mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a material for plastic injection, including thermoplastic material, hollow glass beads and fibres, including the following steps: - supply of a first compound in the form of pellets obtained by extrusion according to the BUSS method, including thermoplastic material and hollow glass beads, and preferably functional additives, with the hollow glass beads having a density of 0.46, the content in hollow glass beads being between 15 and 30% by weight of the first compound, - supply of a second compound in the form of pellets including thermoplastic material and fibres such as carbon fibres or plant fibres, - mixture of the first and second compounds in an automatic mixer. - supply of a first compound in the form of pellets obtained by extrusion according to the BUSS method, including thermoplastic material and hollow glass beads, and preferably functional additives, with the hollow glass beads having a density of 0.46, the content in hollow glass beads being between 15 and 30% by weight of the first compound, - supply of a second compound in the form of pellets including thermoplastic material and fibres such as carbon fibres or plant fibres, - mixture of the first and second compounds in an automatic mixer.
Method for actuating a closure element arrangement of a motor vehicle, wherein the closure element arrangement has a closure element , a drive arrangement which is assigned to the closure element , a control arrangement and a sensor arrangement with at least one sensor element which is configured, in particular, as a proximity sensor, wherein within the scope of an operator control event monitoring operation by means of the control arrangement the sensor measured values of the sensor arrangement are monitored to determine whether a predetermined operator control event is occurring, and the drive arrangement is actuated as a function of the result of the operator control event monitoring operation, wherein the mechanical configuration of the motor vehicle can be changed in the normal operational use by means of an adjustment process and/or by means of a mounting process, characterized in that the mechanical configuration of the motor vehicle is sensed by means of the control arrangement , and the operator control event monitoring operation is modified as a function of the mechanical configuration of the motor vehicle, in that an operator control event is assigned an operator control event model composed of signal characteristic values, in that within the scope of the operator control event monitoring operation it is monitored by means of the control arrangement whether the sensor measured values correspond to the signal characteristic values of the operator control event model, and in that the operator control event model is generated as a function of the mechanical configuration of the motor vehicle or is selected from a number of stored operator control event models as a function of the mechanical configuration of the motor vehicle, or is parameterized as a function of the mechanical configuration of the motor vehicle. in that the mechanical configuration of the motor vehicle is sensed by means of the control arrangement , and the operator control event monitoring operation is modified as a function of the mechanical configuration of the motor vehicle, in that an operator control event is assigned an operator control event model composed of signal characteristic values, in that within the scope of the operator control event monitoring operation it is monitored by means of the control arrangement whether the sensor measured values correspond to the signal characteristic values of the operator control event model, and in that the operator control event model is generated as a function of the mechanical configuration of the motor vehicle or is selected from a number of stored operator control event models as a function of the mechanical configuration of the motor vehicle, or is parameterized as a function of the mechanical configuration of the motor vehicle.
A circuit arrangement for balancing a split DC link, which comprises a series circuit comprising a first DC-link capacitor (C1) and a second DC-link capacitor (C2) between a first DC-voltage terminal and a second DC-voltage terminal and has a DC-link center point between the first DC-link capacitor (C1) and the second DC-link capacitor (C2), wherein, in the case of the circuit arrangement , the first DC-voltage terminal is connected via a first semiconductor switch (T1, T4) to a first intermediate point , the first intermediate point is connected via a second semiconductor switch (T2, T3) to a bridge center point , the bridge center point is connected via a third semiconductor switch (T2, T3) to a second intermediate point , and the second intermediate point is connected via a fourth semiconductor switch (T1, T4) to the second DC-voltage terminal , wherein the semiconductor switches (T1, T2, T3, T4) each have a antiparallel diode , and furthermore a first terminal of a resonant capacitor (Cres) is connected to the first intermediate point , and a second terminal of the resonant capacitor (Cres) is connected to the DC-link center point via a connecting path, in which a resonant inductor (Lres) is arranged in a series circuit with the third semiconductor switch (T2, T3), and which runs via the second intermediate point , characterized in that an additional winding (L1) is magnetically coupled to the resonant inductor (Lres), wherein a first terminal of the additional winding (L1) is connected via a first diode (D1, D2 ) to a first terminal of a countervoltage source , and a second terminal of the additional winding (L1) is connected to a second terminal of the countervoltage source in such a way that a discharge path is formed for discharging an energy coupled into the additional winding (L1) from the resonant inductor (Lres) into the countervoltage source via the first diode (D1, D2), wherein the countervoltage source is formed by the first DC-link capacitor (C1) and/or the second DC-link capacitor (C2).
Separation system for a suction device; wherein the separation system comprises - a cylindrical housing with a housing wall ; - an air filter which is arranged around a central longitudinal axis of the housing; - a screen component which is arranged in the housing; wherein the screen component comprises a screen cylinder which is arranged around the longitudinal axis and with a screen surface which encloses the air filter ; - a collection region for impurities , which is arranged between the screen cylinder and the housing wall ; wherein the collection region is defined by a boundary which has a surface; wherein the screen component comprises an additional screen part with an additional screen surface which covers a further part of the surface of the collection region in addition to the screen cylinder , so that at least 40% of the surface of the collection region is covered by the screen surface of the screen component ; and - an inlet channel which is configured to conduct an air flow with impurities from outside the housing into the collection region ; wherein the separation system is configured to conduct the air flow , starting from the collection region , initially through the screen component and then through the air filter . - a cylindrical housing with a housing wall ; - an air filter which is arranged around a central longitudinal axis of the housing; - a screen component which is arranged in the housing; wherein the screen component comprises a screen cylinder which is arranged around the longitudinal axis and with a screen surface which encloses the air filter ; - a collection region for impurities , which is arranged between the screen cylinder and the housing wall ; wherein the collection region is defined by a boundary which has a surface; wherein the screen component comprises an additional screen part with an additional screen surface which covers a further part of the surface of the collection region in addition to the screen cylinder , so that at least 40% of the surface of the collection region is covered by the screen surface of the screen component ; and - an inlet channel which is configured to conduct an air flow with impurities from outside the housing into the collection region ; wherein the separation system is configured to conduct the air flow , starting from the collection region , initially through the screen component and then through the air filter .
MRI system with an RF transmit coil and an RF transmitter comprising: - an RF amplifier for generating RF pulses and for forwarding these RF pulses to the RF transmit coil of the MRI system , - a capacitor bank coupled to the RF amplifier , for storing electric energy and for providing the RF amplifier with a current for generating the RF pulses, - a mains power supply coupled to the capacitor bank , for generating a charging current for charging the capacitor bank with electric energy, and - a power supply control unit coupled to the mains power supply , for controlling the generation of the charging current for the capacitor bank , characterised in that the MRI system further comprises - an information unit coupled to the power supply control unit and being adapted for generating an indication signal on the basis of an upcoming current drawn from the capacitor bank on the basis of an upcoming RF power demand for the transmit coil of the MRI system , wherein the power supply control unit is adapted for receiving the indication signal indicating the upcoming current drawn from the capacitor bank and for controlling the generation of the charging current for the capacitor bank on the basis of the indication signal. - an RF amplifier for generating RF pulses and for forwarding these RF pulses to the RF transmit coil of the MRI system , - a capacitor bank coupled to the RF amplifier , for storing electric energy and for providing the RF amplifier with a current for generating the RF pulses, - a mains power supply coupled to the capacitor bank , for generating a charging current for charging the capacitor bank with electric energy, and - a power supply control unit coupled to the mains power supply , for controlling the generation of the charging current for the capacitor bank , characterised in that the MRI system further comprises - an information unit coupled to the power supply control unit and being adapted for generating an indication signal on the basis of an upcoming current drawn from the capacitor bank on the basis of an upcoming RF power demand for the transmit coil of the MRI system , wherein
An implantable lead device , comprising: a support comb comprising: an attachment face ; and a routing face comprising a plurality of slots ; a microelectrode film comprising a body having a plurality of electrodes and an extension comprising: a first face, the first face of the extension having a plurality of electrical contacts coupled with the plurality of electrodes ; and a second face, the second face of the extension coupled with the attachment face of the support comb ; and a plurality of wires , each of the plurality of wires passing through a respective one of the plurality of slots and coupled with a respective one of the plurality of electrical contacts . a support comb comprising: an attachment face ; and a routing face comprising a plurality of slots ; an attachment face ; and a routing face comprising a plurality of slots ; a microelectrode film comprising a body having a plurality of electrodes and an extension comprising: a first face, the first face of the extension having a plurality of electrical contacts coupled with the plurality of electrodes ; and a second face, the second face of the extension coupled with the attachment face of the support comb ; and a plurality of wires , each of the plurality of wires passing through a respective one of the plurality of slots and coupled with a respective one of the plurality of electrical contacts . a first face, the first face of the extension having a plurality of electrical contacts coupled with the plurality of electrodes ; and a second face, the second face of the extension coupled with the attachment face of the support comb ; and a plurality of wires , each of the plurality of wires passing through a respective one of the plurality of slots and coupled with a respective one of the plurality of electrical contacts .
A process for regenerating a titanium silicalite catalyst fouled during a reaction between an olefin and a peroxide compound to produce an oxirane, the process comprising contacting the fouled titanium silicalite catalyst with a regeneration solution including at least one oxidizing agent to provide a regenerated titanium silicalite catalyst, wherein the regeneration solution has an oxidizing agent concentration in a range of from 0.10 weight percent to less than 0.50 weight percent based on a total weight of the regeneration solution prior to contact with the fouled titanium silicalite catalyst, exclusive of the titanium silicalite catalyst, wherein the pH of the regeneration solution is adjusted to less than 2 prior to contacting the fouled titanium silicalite catalyst with the regeneration solution, and wherein the regenerated titanium silicalite catalyst is washed with an organic compound.
A web of male touch fastener material (27; 27') comprising a plurality of male engagement members , wherein the web has a mesh structure comprising a plurality of spaced nodes interconnected by elongate links with apertures between the nodes and links, characterised in that each link interconnects an adjacent pair of nodes and the length of each link is greater than the shortest distance (Z) measured between said pair of nodes, at least when the mesh structure is in a relaxed, un-stretched condition; the nodes having a minimum spacing when the web is in a relaxed, un-stretched condition and the web structure being configured such that in use the spacing between any given pair of adjacent nodes interconnected by a link can be increased from the minimum spacing if the nodes are pulled apart but without stretching the link itself, such that the structure is stretchable in at least three different directions parallel to the plane of the web.
A multiplex lateral flow assay device for simultaneous detection of a presence of at least a first analyte (X) of interest and a second, different, analyte (Y) of interest in a single liquid test sample, comprising: a) a test sample receiving region; b) a capture membrane comprising a first assay test path and a second, adjacent non-overlapping, assay test path , the first assay test path comprising a first labeled detection reagent specific for the first analyte (X) of interest, and a first test line comprising an immobilized first capture reagent specific for the first analyte of interest, and the second assay test path comprising a second, different, labeled detection reagent specific for the second analyte (Y) of interest, and a second test line comprising an immobilized second, different, capture reagent specific for the second analyte of interest; characterized in that at least one of (i) a reservoir region is positioned downstream of the capture membrane and comprises an absorbent pad and an intermediate pad located between the capture membrane and the absorbent pad , wherein the intermediate pad is water-absorbent and is more hydrophilic than the absorbent pad ; or (ii) the test sample receiving region comprises a test sample application pad , a buffer pad , and a hydrophobic pad , each of the application pad, buffer pad and hydrophobic pad being formed from porous, water-absorbing material, the hydrophobic pad located adjacent to and upstream from the application pad , the buffer pad located adjacent to and upstream from the hydrophobic pad , wherein the hydrophobic pad is more hydrophobic than either of the buffer pad or the application pad . a) a test sample receiving region; b) a capture membrane comprising a first assay test path and a second, adjacent non-overlapping, assay test path , the first assay test path comprising a first labeled detection reagent specific for the first analyte (X) of interest, and a first test line comprising an immobilized first capture reagent specific for the first analyte of interest, and the second assay test path comprising a second, different, labeled detection reagent specific for the second analyte (Y) of interest, and a second test line comprising an immobilized second, different, capture reagent specific for the second analyte of interest;
A manufacturing method for an insulated circuit substrate including an insulating resin layer and a circuit layer consisting of a metal piece arranged in a circuit pattern shape on one surface of the insulating resin layer , the manufacturing method for the insulated circuit substrate comprising: a metal piece disposing step of disposing the metal piece to form a circuit pattern shape on a resin material to be the insulating resin layer ; and a bonding step of bonding the insulating resin layer and the metal piece by pressurizing and heating the resin material and the metal piece at least in a laminating direction, wherein in the bonding step, the metal piece and the resin material are pressurized in the laminating direction by a pressurizing jig that includes a cushion material disposed on a side of the metal piece and a guide wall portion disposed at a position on the resin material side of the pressurizing jig facing a peripheral portion of the cushion material , and the lower surface side of the peripheral portion of the cushion material is brought into contact with the guide wall portion during pressurization. a metal piece disposing step of disposing the metal piece to form a circuit pattern shape on a resin material to be the insulating resin layer ; and a bonding step of bonding the insulating resin layer and the metal piece by pressurizing and heating the resin material and the metal piece at least in a laminating direction, wherein in the bonding step, the metal piece and the resin material are pressurized in the laminating direction by a pressurizing jig that includes a cushion material disposed on a side of the metal piece and a guide wall portion disposed at a position on the resin material side of the pressurizing jig facing a peripheral portion of the cushion material , and the lower surface side of the peripheral portion of the cushion material is brought into contact with the guide wall portion during pressurization.
A pool cleaner control system to locate and remove debris from an aquatic environment, the pool cleaner control system comprising: a pool cleaner including a housing defined by one or more walls ; an imaging device operably connected to the pool cleaner and configured to acquire at least one primary image of the aquatic environment; and a controller in communication with the imaging device, wherein the controller identifies candidate debris from the at least one primary image, determines an optimal cleaning pathway for each of the at least one primary image and navigates the pool cleaner to the candidate debris along the optimal cleaning pathway until the aquatic environment is clean; wherein the controller is further configured to determine the optimal cleaning pathway by analyzing objects along at least two potential pathways, assigning a path score to the at least two potential pathways and selecting the optimal cleaning pathway having the highest path score. a pool cleaner including a housing defined by one or more walls ; an imaging device operably connected to the pool cleaner and configured to acquire at least one primary image of the aquatic environment; and a controller in communication with the imaging device, wherein the controller identifies candidate debris from the at least one primary image, determines an optimal cleaning pathway for each of the at least one primary image and navigates the pool cleaner to the candidate debris along the optimal cleaning pathway until the aquatic environment is clean; wherein the controller is further configured to determine the optimal cleaning pathway by analyzing objects along at least two potential pathways, assigning a path score to the at least two potential pathways and selecting the optimal cleaning pathway having the highest path score.
A method for transmitting a reference signal by a user equipment, UE, in a wireless communication system, the method comprising: generating, by the UE, a block of hybrid automatic repeat request, HARQ, acknowledgement/negative acknowledgement, ACK/NACK, bits to be transmitted via an uplink control channel; determining, by the UE, a number of uplink reference signals based on a format or size of the uplink control channel, wherein the number of the uplink reference signals is determined to be equal to either 1 or 2 based on the format or the size of the uplink control channel; generating, by the UE, the uplink reference signals based on the determined number; transmitting, by the UE to a base station , the uplink reference signals on 1 or 2 orthogonal frequency division multiplexing, OFDM, symbols in a subframe; and transmitting, by the UE to the base station, the uplink control channel on remaining OFDM symbols in the subframe and on a plurality of subcarriers, wherein the uplink reference signals are transmitted on 1 OFDM symbol in the subframe, when the number of the uplink reference signals is determined to be equal to 1, wherein the uplink reference signals are transmitted on 2 OFDM symbols in the subframe, when the number of the uplink reference signals is determined to be equal to 2, and wherein the transmitted uplink reference signal is hopped in the frequency domain, based on a cell specific hopping parameter. generating, by the UE, a block of hybrid automatic repeat request, HARQ, acknowledgement/negative acknowledgement, ACK/NACK, bits to be transmitted via an uplink control channel; determining, by the UE, a number of uplink reference signals based on a format or size of the uplink control channel, wherein the number of the uplink reference signals is determined to be equal to either 1 or 2 based on the format or the size of the uplink control channel; generating, by the UE, the uplink reference signals based on the determined number; transmitting, by the UE to a base station , the uplink reference signals on 1 or 2 orthogonal frequency division multiplexing, OFDM, symbols in a subframe; and transmitting, by the UE to the base station, the uplink control channel on remaining OFDM symbols in the subframe and on a plurality of subcarriers, wherein the uplink reference signals are transmitted on 1 OFDM symbol in the subframe, when the number of the uplink reference signals is determined to be equal to 1, wherein the uplink reference signals are transmitted on 2 OFDM symbols in the subframe, when the number of the uplink reference signals is determined to be equal to 2, and wherein the transmitted uplink reference signal is hopped in the frequency domain, based on a cell specific hopping parameter.