mhurhangee/patent-ind-claim-en huggingface dataset:
Paillette having at least one electrical or electronic functional element and a carrier element , wherein the at least one functional element is electrically contacted by means of at least one electrically conductive region on the carrier element , wherein the carrier element has at lest one opening for the through-passage of an electrically conductive thread (2; 2a to 2d), which serves for electrically contacting the at least one functional element and also for fastening the carrier element on a piece of clothing or textile element , and wherein the carrier element has at least one further electrically conductive region , which is connected to the at least one electrically conductive region and can be contacted by the thread (2; 2a to 2d) when the carrier element is being fastened on the piece of clothing or textile element , in particular by abutment against the further electrically conductive region , and wherein the at least one functional element comprises a plurality of electrical or electronic components , characterized in that the carrier element has a wraparound region , which is intended for the thread (2; 2a to 2d) and against which the thread (2; 2a to 2d) can be positioned, in that the wraparound region is delimited by the at least one opening and a notch-like cutout , which is formed at an edge of the carrier element , and in that the at least one further electrically conductive region is arranged on the surface of the carrier element in the wraparound region .
A battery charging device, comprising: a conversion part (CN) that converts an alternating current output from an alternating-current generator (M) into a direct current by a switching element (Q1-Q6) and supplies the direct current to a battery (B); a number-of-revolutions acquisition part (RA) that acquires a number of revolutions of the alternating-current generator (M) based on a signal responsive to the operation of the alternating-current generator; and an output control part (X) that determines an energization phase angle that defines a timing of energization of the switching element of the conversion part (CN) for supplying a charging current from the alternating-current generator (M) to the battery, and controls energization of the switching element (Q1-Q6) based on the energization phase angle, characterized in that the output control part has a table that defines a relationship between the charging current of the battery (B) and the energization phase angle and a relationship between the number of revolutions of the alternating-current generator (M) and a correction value with which the energization phase angle is corrected in response to the number of revolutions, and the output control part (X) acquires the energization phase angle and the correction value by referring to the table for the charging current to be output and the number of revolutions acquired by the number-of-revolutions acquisition part (RA), and corrects the energization phase angle with the correction value. a conversion part (CN) that converts an alternating current output from an alternating-current generator (M) into a direct current by a switching element (Q1-Q6) and supplies the direct current to a battery (B); a number-of-revolutions acquisition part (RA) that acquires a number of revolutions of the alternating-current generator (M) based on a signal responsive to the operation of the alternating-current generator; and an output control part (X) that determines an energization phase angle that defines a timing of energization of the switching element of the conversion part (CN) for supplying a charging current from the alternating-current generator (M) to the battery, and controls energization of the switching element (Q1-Q6) based on the energization phase angle, characterized in that the output control part has a table that defines a relationship between the charging current of the battery (B) and the energization phase angle and a relationship between the number of revolutions of the alternating-current generator (M) and a correction value with which the energization phase angle is corrected in response to the number of revolutions, and the output control part (X) acquires the energization phase angle and the correction value by referring to the table for the charging current to be output and the number of revolutions acquired by the number-of-revolutions acquisition part (RA), and corrects the energization phase angle with the correction value.
Process for the isolation of levulinic acid with a predetermined purity comprising the following steps: a. Performing acid catalyzed hydrolysis of a C6 carbohydrate-containing feedstock to obtain reaction product X, b. Purifying of reaction product X to provide a composition 1, comprising at least 75 wt% levulinic acid, at most 15 wt% solvent and at most 10 wt% impurities, based on the total weight of composition 1, c. Feeding composition 1 to a melt crystallization cycle, d. Repeating the melt crystallization cycle as many times as necessary to obtain as composition 2 levulinic acid with the predetermined purity, and e. Isolating the levulinic acid with the predetermined purity, Wherein a predetermined purity is a purity level of levulinic acid of 85-100 wt%, comprising at most 1 wt% of formic acid, at most 1 wt% of angelica lactone, at most 15 wt% of solvent and at most 5 wt% of impurities, based on the total weight of the levulinic acid. a. Performing acid catalyzed hydrolysis of a C6 carbohydrate-containing feedstock to obtain reaction product X, b. Purifying of reaction product X to provide a composition 1, comprising at least 75 wt% levulinic acid, at most 15 wt% solvent and at most 10 wt% impurities, based on the total weight of composition 1, c. Feeding composition 1 to a melt crystallization cycle, d. Repeating the melt crystallization cycle as many times as necessary to obtain as composition 2 levulinic acid with the predetermined purity, and e. Isolating the levulinic acid with the predetermined purity,
An apparatus comprising: one or more processors; a memory coupled to the one or more processors; a near field communications, NFC, antenna coupled to the one or more processors wherein the NFC antenna is integrated underneath a metal chassis of the apparatus; and at least one fractal slot constructed in the metal chassis , the at least one fractal slot based on or modeled from a no-self loop fractal space filling curve template and is tiled with another fractal slot to cover an area defined at least by outside parameter of the NFC antenna . one or more processors; a memory coupled to the one or more processors; a near field communications, NFC, antenna coupled to the one or more processors wherein the NFC antenna is integrated underneath a metal chassis of the apparatus; and at least one fractal slot constructed in the metal chassis , the at least one fractal slot based on or modeled from a no-self loop fractal space filling curve template and is tiled with another fractal slot to cover an area defined at least by outside parameter of the NFC antenna .
A nanopore membrane based sequencing device , comprising: a plurality of nanopore sensors, each nanopore sensor having a portion for receiving a fluid; a fluid chamber configured to guide the fluid over the plurality of nanopore sensors, wherein at least a portion of the fluid chamber is made of an elastomer material that has been injection molded around at least a portion of an electrode , wherein the material that has been molded is configured to create raised dividers on a surface of the electrode and configured to guide the fluid along a winding length of the fluid chamber; and an inlet configured to deliver the fluid into the fluid chamber. a plurality of nanopore sensors, each nanopore sensor having a portion for receiving a fluid; a fluid chamber configured to guide the fluid over the plurality of nanopore sensors, wherein at least a portion of the fluid chamber is made of an elastomer material that has been injection molded around at least a portion of an electrode , wherein the material that has been molded is configured to create raised dividers on a surface of the electrode and configured to guide the fluid along a winding length of the fluid chamber; and an inlet configured to deliver the fluid into the fluid chamber.
Method for operating an apparatus for forming plastic preforms into plastic containers, wherein the apparatus has a movable carrier , on which a plurality of forming stations are arranged for forming plastic preforms into plastic containers, and these forming stations each have at least two mould supports on which blow mould parts are arranged, wherein these blow mould parts are components of a blow mould and form a hollow space within which the plastic preforms are expanded into the plastic containers by application of a flowable medium and wherein these two mould supports are pivotable with respect to one another for opening and closing the blow mould and wherein furthermore the forming stations have a latching mechanism which is suitable and intended to latch the two mould supports at least at times to one another in such a way that an opening movement of the blow mould is prevented, wherein a changing operation of the apparatus is provided, in which at least components of the blow mould are changed and a first actuating device is provided, which effects an unlatching and/or latching of the latching mechanism , and a second actuating device is provided which brings the mould support into an open and/or closed position, characterised in that at least one of the operations initiated and/or carried out by the actuating devices is initiated and/or carried out by a rotary movement of the carrier relative to the actuating device , wherein at least one of the operations initiated and/or carried out by the actuating devices is initiated and/or carried out during a shutdown of the carrier .
A method of controlling a wind turbine, comprising: calculating a current wear rate for each of the main bearing of a turbine rotor and the blade bearings of rotor blades mounted on the turbine rotor; characterised by calculating a blade pitch adjustment of the rotor blades to achieve a desired ratio between main bearing wear and blade bearing wear in dependence on the calculated current wear rates of the main bearing and the blade bearings. calculating a current wear rate for each of the main bearing of a turbine rotor and the blade bearings of rotor blades mounted on the turbine rotor; characterised by calculating a blade pitch adjustment of the rotor blades to achieve a desired ratio between main bearing wear and blade bearing wear in dependence on the calculated current wear rates of the main bearing and the blade bearings.
A method, comprising: reserving, by a first Access Point, AP , a Resource Unit, RU, for use in an environment including an overlapping area served by the first AP and a second AP ; assigning traffic between a first user device and the first AP in the RU; transmitting an invitation to the second AP that identifies an unused portion of the RU; assigning a sub-portion of the unused portion to the second AP ; transmitting the traffic to the first user device during the RU; and co-transmitting, by the first AP , a message to a second user device associated with the second AP while the second AP transmits the message to the second user device during the sub-portion ; or receiving a message from the second AP for transmittal to the second user device associated with the second AP during the sub-portion and transmitting, by the first AP , the message to the second user device on behalf of the second AP . reserving, by a first Access Point, AP , a Resource Unit, RU, for use in an environment including an overlapping area served by the first AP and a second AP ; assigning traffic between a first user device and the first AP in the RU; transmitting an invitation to the second AP that identifies an unused portion of the RU; assigning a sub-portion of the unused portion to the second AP ; transmitting the traffic to the first user device during the RU; and co-transmitting, by the first AP , a message to a second user device associated with the second AP while the second AP transmits the message to the second user device during the sub-portion ; or receiving a message from the second AP for transmittal to the second user device associated with the second AP during the sub-portion and transmitting, by the first AP , the message to the second user device on behalf of the second AP .
A method of a User Equipment, in the following also referred to as UE, in a wireless communication system, comprising: the UE transmits information to a base station , the UE receives, from the base station, a first configuration indicating a periodic uplink resource allocation that is based on the information transmitted from the UE ; and the UE performs a periodic uplink transmission to the base station based on the periodic uplink resource allocation , characterized in that the information indicates a time to start a very first transmission of the periodic uplink transmission and a message size of the periodic uplink transmission. the UE transmits information to a base station , the UE receives, from the base station, a first configuration indicating a periodic uplink resource allocation that is based on the information transmitted from the UE ; and the UE performs a periodic uplink transmission to the base station based on the periodic uplink resource allocation , characterized in that the information indicates a time to start a very first transmission of the periodic uplink transmission and a message size of the periodic uplink transmission.
A window sensing device for securing to a window sash comprising: a housing , an accelerometer configured to sense movement of a window sash in a given direction of travel, a magnetic sensor configured to sense presence of a magnet (34; 96), a wireless transmitter circuit and an electronic controller configured to receive an input from the accelerometer and an input from the magnetic sensor , the electronic controller configured to control the wireless transmitter circuit to output a normal state wireless signal when the magnetic sensor senses the presence of the magnet (34; 96) and to output an alarm state wireless signal when the magnetic sensor does not sense the presence of the magnet (34; 96), and when the electronic controller is controlling the wireless transmitter circuit to output an alarm state wireless signal and the accelerometer senses movement of a window sash, the electronic controller is configured to output an indication of movement of a window sash; and wherein the indication of movement provided by the electronic controller when the electronic controller is controlling the wireless transmitter circuit to output an alarm state wireless signal includes changing the output of the wireless transmitter circuit to a normal state wireless signal for a predetermined time and then changing the output to an alarm state wireless signal. a housing , an accelerometer configured to sense movement of a window sash in a given direction of travel, a magnetic sensor configured to sense presence of a magnet (34; 96), a wireless transmitter circuit and an electronic controller configured to receive an input from the accelerometer and an input from the magnetic sensor , the electronic controller configured to control the wireless transmitter circuit to output a normal state wireless signal when the magnetic sensor senses the presence of the magnet (34; 96) and to output an alarm state wireless signal when the magnetic sensor does not sense the presence of the magnet (34; 96), and when the electronic controller is controlling the wireless transmitter circuit to output an alarm state wireless signal and the accelerometer senses movement of a window sash, the electronic controller is configured to output an indication of movement of a window sash; and
A composition of matter comprising: a) 0.5 to 85% w/w of (Z)-oxacyclohexadec-12-en-2-one; b) 0.5 to 30% w/w of (E)-oxacyclohexadec-12-en-2-one; c) 0 to 30% w/w of (E)-oxacyclohexadec-13-en-2-one; and d) 0.5 to 85% w/w of (Z)-oxacyclohexadec-13-en-2-one. ; the percentage being relative to the total weight of the composition of matter; and wherein the weight ratio of the E-diastereoisomers to the Z-diastereoisomers is comprised in the range between 40:60 and 15:85. a) 0.5 to 85% w/w of (Z)-oxacyclohexadec-12-en-2-one; b) 0.5 to 30% w/w of (E)-oxacyclohexadec-12-en-2-one; c) 0 to 30% w/w of (E)-oxacyclohexadec-13-en-2-one; and d) 0.5 to 85% w/w of (Z)-oxacyclohexadec-13-en-2-one. ; the percentage being relative to the total weight of the composition of matter; and wherein the weight ratio of the E-diastereoisomers to the Z-diastereoisomers is comprised in the range between 40:60 and 15:85.
A computer-implemented method for implementation by at least one server device , comprising: receiving, by the at least one server device and from an input device , input audio data corresponding to an utterance; performing, by the at least one server device, speech processing on the input audio data to determine a first instruction; generating, by the at least one server device, voice output audio data that includes synthesized speech corresponding to the first instruction; determining, by the at least one server device, a first output device associated with the input device, the first output device controllable by a network-connected device , wherein the first output device and input device are different; determining, by the at least one server device, that the first output device is outputting first audio; and in response to determining that the first output device is outputting first audio, sending, by the at least one server device, a second instruction to the network-connected device to cause the network-connected device to reduce a volume level of the first audio, so as to reduce interference of the input audio data and the first audio. receiving, by the at least one server device and from an input device , input audio data corresponding to an utterance; performing, by the at least one server device, speech processing on the input audio data to determine a first instruction; generating, by the at least one server device, voice output audio data that includes synthesized speech corresponding to the first instruction; determining, by the at least one server device, a first output device associated with the input device, the first output device controllable by a network-connected device , wherein the first output device and input device are different; determining, by the at least one server device, that the first output device is outputting first audio; and in response to determining that the first output device is outputting first audio, sending, by the at least one server device, a second instruction to the network-connected device to cause the network-connected device to reduce a volume level of the first audio, so as to reduce interference of the input audio data and the first audio.
A door handle apparatus, comprising: - a frame member configured to be assembled on a door outer panel that forms an outer surface of a vehicle door; - a handle body configured to be mounted on the frame member via a first arm portion and a second arm portion , the handle body being configured to be rotatable relative to the frame member at the first arm portion , - a retainer mounted on the frame member and moveable between an assembly ready position and an assembly completion position, wherein, when the retainer is in the assembly ready position, the handle body is moveable within the frame member ; when the retainer is in the assembly completion position, the retainer maintains the second arm portion of the handle body in cooperation with a door opening member , mounted on the frame member , wherein the door handle apparatus comprises a displacement member configured to displace the retainer from the assembly ready position to the assembly completion position, characterized in that the displacement member is mounted on the frame member and is configured to be actuated by a user between a first position and a second position. - a frame member configured to be assembled on a door outer panel that forms an outer surface of a vehicle door; - a handle body configured to be mounted on the frame member via a first arm portion and a second arm portion , the handle body being configured to be rotatable relative to the frame member at the first arm portion , - a retainer mounted on the frame member and moveable between an assembly ready position and an assembly completion position, wherein, when the retainer is in the assembly ready position, the handle body is moveable within the frame member ; when the retainer is in the assembly completion position, the retainer maintains the second arm portion of the handle body in cooperation with a door opening member , mounted on the frame member , wherein the door handle apparatus comprises a displacement member configured to displace the retainer from the assembly ready position to the assembly completion position, characterized in that the displacement member is mounted on the frame member and is configured to be actuated by a user between a first position and a second position.