mhurhangee/patent-ind-claim-en huggingface dataset:
A zoom lens system , in order from an object side to an image side, comprising a first lens unit (G1) having negative optical power, a second lens unit (G2) having positive optical power, a third lens unit (G3) having negative optical power, and a fourth lens unit (G4) having positive optical power, wherein the first lens unit (G1) and the third lens unit (G3) move along an optical axis, and the fourth lens unit (G4) is fixed with respect to an image surface , in zooming from a wide-angle limit to a telephoto limit at the time of image taking, the third lens unit (G3) moves along the optical axis, in focusing from an infinity in-focus condition to a close-object in-focus condition, and the following conditions , and are satisfied: 0.0 < M 3 / f W < 0.5 0.2 < f 3 / f 4 < 1.0 0.10 < d 4 / f w < 0.45 where M 3 is an amount of movement of the third lens unit (G3), in zooming from a wide-angle limit to a telephoto limit at the time of image taking, f 3 is a composite focal length of the third lens unit (G3), f 4 is a composite focal length of the fourth lens unit (G4), f W is a focal length of the entire system at a wide-angle limit, and d 4 is an optical axial thickness of the fourth lens unit (G4). M 3 is an amount of movement of the third lens unit (G3), in zooming from a wide-angle limit to a telephoto limit at the time of image taking, f 3 is a composite focal length of the third lens unit (G3), f 4 is a composite focal length of the fourth lens unit (G4), f W is a focal length of the entire system at a wide-angle limit, and d 4 is an optical axial thickness of the fourth lens unit (G4).
A dynamic detection system for the contact angle of a gas purification membrane, wherein the system comprises a light source , a gas purification membrane stage , an imaging system , a computer , and a supporting platform ; the light source , the gas purification membrane stage , and the imaging system are linearly fixed on the supporting platform , and the imaging system is connected to the computer ; the gas purification membrane stage comprises a loose flange , an upper fixed flange , a separation net , a cylinder , a gas outlet , a desiccant , a lower fixed flange , a blind plate , a gas flow controller , a buffer tank , an induced draft fan , and a differential pressure sensor ; the upper fixed flange and the lower fixed flange are fixed to the upper and lower ends of the cylinder ; the loose flange and the upper fixed flange have a matching flange hole ; the upper fixed flange is welded to a supporting screen ; the separation net is located in the middle of the cylinder , the gas outlet is located in the lower part of the cylinder , and the desiccant is filled in the cylinder and located in the lower part of the separation net ; the blind plate and the lower fixed flange have a matching flange hole; the gas outlet is connected to the gas inlet of the gas flow controller through a gas pipeline; the gas outlet of the gas flow controller is connected to the buffer tank through a gas pipeline; the induced draft fan is connected to the buffer tank through a gas pipeline; the gas flow controller is connected to the computer through a signal line; the differential pressure sensor is connected to the cylinder through a connecting pipe, and a differential pressure signal is transmitted to the computer through a signal line;
A method for a node to schedule a clear to send, CTS, in a communication network, the method comprising the steps of: - transmitting a request to send, RTS, in an unlicensed band for indicating a CTS scheduling information to a user equipment, UE, the CTS scheduling information indicates time and frequency resources for the UE to send a CTS in an uplink licensed band in response to the RTS; and - receiving the CTS from the UE in the licensed band based on the CTS scheduling information. - transmitting a request to send, RTS, in an unlicensed band for indicating a CTS scheduling information to a user equipment, UE, the CTS scheduling information indicates time and frequency resources for the UE to send a CTS in an uplink licensed band in response to the RTS; and - receiving the CTS from the UE in the licensed band based on the CTS scheduling information.
A method of wireless communication performed by a user equipment, UE , comprising: receiving, from a source base station, BS , an indication that the UE is to perform a conditional handover from the source BS to a target BS , wherein the conditional handover includes a handover where a handover command is associated with a condition, wherein the indication is included in a radio resource control, RRC, connection reconfiguration request; preparing a two protocol stack handover from the source BS to the target BS , wherein the two protocol stack handover is a multi-phase handover, in which the UE continues downlink/uplink data communications with the source BS while in parallel performing RRC processing to configure the target protocol stack to perform the handover; and performing the two protocol stack handover when the UE determines the condition is satisfied for the target BS , by sending an RRC connection reconfiguration message to the target BS . receiving, from a source base station, BS , an indication that the UE is to perform a conditional handover from the source BS to a target BS , wherein the conditional handover includes a handover where a handover command is associated with a condition, wherein the indication is included in a radio resource control, RRC, connection reconfiguration request; preparing a two protocol stack handover from the source BS to the target BS , wherein the two protocol stack handover is a multi-phase handover, in which the UE continues downlink/uplink data communications with the source BS while in parallel performing RRC processing to configure the target protocol stack to perform the handover; and performing the two protocol stack handover when the UE determines the condition is satisfied for the target BS , by sending an RRC connection reconfiguration message to the target BS .
An electric motor assembly comprising: an electric motor ; a metal motor casing configured to house said electric motor; a metal electronics enclosure coupled to said metal motor casing and configured to house a control board including a microcontroller and a memory device therein, said microcontroller configured to control said electric motor based at least in part on motor configuration data stored in said memory device; a near field communications (NFC) antenna positioned adjacent an opening defined in one of said metal motor casing and said metal electronics enclosure, said NFC antenna communicatively coupled to said memory device, said NFC antenna configured to: receive a radio signal transmitted by an external programming device , the radio signal including updated motor configuration data; convert the radio signal to an electrical signal, the electrical signal including the updated motor configuration data; and transmit the electrical signal to the memory device to store the updated motor configuration data; and an antenna cover positioned to cover the opening, wherein said antenna cover houses the NFC antenna by being molded around the NFC antenna and the antenna cover is made substantially of non-conductive material that enables NFC communication therethrough. an electric motor ; a metal motor casing configured to house said electric motor; a metal electronics enclosure coupled to said metal motor casing and configured to house a control board including a microcontroller and a memory device therein, said microcontroller configured to control said electric motor based at least in part on motor configuration data stored in said memory device; a near field communications (NFC) antenna positioned adjacent an opening defined in one of said metal motor casing and said metal electronics enclosure, said NFC antenna communicatively coupled to said memory device, said NFC antenna configured to: receive a radio signal transmitted by an external programming device , the radio signal including updated motor configuration data; convert the radio signal to an electrical signal, the electrical signal including the updated motor configuration data; and transmit the electrical signal to the memory device to store the updated motor configuration data; and receive a radio signal transmitted by an external programming device , the radio signal including updated motor configuration data; convert the radio signal to an electrical signal, the electrical signal including the updated motor configuration data; and transmit the electrical signal to the memory device to store the updated motor configuration data; and an antenna cover positioned to cover the opening, wherein said antenna cover houses the NFC antenna by being molded around the NFC antenna and the antenna cover is made substantially of non-conductive material that enables NFC communication therethrough.
A neuromodulation catheter comprising: a handle ; an elongated shaft comprising: a proximal hypotube segment comprising a proximal stem and a distal skive at its distal end; a proximal jacket disposed around at least a portion of an outer surface of the proximal hypotube segment; an intermediate tube coaxially aligned with the proximal hypotube segment , wherein the intermediate tube is bonded to the proximal hypotube segment; and a guidewire tube disposed within the proximal hypotube segment and extending through an entire length of the intermediate tube ; and a neuromodulation element connected to the shaft at a distal end of the intermediate tube . a handle ; an elongated shaft comprising: a proximal hypotube segment comprising a proximal stem and a distal skive at its distal end; a proximal jacket disposed around at least a portion of an outer surface of the proximal hypotube segment; an intermediate tube coaxially aligned with the proximal hypotube segment , wherein the intermediate tube is bonded to the proximal hypotube segment; and a guidewire tube disposed within the proximal hypotube segment and extending through an entire length of the intermediate tube ; and a proximal hypotube segment comprising a proximal stem and a distal skive at its distal end; a proximal jacket disposed around at least a portion of an outer surface of the proximal hypotube segment; an intermediate tube coaxially aligned with the proximal hypotube segment , wherein the intermediate tube is bonded to the proximal hypotube segment; and a guidewire tube disposed within the proximal hypotube segment and extending through an entire length of the intermediate tube ; and a neuromodulation element connected to the shaft at a distal end of the intermediate tube .
A method for determining a hybrid automatic repeat request acknowledgement, HARQ-ACK, feedback time, the method performed by a terminal device and comprising: receiving (S101) a downlink control signaling, wherein the downlink control signaling carries a HARQ-ACK feedback time parameter, and the HARQ-ACK feedback time parameter comprises a feedback time interval, activating a downlink semi-persistent scheduling configuration based on the downlink control signaling; receiving (S102) semi-persistent scheduling data in downlink transmission on a first time-domain resource; and determining (S103) the HARQ-ACK feedback time of the semi-persistent scheduling data in the downlink transmission, based on the HARQ-ACK feedback time parameter and the first time-domain resource, wherein the determining (S103) the HARQ-ACK feedback time of the semi-persistent scheduling data in the downlink transmission, based on the HARQ-ACK feedback time parameter and the first time-domain resource comprises: determining a first HARQ-ACK feedback time based on the feedback time interval and the first time-domain resource; and determining, as the HARQ-ACK feedback time, a latest available uplink time after the first HARQ-ACK feedback time, when a time-domain resource format of the first HARQ-ACK feedback time conflicts with a time-domain resource format indicated by a semi-static or dynamic uplink and downlink configuration. receiving (S101) a downlink control signaling, wherein the downlink control signaling carries a HARQ-ACK feedback time parameter, and the HARQ-ACK feedback time parameter comprises a feedback time interval, activating a downlink semi-persistent scheduling configuration based on the downlink control signaling; receiving (S102) semi-persistent scheduling data in downlink transmission on a first time-domain resource; and determining (S103) the HARQ-ACK feedback time of the semi-persistent scheduling data in the downlink transmission, based on the HARQ-ACK feedback time parameter and the first time-domain resource, wherein the determining (S103) the HARQ-ACK feedback time of the semi-persistent scheduling data in the downlink transmission, based on the HARQ-ACK feedback time parameter and the first time-domain resource comprises: determining a first HARQ-ACK feedback time based on the feedback time interval and the first time-domain resource; and determining, as the HARQ-ACK feedback time, a latest available uplink time after the first HARQ-ACK feedback time, when a time-domain resource format of the first HARQ-ACK feedback time conflicts with a time-domain resource format indicated by a semi-static or dynamic uplink and downlink configuration. determining a first HARQ-ACK feedback time based on the feedback time interval and the first time-domain resource; and determining, as the HARQ-ACK feedback time, a latest available uplink time after the first HARQ-ACK feedback time, when a time-domain resource format of the first HARQ-ACK feedback time conflicts with a time-domain resource format indicated by a semi-static or dynamic uplink and downlink configuration.
A storage system comprising: a portable data pack including multiple storage drives within an enclosure; a docking station configured to serve as an interface between the portable data pack and a host computer , the docking station including: a RAID controller ; a drive-side connection interface that provides a physical and electrical coupling to each of the multiple storage drives in the portable data pack ; and mode selection logic for directing communications in route between the host computer and a selected drive of the multiple storage drives along one of two selectable paths within the docking station, a first path of the two selectable paths permitting the host computer to interact with the selected drive through the RAID controller and a second path of the two selectable paths permitting the host computer to interact with the selected drive along a data channel that bypasses the RAID controller, wherein the mode selection logic is configured to: select the first path of the two selectable paths when the host computer is coupled to a first host-side connection port on the docking station; and select the second path of the two selectable paths when the host computer is coupled to a second different host-side connection port on the docking station. a portable data pack including multiple storage drives within an enclosure; a docking station configured to serve as an interface between the portable data pack and a host computer , the docking station including: a RAID controller ; a drive-side connection interface that provides a physical and electrical coupling to each of the multiple storage drives in the portable data pack ; and mode selection logic for directing communications in route between the host computer and a selected drive of the multiple storage drives along one of two selectable paths within the docking station, a first path of the two selectable paths permitting the host computer to interact with the selected drive through the RAID controller and a second path of the two selectable paths permitting the host computer to interact with the selected drive along a data channel that bypasses the RAID controller, wherein the mode selection logic is configured to: select the first path of the two selectable paths when the host computer is coupled to a first host-side connection port on the docking station; and select the second path of the two selectable paths when the host computer is coupled to a second different host-side connection port on the docking station. select the first path of the two selectable paths when the host computer is coupled to a first host-side connection port on the docking station; and select the second path of the two selectable paths when the host computer is coupled to a second different host-side connection port on the docking station.
A smart pelvic floor muscle rehabilitation training device, comprising a portable vaginal electrode, signal lines, an electromyographic amplifying circuit, an Analog-to-Digital (AD) sampling circuit, a master control microprogrammed control unit (MCU), an electrical stimulation circuit, a power-supply module and a wireless communication module, wherein the vaginal electrode includes: a pair of electromyographic (EMG) electrode plates and a pair of stimulation (STIM) electrode plates, with the pair of EMG electrode plates and the pair of STIM electrode plates arranged on an outer wall of the vaginal electrode, the power-supply module is in connection with all of the master control MCU, the electromyographic amplifying circuit, the AD sampling circuit, the electrical stimulation circuit and the wireless communication module; the EMG electrode plates are each used to collect an electromyographic signal from a pelvic floor muscle, the electromyographic signal is transmitted to the electromyographic amplifying circuit through the signal lines, the electromyographic amplifying circuit is in connection with the master control MCU through the AD sampling circuit, characterized in that the smart pelvic floor muscle rehabilitation training device further comprises a smart mobile terminal, wherein the signal lines, the electromyographic amplifying circuit, the Analog-to-Digital (AD) sampling circuit, the master control microprogrammed control unit (MCU), the electrical stimulation circuit, the power-supply module and the wireless communication module are packaged inside the vaginal electrode and in connection with the two pairs of electrode plates, the master control MCU is configured to communicate with the smart mobile terminal through the wireless communication module, the smart mobile terminal is configured to store training programs and feedback training results and send an electrical stimulation instruction according to the training programs or results, the master control MCU is configured to control, based on the electromyographic signal or the stimulation instruction received by the wireless communication module, the electrical stimulation circuit to emit a pulse current, and the electrical stimulation circuit is in connection with the STIM electrode plates through the signal lines, and is configured to provide neuromuscular electrical stimulation to the pelvic floor muscle.
Joint filling profile for forming a joint seal comprising base plates , with a vertical leg projecting into the joint formed between the base plates and a profile body formed from a joint sealing compound and located in a joint widening , wherein the vertical leg and the profile body are separated from one another with the interposition of a first separating material , wherein at least one second separating material is arranged between the vertical leg and the profile body , and in that at least one reinforcing mat is arranged inside the profile body , wherein the second separating material and/or the reinforcing mat is arranged overlapping the first separating material at least in regions, characterized in that the first separating material is formed as a metal foil, and in that the second separating material is formed from a metal foil or a nonwoven.
A microfluidic device comprising: - first and second substrates integrated with one another along surfaces thereof to form a stack of substrates, - a first microfluidic channel including a first inlet portion , a first cuvette portion , and a first outlet portion , - a first fluidic valve in fluid communication fluidly connected to the outlet portion ; - a fluidic well disposed upstream with respect to the first cuvette portion in fluid communication with the first inlet portion , - said well having an internal volume and an aperture connecting said internal volume with an ambient medium surrounding the well , characterized in that - at least one of said first inlet and outlet portions traverses both of said first and second substrates ; - said well is equipped with a flap element dimensioned to reversibly close the aperture from inside the well when in a rest position, and to reversibly open said aperture in response to a force applied to the flap element from the ambient medium inwardly to the internal volume, - the microfluidic device further comprises a second fluidic valve disposed upstream with respect to said well and configured to deliver an auxiliary fluid into the well along a channel connecting the second fluidic valve with the well . - first and second substrates integrated with one another along surfaces thereof to form a stack of substrates, - a first microfluidic channel including a first inlet portion , a first cuvette portion , and a first outlet portion , - a first fluidic valve in fluid communication fluidly connected to the outlet portion ; - a fluidic well disposed upstream with respect to the first cuvette portion in fluid communication with the first inlet portion , - said well having an internal volume and an aperture connecting said internal volume with an ambient medium surrounding the well , - at least one of said first inlet and outlet portions traverses both of said first and second substrates ; - said well is equipped with a flap element dimensioned to reversibly close the aperture from inside the well when in a rest position, and to reversibly open said aperture in response to a force applied to the flap element from the ambient medium inwardly to the internal volume, - the microfluidic device further comprises a second fluidic valve disposed upstream with respect to said well and configured to deliver an auxiliary fluid into the well along a channel connecting the second fluidic valve with the well .
A tiltrotor aircraft comprising: a fuselage ; a wing supported by the fuselage and having first and second outboard ends ; a first pylon assembly coupled to the outboard end of the wing , the pylon assembly having an outboard end; a second pylon assembly coupled to the outboard end of the wing , the pylon assembly having an outboard end; a first wing extension rotatably coupled to the outboard end of the first pylon assembly ; and a second wing extension rotatably coupled to the outboard end of the second pylon assembly ; wherein the wing extensions are rotatable between a flight position in a flight mode and a stow position in a storage mode; wherein, the wing extensions fold inboard toward the fuselage in the stow position, thereby reducing a wingspan of the tiltrotor aircraft in the storage mode; and characterized in that the wing extensions have an angular range of motion of at least 180 degrees such that the wing extensions are substantially parallel with the wing when the wing extensions are in the stow position. a fuselage ; a wing supported by the fuselage and having first and second outboard ends ; a first pylon assembly coupled to the outboard end of the wing , the pylon assembly having an outboard end; a second pylon assembly coupled to the outboard end of the wing , the pylon assembly having an outboard end; a first wing extension rotatably coupled to the outboard end of the first pylon assembly ; and a second wing extension rotatably coupled to the outboard end of the second pylon assembly ; wherein the wing extensions are rotatable between a flight position in a flight mode and a stow position in a storage mode; wherein, the wing extensions fold inboard toward the fuselage in the stow position, thereby reducing a wingspan of the tiltrotor aircraft in the storage mode; and characterized in that the wing extensions have an angular range of motion of at least 180 degrees such that the wing extensions are substantially parallel with the wing when the wing extensions are in the stow position.