mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method, comprising: receiving (S202, S302, S402), by a terminal device , first power information and second power information from a network device ; and when transmission direction in which the terminal device receives and/or sends information via a second radio access technology is a downlink direction, in a first uplink time unit scheduled by a first radio access technology, sending, by the terminal device , information to the network device via the first radio access technology, based on a first maximum transmission power; wherein the first maximum transmission power is originated from the first power information; and when a second uplink time unit scheduled by the first radio access technology overlaps with uplink time unit scheduled by the second radio access technology, sending, by the terminal device , information to the network device via the first radio access technology, based on a second maximum transmission power, wherein the second maximum transmission power is originated from the second power information; wherein the first radio access technology is a Long Term Evolution, LTE, technology, and the second radio access technology is a New Radio interface, NR, technology; and wherein the terminal device is in DC, dual connectivity, mode, and does not support dynamic power sharing. receiving (S202, S302, S402), by a terminal device , first power information and second power information from a network device ; and when transmission direction in which the terminal device receives and/or sends information via a second radio access technology is a downlink direction, in a first uplink time unit scheduled by a first radio access technology, sending, by the terminal device , information to the network device via the first radio access technology, based on a first maximum transmission power; wherein the first maximum transmission power is originated from the first power information; and when a second uplink time unit scheduled by the first radio access technology overlaps with uplink time unit scheduled by the second radio access technology, sending, by the terminal device , information to the network device via the first radio access technology, based on a second maximum transmission power, wherein the second maximum transmission power is originated from the second power information; wherein the first radio access technology is a Long Term Evolution, LTE, technology, and the second radio access technology is a New Radio interface, NR, technology; and wherein the terminal device is in DC, dual connectivity, mode, and does not support dynamic power sharing.
A handheld vacuum cleaner (T), comprising: a dust cup assembly (T1) comprising a cup casing arranged vertically, an airflow generation device , and a cyclone separation device , the airflow generation device and the cyclone separation device being arranged in the cup casing , the airflow generation device being arranged above the cyclone separation device and located at a downstream side of the cyclone separation device , and an air vent being formed in a top of the cup casing ; a suction nozzle assembly (T2) mounted to the cup casing and defining a suction channel (S1); a handle assembly (T3) mounted to the cup casing and used to be held; characterised in that an inner side of the air vent is provided with an air guide surface to adjust a blowing direction of the air vent , and an included angle α between an extension line of the air guide surface and a connection line between a central point of the air vent and a central point of a dust cup is projected onto a horizontal plane and satisfies: 10° ≤ α ≤ 90° . a dust cup assembly (T1) comprising a cup casing arranged vertically, an airflow generation device , and a cyclone separation device , the airflow generation device and the cyclone separation device being arranged in the cup casing , the airflow generation device being arranged above the cyclone separation device and located at a downstream side of the cyclone separation device , and an air vent being formed in a top of the cup casing ; a suction nozzle assembly (T2) mounted to the cup casing and defining a suction channel (S1); a handle assembly (T3) mounted to the cup casing and used to be held; characterised in that an inner side of the air vent is provided with an air guide surface to adjust a blowing direction of the air vent , and an included angle α between an extension line of the air guide surface and a connection line between a central point of the air vent and a central point of a dust cup is projected onto a horizontal plane and satisfies: 10° ≤ α ≤ 90° .
A binocular having two tubes which for focusing comprise axially displaceable focusing means , and having a joint focusing device , wherein the focusing device comprises a housing and a rotary knob , and the rotary knob is axially displaceable on the housing , wherein the rotary knob is rotatably coupled to a focusing gear in a focusing position and the rotary knob is rotatably coupled to a diopter gear in a diopter balancing position, wherein the rotary knob comprises a locking mechanism for holding the rotary knob in the focusing position, characterized in that in order to produce a coupling of the rotary knob to the diopter gear , a switching hub is formed which is adjustable in the axial direction on a spline shaft of the rotary knob and is rotationally coupled to the spline shaft , - wherein the locking mechanism comprises a holding element and, in a locked position, the switching hub is positively fixed relative to the spline shaft by the holding element and thus axial displacement of the switching hub on the spline shaft is prevented, - and wherein the rotary knob is formed with an operating element and the locking mechanism can be activated and deactivated by the operating element. - wherein the locking mechanism comprises a holding element and, in a locked position, the switching hub is positively fixed relative to the spline shaft by the holding element and thus axial displacement of the switching hub on the spline shaft is prevented, - and wherein the rotary knob is formed with an operating element and the locking mechanism can be activated and deactivated by the operating element.
A method performed by a wireless device in a communication network supporting dual connectivity, the method comprising: when being connected to a first and a second network node : - receiving an Instant Uplink Access, IUA, grant from the first network node , indicating at least a periodicity of a semi-persistent scheduling, the IUA being a form of prescheduling to allow uplink transmission of data without a Scheduling Request; and when having information to be transmitted in the UL to the first network node : - determining whether being scheduled for UL transmission by the second network node in a resource associated with the IUA grant, and: when not being scheduled: - transmitting UL information to the first network node in the resource associated with IUA, and, when being scheduled: - refraining from transmitting the UL information to the first network node in the resource associated with IUA. - receiving an Instant Uplink Access, IUA, grant from the first network node , indicating at least a periodicity of a semi-persistent scheduling, the IUA being a form of prescheduling to allow uplink transmission of data without a Scheduling Request; and - determining whether being scheduled for UL transmission by the second network node in a resource associated with the IUA grant, and: - transmitting UL information to the first network node in the resource associated with IUA, - refraining from transmitting the UL information to the first network node in the resource associated with IUA.
A method of monitoring an area for a change in an environmental parameter, comprising: providing at least two passive LC sensors (S n ) each having a coil and a capacitor connected to the coil , which capacitor is sensitive to the environmental parameter; characterised by : placing each of the at least two sensors (S n ) at a different location in said area such that an array (A) of sensors (S n ) is formed in which each two adjacent sensors (S n ) are inductively coupled via their coils ; feeding an excitation signal (SG) into the array (A) at a first sensor (S 1 ) of the array (A) and measuring a system response (SR) of the array (A) at said first or a second sensor (S 1 , S N ) of the array (A) ; determining a deviation (D) of the system response (SR) from a reference response (SR ref ); and detecting a change in the environmental parameter when the deviation (D) exceeds a predetermined threshold (T). providing at least two passive LC sensors (S n ) each having a coil and a capacitor connected to the coil , which capacitor is sensitive to the environmental parameter; characterised by : placing each of the at least two sensors (S n ) at a different location in said area such that an array (A) of sensors (S n ) is formed in which each two adjacent sensors (S n ) are inductively coupled via their coils ; feeding an excitation signal (SG) into the array (A) at a first sensor (S 1 ) of the array (A) and measuring a system response (SR) of the array (A) at said first or a second sensor (S 1 , S N ) of the array (A) ; determining a deviation (D) of the system response (SR) from a reference response (SR ref ); and detecting a change in the environmental parameter when the deviation (D) exceeds a predetermined threshold (T). placing each of the at least two sensors (S n ) at a different location in said area such that an array (A) of sensors (S n ) is formed in which each two adjacent sensors (S n ) are inductively coupled via their coils ; feeding an excitation signal (SG) into the array (A) at a first sensor (S 1 ) of the array (A) and measuring a system response (SR) of the array (A) at said first or a second sensor (S 1 , S N ) of the array (A) ; determining a deviation (D) of the system response (SR) from a reference response (SR ref ); and detecting a change in the environmental parameter when the deviation (D) exceeds a predetermined threshold (T).
Steering column for a motor vehicle, with a control unit , in which a steering spindle is mounted rotatably about a longitudinal axis , and with a supporting unit , which is designed to connect the control unit to the body of a motor vehicle and which comprises two side cheeks , between which the control unit is disposed and which comprise openings running transversely to the longitudinal axis , through which a clamping bolt of a clamping device extends, which comprises a lift mechanism , which bears against the one side cheek and can be brought into a fixation position for exerting a tension force on the clamping bolt , which bears against the other side cheek across an abutment, for the clamping of the side cheeks to the control unit , wherein the abutment comprises a fastening element , which is fixed relative to the longitudinal dimension of the clamping bolt and connected in tension resistant manner to a fastening section of the clamping bolt , characterized in that the fastening element comprises a head section , which has a support surface which can be braced against the side cheek , from which a shaft section projects, which extends through the opening of the side cheek and is connected to the fastening section of the clamping bolt .
A method of monitoring electrical equipment comprising: depending on an application having a target element size and target distance, selecting a sensor model from plural available sensor models, the sensor models calibrated with respect to groupings pertaining to different ranges of target element size and target distance with fields of view of the sensors extending beyond an edge of the target element; positioning a sensor of the selected sensor model to view the target element of the electrical equipment at a target distance therefrom, the field of view of the sensor extending beyond the edge of the target element, the sensor comprising a thermopile having a cold junction and the cold junction of the sensor being at a temperature of a background ambient environment inside a cabinet surrounding the target element of the electrical equipment; and detecting a voltage output of the sensor to provide an indication of temperature differential between the target element of the electrical equipment and background ambient. depending on an application having a target element size and target distance, selecting a sensor model from plural available sensor models, the sensor models calibrated with respect to groupings pertaining to different ranges of target element size and target distance with fields of view of the sensors extending beyond an edge of the target element; positioning a sensor of the selected sensor model to view the target element of the electrical equipment at a target distance therefrom, the field of view of the sensor extending beyond the edge of the target element, the sensor comprising a thermopile having a cold junction and the cold junction of the sensor being at a temperature of a background ambient environment inside a cabinet surrounding the target element of the electrical equipment; and detecting a voltage output of the sensor to provide an indication of temperature differential between the target element of the electrical equipment and background ambient.
A HEMT device, comprising: - a buffer layer on a substrate , the buffer layer including AlGaN; - a semiconductor layer on the buffer layer ; - an isolation layer on the semiconductor layer , the isolation layer having a bi-layer structure with a lower layer including AlGaN and an upper layer including AlGaN; - a source and a drain which are in contact with the semiconductor layer ; and a gate between the source and the drain formed on the lower layer of the isolation layer, said gate being formed in a trench in the upper layer of the isolation layer; - a channel in the semiconductor layer under the gate is pinched off; wherein the Al composition of the upper layer of the isolation layer is larger than the Al composition of the lower layer of the isolation layer, wherein: - the Al composition of the buffer layer is between 5-15 %, - the Al composition of the lower layer of the isolation layer is close to the Al composition of the buffer layer , characterized in that the thickness of the semiconductor layer is between 10 and 30 nm, and in that the Al composition of the upper layer of the isolation layer is between 25-45 %. - a buffer layer on a substrate , the buffer layer including AlGaN; - a semiconductor layer on the buffer layer ; - an isolation layer on the semiconductor layer , the isolation layer having a bi-layer structure with a lower layer including AlGaN and an upper layer including AlGaN; - a source and a drain which are in contact with the semiconductor layer ; and a gate between the source and the drain formed on the lower layer of the isolation layer, said gate being formed in a trench in the upper layer of the isolation layer; - a channel in the semiconductor layer under the gate is pinched off; - the Al composition of the buffer layer is between 5-15 %, - the Al composition of the lower layer of the isolation layer is close to the Al composition of the buffer layer ,
A computer-implemented method, comprising: presenting a first plurality of setting options (202-A, 202-B, 202-C, 302-A, 302-B) associated with an audio parameter on a user interface , wherein the first plurality of setting options comprises a first option (202-B, 302-A) having a same value as a first setting of the audio parameter and a second option (202-C, 302-B) having a first value different than the first setting; receiving a selection of one of the first option and the second option; based on the selection, presenting a second plurality of setting options (206-A, 206-B, 206-C, 208-A, 208-B, 208-C, 304-A, 304-B, 306-A, 306-B) associated with the audio parameter on the user interface , wherein the second plurality of setting options comprises a third option (206-B, 208-B, 304-A, 306-A) having the same value as a second setting of the audio parameter and a fourth option (206-C, 208-C, 304-B, 306-B) having a second value different than the second setting, the second setting being the value of the selected one of the first and the second option; and setting the value of the audio parameter based on the accumulation the values of the selected one of the first and second option and a selected one of the third and fourth option, wherein the first value corresponds to a change from the first setting by a first magnitude, and the second value corresponds to a change from the second setting by a second magnitude, and wherein the second magnitude is equal to or smaller than the first magnitude. presenting a first plurality of setting options (202-A, 202-B, 202-C, 302-A, 302-B) associated with an audio parameter on a user interface , wherein the first plurality of setting options comprises a first option (202-B, 302-A) having a same value as a first setting of the audio parameter and a second option (202-C, 302-B) having a first value different than the first setting; receiving a selection of one of the first option and the second option; based on the selection, presenting a second plurality of setting options (206-A, 206-B, 206-C, 208-A, 208-B, 208-C, 304-A, 304-B, 306-A, 306-B) associated with the audio parameter on the user interface , wherein the second plurality of setting options comprises a third option (206-B, 208-B, 304-A, 306-A) having the same value as a second setting of the audio parameter and a fourth option (206-C, 208-C, 304-B, 306-B) having a second value different than the second setting, the second setting being the value of the selected one of the first and the second option; and setting the value of the audio parameter based on the accumulation the values of the selected one of the first and second option and a selected one of the third and fourth option, wherein the first value corresponds to a change from the first setting by a first magnitude, and the second value corresponds to a change from the second setting by a second magnitude, and wherein the second magnitude is equal to or smaller than the first magnitude.
Air distributor unit comprising a. a tubular base body having an outer side wall encompassing an inner space , the tubular base body being made from a polymeric material and extending in a longitudinal direction of the air distributor unit between a first end and a second end , and comprising at the first end a first opening and at the second end a second opening , wherein the tubular base body is injection-molded and configured as a single-piece tubular base body; b. wherein the cross-sectional open area of the first opening and the cross-sectional open area of the second opening are each larger than the inner cross-sectional area of the outer side wall of the tubular base-body between the first end and the second end of the tubular base body; characterized in that the tubular base body comprises a first flange around the first opening and a second flange around the second opening . a. a tubular base body having an outer side wall encompassing an inner space , the tubular base body being made from a polymeric material and extending in a longitudinal direction of the air distributor unit between a first end and a second end , and comprising at the first end a first opening and at the second end a second opening , wherein the tubular base body is injection-molded and configured as a single-piece tubular base body; b. wherein the cross-sectional open area of the first opening and the cross-sectional open area of the second opening are each larger than the inner cross-sectional area of the outer side wall of the tubular base-body between the first end and the second end of the tubular base body;
Receiver for receiving frequency signals, the receiver comprising: - a processing stage for converting the frequency signals into baseband signals and for processing the baseband signals, the baseband signals comprising preamble symbols (SP, LP) and data symbols (D1, D2); and - a synchronisation stage for synchronising the processing stage and comprising a first part for performing a coarse time synchronisation through autocorrelating samples of a group of preamble symbols (t1, t2, t3) of a frame and comprising a second part for performing a fine time synchronisation through crosscorrelating samples of a further group of preamble symbols (t10, G1) of the frame with predefined samples. - a processing stage for converting the frequency signals into baseband signals and for processing the baseband signals, the baseband signals comprising preamble symbols (SP, LP) and data symbols (D1, D2); and - a synchronisation stage for synchronising the processing stage and comprising a first part for performing a coarse time synchronisation through autocorrelating samples of a group of preamble symbols (t1, t2, t3) of a frame and comprising a second part for performing a fine time synchronisation through crosscorrelating samples of a further group of preamble symbols (t10, G1) of the frame with predefined samples.
A method for providing an operating signal to a motor vehicle , with the following steps: a) receiving a signal that an authorized user is authenticated, b) monitoring of an operating area outside the motor vehicle by an optical sensor system , c) detecting a distance (a) of an object in the operating area to an optical sensor by the optical sensor system , d) comparing of the distance (a) with a preset by the optical sensor system , e) providing an operating signal when the preset is met, wherein the operating signal is a signal for unlocking and/or locking and/or opening and/or closing a movable part of the motor vehicle . a) receiving a signal that an authorized user is authenticated, b) monitoring of an operating area outside the motor vehicle by an optical sensor system , c) detecting a distance (a) of an object in the operating area to an optical sensor by the optical sensor system , d) comparing of the distance (a) with a preset by the optical sensor system , e) providing an operating signal when the preset is met,
Month and leap year display mechanism for a timepiece , wherein said mechanism comprises a leap year display integrated in a month display, said mechanism comprising a movement or being arranged to cooperate with a movement , which movement is arranged to drive, via a control mechanism comprised in said mechanism , a month display wheel set rotating about an axis of rotation (D) and arranged underneath a cover plate or underneath a dial , and wherein a month window contained within an angular sector of 90° about said axis of rotation (D) is arranged to allow a user to see a quarter of said month display wheel set , the other three-quarters of said month display wheel set being concealed from the user, and wherein said control mechanism is arranged to make said month display wheel set complete one revolution in four years, and wherein said month display wheel set bears, over an angular sector of 90°, at least one characteristic leap year marking, and either carries indices, each arranged to indicate one month on a static month scale of said dial , or equidistant month markings wherein one of the month markings is pointed to by a fixed mark of said dial , wherein said control mechanism comprises an input wheel set which is arranged to be driven by the hour wheel of said movement or by a train meshing with said hour wheel or by a date mechanism , said input wheel set comprising a finger arranged to pivot a first star wheel integral with an intermediate wheel which meshes with a transformation train to drive a stop wheel which comprises hollows arranged to cooperate with a click returned by a spring to a rest position, said stop wheel being integral with a second star wheel , whose teeth are arranged to drive pins comprised in said month display wheel set when said stop wheel pivots and to hold said pins in position when said stop wheel is kept stationary by said click in the absence of pivoting of said first star wheel .