mhurhangee/patent-ind-claim-en huggingface dataset:
Use of an adhesive strip as winding tape for sheathing cables in automobiles, having a textile support that includes at least a first fabric and a second fabric which are connected to each other, and having an adhesive coating on at least one side of the support , wherein the threads of the respective fabrics have a linear density of more than 100 dtex, characterized in that the two fabrics are coupled together solely by connecting threads intrinsic to the fabrics.
A cabin for a vehicle comprising: a cabin wall having an opening , a door for opening and closing the opening , wherein the door is moved about a rotational point and comprises a movable door leaf which has a concentric segment and the cabin wall forms a door stop in the closing direction of the door , characterized in that the door leaf further has a linear segment with a fixed end (134-1) and a free end (134-2), wherein the linear segment adjoins the concentric segment at its fixed end (134-1) in the closing direction of the door , the free end (134-2) of the door leaf forms a closing edge in the closing direction of the door , said closing edge lying against the door stop when the door is closed. a cabin wall having an opening , a door for opening and closing the opening , wherein the door is moved about a rotational point and comprises a movable door leaf which has a concentric segment and the cabin wall forms a door stop in the closing direction of the door , characterized in that the door leaf further has a linear segment with a fixed end (134-1) and a free end (134-2), wherein the linear segment adjoins the concentric segment at its fixed end (134-1) in the closing direction of the door , the free end (134-2) of the door leaf forms a closing edge in the closing direction of the door , said closing edge lying against the door stop when the door is closed.
A method for beamforming calibration, comprising: generating a plurality of calibration signals corresponding to a plurality of channels, respectively; propagating the plurality of calibration signals through at least portions of the plurality of channels, respectively; comparing signal characteristics of a first signal of the propagated plurality of calibration signals with corresponding signal characteristics of a second signal of the propagated plurality of calibration signals; identifying at least one adjustment in gain, phase, or timing for at least one of the plurality of channels based on a result of the comparing and at least in part upon one or more predetermined threshold differences in gain, phase, or timing; and wherein the channels are transmitter channels of a transmitter module and the method further comprises adjusting a data signal transmitted via the at least one of the plurality of transmitter channels based on the adjustment, or wherein the channels are receiver channels of a receiver module and the method further comprises adjusting a data signal received via the at least one of the plurality of receiver channels based on the adjustment. generating a plurality of calibration signals corresponding to a plurality of channels, respectively; propagating the plurality of calibration signals through at least portions of the plurality of channels, respectively; comparing signal characteristics of a first signal of the propagated plurality of calibration signals with corresponding signal characteristics of a second signal of the propagated plurality of calibration signals; identifying at least one adjustment in gain, phase, or timing for at least one of the plurality of channels based on a result of the comparing and at least in part upon one or more predetermined threshold differences in gain, phase, or timing; and wherein the channels are transmitter channels of a transmitter module and the method further comprises adjusting a data signal transmitted via the at least one of the plurality of transmitter channels based on the adjustment, or wherein the channels are receiver channels of a receiver module and the method further comprises adjusting a data signal received via the at least one of the plurality of receiver channels based on the adjustment.
A suction-enabled sponge holder comprising: (a) a sponge having a body portion, a front surface including a permanent cavity extending into the body portion from the front surface (b) a suction cup ; (c) a protrusion that extends from said suction cup; and (d) a spike that extends from said suction cup adjacent to said protrusion; wherein: said protrusion slidably engages a permanent cavity extending into the sponge from the front surface when said sponge is either pushed onto or pulled away from said suction-enabled sponge holder; said spike penetrates said sponge at said front surface to form a temporary cavity adjacent to said permanent cavity when said sponge is pushed onto said suction-enabled sponge holder; said temporary cavity closes when said sponge is pulled away from said suction-enabled sponge holder. (a) a sponge having a body portion, a front surface including a permanent cavity extending into the body portion from the front surface (b) a suction cup ; (c) a protrusion that extends from said suction cup; and (d) a spike that extends from said suction cup adjacent to said protrusion; wherein: said protrusion slidably engages a permanent cavity extending into the sponge from the front surface when said sponge is either pushed onto or pulled away from said suction-enabled sponge holder; said spike penetrates said sponge at said front surface to form a temporary cavity adjacent to said permanent cavity when said sponge is pushed onto said suction-enabled sponge holder; said temporary cavity closes when said sponge is pulled away from said suction-enabled sponge holder.
A method for a User Equipment, UE, operating in a wireless communication system, the method comprising: configuring (S1001) with a first Schedule Request, SR, resource configuration and a second SR resource configuration; checking (S1003) whether or not data is a first data on logical channels mapped to the first SR resource configuration, when the data becomes available for a first logical channel mapped to the first SR resource configuration, in a state that the first logical channel has a lower priority than a highest priority among priorities of logical channels having data, which are mapped to the second SR resource configuration; and triggering (S1005) a first buffer status reporting, BSR, if the data is the first data on logical channels mapped to the first SR resource configuration, triggering a SR (S1009) for the first SR configuration if there is no available UL resource for transmitting the first BSR; and transmitting the SR to the network, the method being characterized in that: the UE doesn't trigger (S1011) a second BSR if there is a pending SR on the first SR resource configuration, when a second data becomes available for a second logical channel mapped to the first SR resource configuration, wherein the second data becomes available for the second logical channel after the data becomes available for the first logical channel. configuring (S1001) with a first Schedule Request, SR, resource configuration and a second SR resource configuration; checking (S1003) whether or not data is a first data on logical channels mapped to the first SR resource configuration, when the data becomes available for a first logical channel mapped to the first SR resource configuration, in a state that the first logical channel has a lower priority than a highest priority among priorities of logical channels having data, which are mapped to the second SR resource configuration; and triggering (S1005) a first buffer status reporting, BSR, if the data is the first data on logical channels mapped to the first SR resource configuration, triggering a SR (S1009) for the first SR configuration if there is no available UL resource for transmitting the first BSR; and transmitting the SR to the network, the method being characterized in that: the UE doesn't trigger (S1011) a second BSR if there is a pending SR on the first SR resource configuration, when a second data becomes available for a second logical channel mapped to the first SR resource configuration, wherein the second data becomes available for the second logical channel after the data becomes available for the first logical channel. the UE doesn't trigger (S1011) a second BSR if there is a pending SR on the first SR resource configuration, when a second data becomes available for a second logical channel mapped to the first SR resource configuration, wherein the second data becomes available for the second logical channel after the data becomes available for the first logical channel.
A flat strap holding apparatus , comprising: a chassis , the chassis including a first gripping area and a second gripping area; a first rotating camlock hub , mounted in the chassis , the first rotating camlock hub including a first gripping surface , the first gripping surface oriented such when the first rotating camlock hub rotates the first gripping surface is opposed to the first gripping area; a second rotating camlock hub , mounted in the chassis , the second rotating camlock hub including a second gripping surface , the second gripping surface oriented such when the second rotating camlock hub rotates the second gripping surface is opposed to the second gripping area, wherein the first gripping surface of the first rotating camlock hub rotates towards the first gripping area when the first rotating camlock hub is rotated in a first direction and the second gripping surface of the second rotating camlock hub rotates towards the second gripping area when the second rotating camlock hub is rotated in the first direction, characterized in that the first and second gripping areas are approximately orthogonal to each other. a chassis , the chassis including a first gripping area and a second gripping area; a first rotating camlock hub , mounted in the chassis , the first rotating camlock hub including a first gripping surface , the first gripping surface oriented such when the first rotating camlock hub rotates the first gripping surface is opposed to the first gripping area; a second rotating camlock hub , mounted in the chassis , the second rotating camlock hub including a second gripping surface , the second gripping surface oriented such when the second rotating camlock hub rotates the second gripping surface is opposed to the second gripping area, wherein the first gripping surface of the first rotating camlock hub rotates towards the first gripping area when the first rotating camlock hub is rotated in a first direction and the second gripping surface of the second rotating camlock hub rotates towards the second gripping area when the second rotating camlock hub is rotated in the first direction, characterized in that the first and second gripping areas are approximately orthogonal to each other.
A device comprising: a ring assembly configured to mount to a landing gear strut piston , the ring assembly comprising: two independently mounted rings , each comprising a pair of joined C-shaped sections; a mounting surface located on an inner surface of the two rings; a plurality of sensor mount locations on the two rings; a plurality of radial strain compensation devices on the two rings; two guide rings configured to mount to the landing gear strut piston and configured to be received by the mounting surface located on the inner surface of the two rings, wherein the sensor mount locations each include a longitudinal axis that is perpendicular to a normal to the inner surface, wherein one of the sensor mount locations on a first of the two rings has the same longitudinal axis as one of the sensor mount locations on the other ring. a ring assembly configured to mount to a landing gear strut piston , the ring assembly comprising: two independently mounted rings , each comprising a pair of joined C-shaped sections; a mounting surface located on an inner surface of the two rings; a plurality of sensor mount locations on the two rings; a plurality of radial strain compensation devices on the two rings; two independently mounted rings , each comprising a pair of joined C-shaped sections; a mounting surface located on an inner surface of the two rings; a plurality of sensor mount locations on the two rings; a plurality of radial strain compensation devices on the two rings; two guide rings configured to mount to the landing gear strut piston and configured to be received by the mounting surface located on the inner surface of the two rings, wherein the sensor mount locations each include a longitudinal axis that is perpendicular to a normal to the inner surface, wherein one of the sensor mount locations on a first of the two rings has the same longitudinal axis as one of the sensor mount locations on the other ring.
A LED circuit , comprising: a current drive circuit (B1); an LED arrangement (D10); an output capacitor (C2); a current sensor (R3) for sensing when current flows through the LED arrangement (D10), wherein the current sensor (R3) is coupled in series with the LED arrangement (D10) and wherein the series arrangement of the current sensor (R3) and the LED arrangement (D10) is coupled in parallel with the output capacitor (C2), wherein the current drive circuit is adapted to drive a current through the LED arrangement (D10), the current sensor (R3) and the output capacitor (C2); wherein the LED circuit is configured to receive a control signal (PWM) for setting the current level delivered by the current drive circuit (B1); and an override arrangement configured for overriding the current level setting of the control signal to a default current level, the LED circuit being characterized in that the LED circuit is adapted to deactivate the override arrangement in response to the sensed current by the current sensor (R3) exceeding a threshold current, wherein the default current level is a maximum current level setting. a current drive circuit (B1); an LED arrangement (D10); an output capacitor (C2); a current sensor (R3) for sensing when current flows through the LED arrangement (D10), wherein the current sensor (R3) is coupled in series with the LED arrangement (D10) and wherein the series arrangement of the current sensor (R3) and the LED arrangement (D10) is coupled in parallel with the output capacitor (C2), wherein the current drive circuit is adapted to drive a current through the LED arrangement (D10), the current sensor (R3) and the output capacitor (C2); wherein the LED circuit is configured to receive a control signal (PWM) for setting the current level delivered by the current drive circuit (B1); and an override arrangement configured for overriding the current level setting of the control signal to a default current level, the LED circuit being characterized in that the LED circuit is adapted to deactivate the override arrangement in response to the sensed current by the current sensor (R3) exceeding a threshold current, wherein the default current level is a maximum current level setting.
An apparatus , comprising: a control module comprising a communication interface configured to transmit and receive data to/from at least one external device and at least one bus slot configured to receive a power output module ; at least one power output module removably attachable to at least one of the control module and one or more power output modules with a bus connection; and at least one bus configured to provide a data connection between the control module and the at least one power output module ; wherein the at least one power output module is configured to dispatch monitoring data to the control module via the bus connection, the monitoring data comprising a power output module specific identifier and energy consumption data associated to a power output of the power output module ; , characterized by the control module is configured to individually control each power output module based on the monitoring data and data received from the at least one external device ; the at least one power output module comprises at least one of a bus connector or a bus slot configured to removably attach the power output module to at least one of the control module or one or more power output modules ; and wherein the bus connector or bus slot is configured to connect the modules so that the control module is configured to individually control each power output module. a control module comprising a communication interface configured to transmit and receive data to/from at least one external device and at least one bus slot configured to receive a power output module ; at least one power output module removably attachable to at least one of the control module and one or more power output modules with a bus connection; and at least one bus configured to provide a data connection between the control module and the at least one power output module ; wherein the at least one power output module is configured to dispatch monitoring data to the control module via the bus connection, the monitoring data comprising a power output module specific identifier and energy consumption data associated to a power output of the power output module ; , characterized by the control module is configured to individually control each power output module based on the monitoring data and data received from the at least one external device ; the at least one power output module comprises at least one of a bus connector or a bus slot configured to removably attach the power output module to at least one of the control module or one or more power output modules ; and wherein the bus connector or bus slot is configured to connect the modules so that the control module is configured to individually control each power output module.
Pre assembled canvas for painting or printing which allows flat storage and transportation, it is easy to assemble and has supports with different thicknesses, comprising: a foldable supporting structure made up of a central panel having a quadrangular shape, four side panels forming a perimeter around the central panel and four rear panels interlocked to each of the side panels , where said rear panels are rectangular with smaller sides and have through-holes adjacent to each of the smaller sides , and said panels are separated by "V" longitudinal grooves with angle between 90°/100° which allows perpendicular folding of each of the panels; a flexible layered painting or printing substrate with a front face and a rear face and having a quadrangular shape with square cuts at each vertex, where the sides of the square cuts match the width of the side panels plus the width of the rear panels ; and said canvas has fastening means attached to the rear panels , characterized in that the painting substrate is attached to the foldable supporting structure by using staples , on the rear panels , that form a perimeter on the rear panels , once the foldable supporting structure is folded; and the fastening means having a framing squared-shaped piece located under each corner on the rear panels when the foldable supporting structure is folded, which has through-holes , and some snap-on connectors , which are inserted through said through-holes of the rear panels and the through-holes of the square-shaped pieces generating the splicing among the panels and the square-shaped pieces .
A system for a standards traceable verification of a vibratory meter , the system comprising: a storage having a baseline meter verification value of the vibratory meter ; the system further comprising a processing system in communication with the storage , said processing system being configured to: obtain the baseline meter verification value from the storage ; and determine a relationship between the baseline meter verification value and a calibration value of the vibratory meter , said calibration value being traceable to a measurement standard; wherein the baseline meter verification value is one of a baseline mass meter verification value and a baseline stiffness meter verification value of the vibratory meter; and wherein the calibration value is one of a flow calibration factor and a tube period of the vibratory meter. a storage having a baseline meter verification value of the vibratory meter ; the system further comprising a processing system in communication with the storage , said processing system being configured to: obtain the baseline meter verification value from the storage ; and determine a relationship between the baseline meter verification value and a calibration value of the vibratory meter , said calibration value being traceable to a measurement standard; obtain the baseline meter verification value from the storage ; and determine a relationship between the baseline meter verification value and a calibration value of the vibratory meter , said calibration value being traceable to a measurement standard; wherein the baseline meter verification value is one of a baseline mass meter verification value and a baseline stiffness meter verification value of the vibratory meter; and wherein the calibration value is one of a flow calibration factor and a tube period of the vibratory meter.
A control method of an air conditioner, wherein the air conditioner comprises an outdoor unit , one or more indoor units to heat an indoor space through refrigerant supplied from the outdoor unit , and a hot water generator to heat water through the refrigerant supplied from the outdoor unit , controlling supply of the refrigerant by a control unit so that the refrigerant is first supplied to one or more indoor units in operation from the outdoor unit , and is then supplied to the hot water generator, characterized by wherein the controlling supply of the refrigerant is executed by controlling an opening degree of a hot water expansion valve provided at the hot water generator ; sensing a pressure at a discharge side of a compressor of the outdoor unit; controlling a supply of refrigerant to one or more of the one or more indoor units and the hot water generator based on the sensed pressure of the refrigerant at the discharge side of the compressor of the outdoor unit to prevent the refrigerant from cooling the one or more indoor units or the hot water generator by; identifying whether none of the one or more indoor units is in operation; identifying whether the pressure at the discharge side of a compressor of the outdoor unit is less than a reference pressure; and if the identified pressure at the discharge side of the compressor is less than the reference pressure and if anyone of the one or more one indoor units is identified as being in operation, then opening the hot water expansion valve to a minimum opening degree. controlling supply of the refrigerant by a control unit so that the refrigerant is first supplied to one or more indoor units in operation from the outdoor unit , and is then supplied to the hot water generator, characterized by wherein the controlling supply of the refrigerant is executed by controlling an opening degree of a hot water expansion valve provided at the hot water generator ; sensing a pressure at a discharge side of a compressor of the outdoor unit; controlling a supply of refrigerant to one or more of the one or more indoor units and the hot water generator based on the sensed pressure of the refrigerant at the discharge side of the compressor of the outdoor unit to prevent the refrigerant from cooling the one or more indoor units or the hot water generator by; identifying whether none of the one or more indoor units is in operation; identifying whether the pressure at the discharge side of a compressor of the outdoor unit is less than a reference pressure; and if the identified pressure at the discharge side of the compressor is less than the reference pressure and if anyone of the one or more one indoor units is identified as being in operation, then opening the hot water expansion valve to a minimum opening degree.