a body comprising a metal powder; at least one substrate provided inside the body ; at least one coil pattern provided on at least one surface of the substrate ; and an insulation layer formed between the coil pattern and the body , characterized in that the insulation layer is formed of parylene with a thickness of approximately 3 μm to approximately 100 μm, wherein the insulation layer is formed with a constant thickness along a stepped portion of the coil pattern , wherein the metal powder has a surface coated with an insulator formed of parylene, wherein the insulator is coated in a thickness of approximately 1 um to approximately 10 um . a body comprising a metal powder; at least one substrate provided inside the body ; at least one coil pattern provided on at least one surface of the substrate ; and an insulation layer formed between the coil pattern and the body , characterized in that the insulation layer is formed of parylene with a thickness of approximately 3 μm to approximately 100 μm, wherein the insulation layer is formed with a constant thickness along a stepped portion of the coil pattern , wherein the metal powder has a surface coated with an insulator formed of parylene, wherein the insulator is coated in a thickness of approximately 1 um to approximately 10 um .
Device for a cellular communications network , wherein said device includes at least a processor , a memory and a transceiver and is configured to: determine a parameter (P) which characterizes a relative velocity (v_rel) of said device with respect to a base station of said cellular communications network , wherein said device is configured to receive from said base station timing information notifying the device which timing to apply to future uplink transmissions (ul) to said base station , wherein said device is configured to modify said timing of said at least one uplink transmission (ul) from said device to said base station depending on said parameter (P) and on said timing information received from said base station and characterized in that said device is configured to adapt the timing of said at least one uplink transmission (ul) by applying a timing advance adaptation algorithm with a feedback loop using the timing information received from said base station as feedback information.
A printer , comprising: a printhead including a plurality of heaters arranged a row; a roll-type paper feeder configured to supply paper from a roll to the printhead for printing; a memory device configured to store reference resistance values of the printhead and information indicating an accumulated amount of printing performed by the printhead ; and a processor configured to: acquire a measured resistance value for each of the heaters in the plurality of heaters; detect whether the printhead has been changed since a previous use based on differences in the measured resistance values from reference resistance values; and update the information in the memory device to reset the accumulated amount of printing performed by the printhead if it is detected that the printhead has been changed. a printhead including a plurality of heaters arranged a row; a roll-type paper feeder configured to supply paper from a roll to the printhead for printing; a memory device configured to store reference resistance values of the printhead and information indicating an accumulated amount of printing performed by the printhead ; and a processor configured to: acquire a measured resistance value for each of the heaters in the plurality of heaters; detect whether the printhead has been changed since a previous use based on differences in the measured resistance values from reference resistance values; and update the information in the memory device to reset the accumulated amount of printing performed by the printhead if it is detected that the printhead has been changed. acquire a measured resistance value for each of the heaters in the plurality of heaters; detect whether the printhead has been changed since a previous use based on differences in the measured resistance values from reference resistance values; and update the information in the memory device to reset the accumulated amount of printing performed by the printhead if it is detected that the printhead has been changed.
A sorting arrangement for sorting objects, in particular mail items, of different shapes, volumes and/or weights, the sorting arrangement having a flat sorter with a plurality of load receiving means for objects to be sorted, which load receiving means are moved along a sorting line of the flat sorter and can be individually controlled for discharging a supported object into at least one first terminal of the sorting arrangement, the sorting arrangement having a pouch sorter with a plurality of load receiving means for objects to be sorted, which load receiving means are in the form of hanging pouches (2.1), characterized in that the pouch sorter has a pouch unloading means by which the pouches (2.1) are unloaded into at least one second terminal different from the at least one first terminal , these two terminals being assigned the same sorting destination.
A terminal comprising: a reception section configured to receive an uplink scheduling grant including an instruction for transmission of a Sounding Reference Signal (SRS); and a transmission section configured to transmit the SRS in a same subframe as a Physical Uplink Shared Channel (PUSCH) that the uplink scheduling grant instructs to transmit. a reception section configured to receive an uplink scheduling grant including an instruction for transmission of a Sounding Reference Signal (SRS); and a transmission section configured to transmit the SRS in a same subframe as a Physical Uplink Shared Channel (PUSCH) that the uplink scheduling grant instructs to transmit.
A safety system for an electric motor controller, comprising: a torque safety monitor having a first processor distinct from a second processor of a main motor controller , the torque safety monitor having one or more monitors associated with subsystems of a vehicle, the subsystems of the vehicle including at least one of a brake pedal assembly or an accelerator pedal assembly , the first processor coupled to the one or more monitors to detect failure in the one or more monitored subsystems; a hardware protection unit coupled to the torque safety monitor and configured to couple to the main motor controller and a DC/AC (direct current to alternating current) inverter ; and the first processor configured to direct the hardware protection unit to modify switching signals that the hardware protection unit receives from the main motor controller , so as to decrease to nonzero value AC power, sent from the DC/AC inverter to an electric motor , in response to a detected failure in one or more of the monitored subsystems and an estimated torque of the electric motor differing from a commanded torque associated with the main motor controller by more than a set amount. a torque safety monitor having a first processor distinct from a second processor of a main motor controller , the torque safety monitor having one or more monitors associated with subsystems of a vehicle, the subsystems of the vehicle including at least one of a brake pedal assembly or an accelerator pedal assembly , the first processor coupled to the one or more monitors to detect failure in the one or more monitored subsystems; a hardware protection unit coupled to the torque safety monitor and configured to couple to the main motor controller and a DC/AC (direct current to alternating current) inverter ; and the first processor configured to direct the hardware protection unit to modify switching signals that the hardware protection unit receives from the main motor controller , so as to decrease to nonzero value AC power, sent from the DC/AC inverter to an electric motor , in response to a detected failure in one or more of the monitored subsystems and an estimated torque of the electric motor differing from a commanded torque associated with the main motor controller by more than a set amount.