mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a user equipment, UE , the method comprising: receiving, from a base station , a fractional subframe transmission on a channel in an unlicensed spectrum, after the channel is sensed to be idle; identifying, from the fractional subframe transmission, that a start position of the fractional subframe transmission is one of a plurality of potential positions, wherein, the plurality of potential positions is set in advance on the unlicensed spectrum, each of the plurality of potential positions is mutually spaced with an interval of a duration of a plurality of symbols, the plurality of potential positions is located within a subframe, and the plurality of potential positions includes symbol 0 in the subframe. receiving, from a base station , a fractional subframe transmission on a channel in an unlicensed spectrum, after the channel is sensed to be idle; identifying, from the fractional subframe transmission, that a start position of the fractional subframe transmission is one of a plurality of potential positions, wherein, the plurality of potential positions is set in advance on the unlicensed spectrum, each of the plurality of potential positions is mutually spaced with an interval of a duration of a plurality of symbols, the plurality of potential positions is located within a subframe, and the plurality of potential positions includes symbol 0 in the subframe. the plurality of potential positions is set in advance on the unlicensed spectrum, each of the plurality of potential positions is mutually spaced with an interval of a duration of a plurality of symbols, the plurality of potential positions is located within a subframe, and the plurality of potential positions includes symbol 0 in the subframe.
A locking mechanism for a product-dispensing device , the locking mechanism comprising: a locking gear rotatable between a first position and a second position and including a locking arm configured to inhibit rotation of an actuator in the second position; a button configured to translate between a third position and a fourth position, the button operable to rotate the locking gear between the first position and the second position upon translation between the third position and the fourth position; a biasing gear coupled to the locking gear and configured to bias the locking gear toward the second position; and a biasing spring coupled to the biasing gear, and wherein the biasing gear is rotatable between a fifth position where the locking gear is in the first position and a sixth position where the locking gear is in the second position, the biasing spring configured to bias the biasing gear toward the sixth position. a locking gear rotatable between a first position and a second position and including a locking arm configured to inhibit rotation of an actuator in the second position; a button configured to translate between a third position and a fourth position, the button operable to rotate the locking gear between the first position and the second position upon translation between the third position and the fourth position; a biasing gear coupled to the locking gear and configured to bias the locking gear toward the second position; and a biasing spring coupled to the biasing gear, and wherein the biasing gear is rotatable between a fifth position where the locking gear is in the first position and a sixth position where the locking gear is in the second position, the biasing spring configured to bias the biasing gear toward the sixth position.
A design method for a vehicle control system including a plurality of zone ECUs (21-27) each of which is disposed in each predetermined zone of a vehicle and a central processing unit that integrally controls the zone ECUs (21-27), where a method of determining whether an operation-signal generation unit that generates an operation signal for operating each actuator (D11, 162 -164) installed in the vehicle on a basis of operation information from an information acquisition unit installed in the vehicle is provided in a first zone ECU (21-27) to which an actuator to be operated is connected among the zone ECUs or in the central processing unit , the method is characterised in that an allowable delay time that is allowed from when the operation information is input to the information acquisition unit to when a control signal of the actuator (D11) to be operated is output is set in the actuator (D11) to be operated, and in a case where the allowable delay time is equal to or longer than a predetermined first reference time, the operation signal generation unit for operating actuator (162 -164) is incorporated in the central processing unit , and in a case where the allowable delay time is less than a second predetermined reference time (T10), the operation-signal generation unit of the actuator (D11) to be operated is provided in the first zone ECU (21-27). a method of determining whether an operation-signal generation unit that generates an operation signal for operating each actuator (D11, 162 -164) installed in the vehicle on a basis of operation information from an information acquisition unit installed in the vehicle is provided in a first zone ECU (21-27) to which an actuator to be operated is connected among the zone ECUs or in the central processing unit , the method is characterised in that an allowable delay time that is allowed from when the operation information is input to the information acquisition unit to when a control signal of the actuator (D11) to be operated is output is set in the actuator (D11) to be operated, and in a case where the allowable delay time is equal to or longer than a predetermined first reference time, the operation signal generation unit for operating actuator (162 -164) is incorporated in the central processing unit , and in a case where the allowable delay time is less than a second predetermined reference time (T10), the operation-signal generation unit of the actuator (D11) to be operated is provided in the first zone ECU (21-27).
A method for establishing a connection, comprising steps: transmitting , by a group member device of a wireless device group, information about a group owner device of the wireless device group to a to-be-connected device, and enabling , by the group member device, the to-be-connected device and the group owner device to share a first password, wherein the first password is used by the to-be-connected device and the group owner device to establish a connection after the to-be-connected device and the group owner device discover each other, wherein: the transmitting , by the group member device, information about the group owner device to the to-be-connected device comprises: pre-generating, by the group member device according to a user instruction, a dynamic two-dimensional code to be scanned by the to-be-connected device, wherein the dynamic two-dimensional code comprises the information about the group owner device. transmitting , by a group member device of a wireless device group, information about a group owner device of the wireless device group to a to-be-connected device, and enabling , by the group member device, the to-be-connected device and the group owner device to share a first password, wherein the first password is used by the to-be-connected device and the group owner device to establish a connection after the to-be-connected device and the group owner device discover each other, wherein: the transmitting , by the group member device, information about the group owner device to the to-be-connected device comprises: pre-generating, by the group member device according to a user instruction, a dynamic two-dimensional code to be scanned by the to-be-connected device, wherein the dynamic two-dimensional code comprises the information about the group owner device.
A method of controlling a heater of an e-vaping device, the heater having at least a first operation mode in which a first amount of power is supplied to the heater by the e-vaping device, and a second operation mode in which a second amount of power greater than the first amount is supplied to the heater by the e-vaping device, the method comprising: detecting, by the e-vaping device, movements of the e-vaping device; generating (S2305), by the e-vaping device, quaternions based on the detected movements; generating, by the e-vaping device, movement features based on the generated quaternions; applying, by the e-vaping device, the generated movement features to a classifier; determining whether a hand-to-mouth gesture, HMG, occurred with respect to the e-vaping device based on an output of the classifier; and transitioning of the heater from the first operation mode to the second operation mode in response to determining that the HMG occurred, wherein the first operation mode is a mode in which no power is supplied to the heater by the e-vaping device, and the second operation mode is a mode in which an amount of power supplied to the heater by the e-vaping device is an amount that causes the heater to heat a pre-vapor formulation stored in the e-vaping device to a temperature below a boiling point of the pre-vapor formulation. detecting, by the e-vaping device, movements of the e-vaping device; generating (S2305), by the e-vaping device, quaternions based on the detected movements; generating, by the e-vaping device, movement features based on the generated quaternions; applying, by the e-vaping device, the generated movement features to a classifier; determining whether a hand-to-mouth gesture, HMG, occurred with respect to the e-vaping device based on an output of the classifier; and transitioning of the heater from the first operation mode to the second operation mode in response to determining that the HMG occurred, wherein the first operation mode is a mode in which no power is supplied to the heater by the e-vaping device, and the second operation mode is a mode in which an amount of power supplied to the heater by the e-vaping device is an amount that causes the heater to heat a pre-vapor formulation stored in the e-vaping device to a temperature below a boiling point of the pre-vapor formulation.
An optical pressure sensor comprising: - a sensor housing ; - a Fabry-Perot interferometer optical pressure cell mounted within the sensor housing , characterized in that : - the Fabry-Perot interferometer optical pressure cell divides the sensor housing into a first fluid space and a second fluid space , the Fabry-Perot interferometer optical pressure cell comprising a front side exposed to a pressure in the first fluid space and a back side exposed to a pressure in the second fluid space ; and - the optical pressure sensor comprises a fluid communication arrangement allowing pressure equalization between the pressure in the first fluid space on the front side and the pressure in the second fluid space on the back side of the Fabry-Perot interferometer optical pressure cell . - a sensor housing ; - a Fabry-Perot interferometer optical pressure cell mounted within the sensor housing , - the Fabry-Perot interferometer optical pressure cell divides the sensor housing into a first fluid space and a second fluid space , the Fabry-Perot interferometer optical pressure cell comprising a front side exposed to a pressure in the first fluid space and a back side exposed to a pressure in the second fluid space ; and - the optical pressure sensor comprises a fluid communication arrangement allowing pressure equalization between the pressure in the first fluid space on the front side and the pressure in the second fluid space on the back side of the Fabry-Perot interferometer optical pressure cell .
An axle for a railway vehicle, such as a rail excavator, said axle comprising: - at least two bearings , - a hydraulic motor arranged between said bearings , - a drive shaft passing through said axle and leading to each of the two ends of said axle , and - a parking, or emergency, brake unit ; characterized in that said parking brake unit is arranged between said two bearings . - at least two bearings , - a hydraulic motor arranged between said bearings , - a drive shaft passing through said axle and leading to each of the two ends of said axle , and - a parking, or emergency, brake unit ;
A damper comprising a piston (P) provided with a rod , and a cylinder (S) storing the piston (P), and generating a braking force by a movement or relative movement of the piston (P), wherein the cylinder (S) is provided with width-side wall portions and thickness-side wall portions , has a flat shape in a cross section in a direction orthogonal to a moving direction (x) of the piston (P), and includes a connection portion , and the damper being characterized in that the rod includes a long hole , and the connection portion bridges the width-side wall portions on an open side of the cylinder (S) to allow the connection portion to pass through and allow the piston (P) to move along the moving direction (x) such that the long hole can prevent the piston (P) from coming off from the cylinder (S), and a movement on a piston side can be smoothly carried out, wherein the connection portion includes one portion of the width-side wall portion sectioned by a division groove provided in one of the width-side wall portions , and includes a movable piece provided with a bendable thin base portion and a free end engageable with an engaged portion formed in another of the width-side wall portions . wherein the cylinder (S) is provided with width-side wall portions and thickness-side wall portions , has a flat shape in a cross section in a direction orthogonal to a moving direction (x) of the piston (P), and includes a connection portion , and the damper being characterized in that the rod includes a long hole , and the connection portion bridges the width-side wall portions on an open side of the cylinder (S) to allow the connection portion to pass through and allow the piston (P) to move along the moving direction (x) such that the long hole can prevent the piston (P) from coming off from the cylinder (S), and a movement on a piston side can be smoothly carried out, wherein the connection portion includes one portion of the width-side wall portion sectioned by a division groove provided in one of the width-side wall portions , and includes a movable piece provided with a bendable thin base portion and a free end engageable with an engaged portion formed in another of the width-side wall portions .
A device for circularizing croissant dough that circularizes rolled-up croissant dough that has been bent at a centre to be formed into a U-shape and is conveyed by a conveyor , the device comprising: a first guide for reducing a width that is adapted to move a first end of the U-shaped croissant dough toward a centre of the U-shape; and a pusher that is adapted to vertically press the first end and a second end that are moved to the centre of the U-shape so as to stick one to the other; characterized in that the device further comprises: a plate that is adapted to be inserted under the second end of the U-shaped croissant dough and to lift a lower face of the second end above an upper face of the first end ; and a second guide for reducing the width that is adapted to slide on the plate to move the lifted second end toward the centre of the U-shape. a first guide for reducing a width that is adapted to move a first end of the U-shaped croissant dough toward a centre of the U-shape; and a pusher that is adapted to vertically press the first end and a second end that are moved to the centre of the U-shape so as to stick one to the other; characterized in that the device further comprises: a plate that is adapted to be inserted under the second end of the U-shaped croissant dough and to lift a lower face of the second end above an upper face of the first end ; and a second guide for reducing the width that is adapted to slide on the plate to move the lifted second end toward the centre of the U-shape. a plate that is adapted to be inserted under the second end of the U-shaped croissant dough and to lift a lower face of the second end above an upper face of the first end ; and a second guide for reducing the width that is adapted to slide on the plate to move the lifted second end toward the centre of the U-shape.
A pipe comprising: an axially extended bore including plastic or thermoplastic polymers defined by a corrugated outer wall having axially adjacent, outwardly-extending corrugation crests, separated by corrugation valleys; and an outer wrap applied to the outer wall, wherein: the outer wrap comprises fibers and plastic, and the outer wrap spans the corrugation crests producing a smooth outer surface, and wherein the corrugated outer wall is made from a different material to the outer wrap. an axially extended bore including plastic or thermoplastic polymers defined by a corrugated outer wall having axially adjacent, outwardly-extending corrugation crests, separated by corrugation valleys; and an outer wrap applied to the outer wall, wherein: the outer wrap comprises fibers and plastic, and the outer wrap spans the corrugation crests producing a smooth outer surface, and the outer wrap comprises fibers and plastic, and the outer wrap spans the corrugation crests producing a smooth outer surface, and wherein the corrugated outer wall is made from a different material to the outer wrap.
A poly(ester-anhydride) copolymer having alternating or semi-alternating ester and anhydride bonds of Formula wherein R' is a branched C 2 -C 40 alkenyl comprising a C 1 -C 10 alkyl - C 2 -C 20 alkenyl, wherein the C 1 -C 10 alkyl is α to the -O- of the ester bond; R" is a linear C 4 -C 22 alkyl; x and y, independently for each occurrence, is an integer selected from 1 and 2; and n is an integer from 2 to 1,000. R' is a branched C 2 -C 40 alkenyl comprising a C 1 -C 10 alkyl - C 2 -C 20 alkenyl, wherein the C 1 -C 10 alkyl is α to the -O- of the ester bond; R" is a linear C 4 -C 22 alkyl; x and y, independently for each occurrence, is an integer selected from 1 and 2; and n is an integer from 2 to 1,000.
Method for operating a communication system, the communication system comprising at least two separate transmitting antennas located on Earth and at least two receive antennas located with a distance from Earth, the transmitting antennas belonging to different gateways which are time and phase synchronized, and the receive antennas having directional receiving patterns which cover a common region on Earth in which the at least two separate transmitting antennas are located, the method comprising the following steps: - precoding the symbol sequences before transmission from the transmitting antennas to the receive antennas in order to reduce spatial interference between the symbol sequences by spatial multiplexing, - simultaneously transmitting symbol sequences from the transmitting antennas to the receive antennas by spatial and frequency multiplexing in a time and phase synchronized fashion, the symbol sequences being transmitted from the different transmitting antennas being different from each other but being transmitted on the same frequencies, and - forwarding the symbol sequences from the receive antennas to multiple ground receivers on Earth, wherein at least a part of the ground receivers form a MIMO system. - precoding the symbol sequences before transmission from the transmitting antennas to the receive antennas in order to reduce spatial interference between the symbol sequences by spatial multiplexing, - simultaneously transmitting symbol sequences from the transmitting antennas to the receive antennas by spatial and frequency multiplexing in a time and phase synchronized fashion, the symbol sequences being transmitted from the different transmitting antennas being different from each other but being transmitted on the same frequencies, and - forwarding the symbol sequences from the receive antennas to multiple ground receivers on Earth, wherein at least a part of the ground receivers form a MIMO system.
A display panel, comprising: a first substrate ; a second substrate facing the first substrate ; a sealant layer between the first substrate and the second substrate sealing the first substrate and the second substrate together to form a cell; and a first conductive line layer comprising a first continuous conductive line configured to detect a crack in the sealant layer , wherein the first conductive line layer is in contact with the sealant layer ; and at least one bonding lead in a driver integrated circuit bonding area, the at least one bonding lead being electrically connected to the first conductive line layer , characterized in that the line width of the first conductive line layer is approximately 1/200 to approximately 1/50 of the width of the sealant layer ; the line thickness of the first conductive line layer is approximately 1/20 to approximately 1/5 of the thickness of the sealant layer ; the display panel further comprises a second conductive line layer comprising a second continuous conductive line configured to detect a crack in the display panel, wherein the second conductive line layer is in the peripheral area of the display panel, and the projection of the sealant layer on the first substrate is substantially non-overlapping with that of the second conductive line layer ; and the display panel further comprises two lead wires respectively connected to two terminals of the first conductive line layer , wherein each of the two lead wires electrically connects the first conductive line layer to the second conductive line layer . a first substrate ; a second substrate facing the first substrate ; a sealant layer between the first substrate and the second substrate sealing the first substrate and the second substrate together to form a cell; and a first conductive line layer comprising a first continuous conductive line configured to detect a crack in the sealant layer , wherein the first conductive line layer is in contact with the sealant layer ; and at least one bonding lead in a driver integrated circuit bonding area, the at least one bonding lead being electrically connected to the first conductive line layer , characterized in that the line width of the first conductive line layer is approximately 1/200 to approximately 1/50 of the width of the sealant layer ; the line thickness of the first conductive line layer is approximately 1/20 to approximately 1/5 of the thickness of the sealant layer ; the display panel further comprises a second conductive line layer comprising a second continuous conductive line configured to detect a crack in the display panel, wherein the second conductive line layer is in the peripheral area of the display panel, and the projection of the sealant layer on the first substrate is substantially non-overlapping with that of the second conductive line layer ; and the display panel further comprises two lead wires respectively connected to two terminals of the first conductive line layer , wherein each of the two lead wires electrically connects the first conductive line layer to the second conductive line layer .
A sterile drape for covering a surgical robotic arm and preventing contamination of a sterile field, the sterile drape comprising a flexible covering with a sterile outer surface and a sterile drape sleeve configured to receive an electrical plug therethrough, said covering being at least partially conformable to a surgical robotic arm, wherein the sterile drape sleeve is configured to be sealed around a portion of the electrical plug using a sterile adhesive tape , wherein the sterile drape sleeve is configured to surround at least a portion of a connector of the surgical robotic arm and extend outwardly from the connector , wherein the sterile drape includes a drape stiffener in the form of a supporting tube configured to allow the plug to pass through the sterile drape sleeve.