mhurhangee/ep-ind-claims huggingface dataset:
An array type wavelength converting laser device comprising: at least one laser element (1, 5) with light emitting points, the laser element (1, 5) being configured to output fundamental waves in a one-dimensional array; a wavelength converting element configured to carry out wavelength conversion of the incident fundamental waves, and to output wavelength converted light rays; and an output mirror configured to set up a cavity of the fundamental waves between the at least one laser element (1, 5) and the output mirror, and to reflect the fundamental waves, and to transmit the wavelength converted light rays resulting from the wavelength conversion by the wavelength converting element, wherein the wavelength converting element is disposed between the laser element (1, 5) and the output mirror; characterized in that a distance between a position of a waist of the fundamental waves output from the laser element (1, 5) and the output mirror is set in accordance with a Talbot condition under which phase synchronization is achieved between the adjacent light emitting points with each other, where the waist is a position where the wavefronts of individual laser light rays of the at least one laser element (1, 5) become a plane wave and is located inside the cavity. at least one laser element (1, 5) with light emitting points, the laser element (1, 5) being configured to output fundamental waves in a one-dimensional array; a wavelength converting element configured to carry out wavelength conversion of the incident fundamental waves, and to output wavelength converted light rays; and an output mirror configured to set up a cavity of the fundamental waves between the at least one laser element (1, 5) and the output mirror, and to reflect the fundamental waves, and to transmit the wavelength converted light rays resulting from the wavelength conversion by the wavelength converting element, wherein the wavelength converting element is disposed between the laser element (1, 5) and the output mirror; characterized in that
An immediate-release pharmaceutical composition for the oral administration of a moisture-sensitive therapeutic DPP-IV inhibitor compound comprising granules comprising said DPP-IV inhibitor compound coated or substantially coated with a hydrophobic melt component, wherein said granules are obtained by a process comprising the steps of (a) forming a mixture of a DPP inhibitor compound with at least one hydrophobic melt component; (b) heating said mixture to a temperature substantially near the melting range of said hydrophobic melt component; (c) granulating said mixture under high shear to form said granules; (d) cooling said granules to room temperature. (a) forming a mixture of a DPP inhibitor compound with at least one hydrophobic melt component; (b) heating said mixture to a temperature substantially near the melting range of said hydrophobic melt component; (c) granulating said mixture under high shear to form said granules; (d) cooling said granules to room temperature.
A compound comprising a single-stranded modified oligonucleotide, for use in treating a HBV-related disease, disorder or condition in a subject, wherein the disease, disorder or condition is jaundice, liver inflammation, liver fibrosis, inflammation, liver cirrhosis, liver failure, liver cancer, diffuse hepatocellular inflammatory disease, hemophagocytic syndrome, serum hepatitis, HBV viremia, or liver disease-related transplantation, wherein the single-stranded modified oligonucleotide consists of 20 linked nucleosides having the nucleobase sequence of SEQ ID NO: 226 and comprises: a gap segment consisting of ten linked deoxynucleosides; a 5' wing segment consisting of 5 linked nucleosides; and a 3' wing segment consisting of 5 linked nucleosides; wherein the gap segment is positioned between the 5' wing segment and the 3' wing segment, wherein each nucleoside of each wing segment comprises a 2'-O-methoxyethyl sugar, wherein each internucleoside linkage is a phosphorothioate linkage, and wherein each cytosine is a 5-methylcytosine. a gap segment consisting of ten linked deoxynucleosides; a 5' wing segment consisting of 5 linked nucleosides; and a 3' wing segment consisting of 5 linked nucleosides;
An apparatus, comprising: a light source configured to transmit an excitation optical signal through a first area of skin to an implanted sensor; a plurality of detectors (16, 20) substantially surrounding the light source, the plurality of detectors (16, 20) configured to detect an analyte-dependent optical signal emitted from the implanted sensor through a second surface area of skin in response to the implanted sensor being illuminated by the excitation optical signal, the second surface area of the skin being at least four times the first surface area of the skin; and a lens configured to focus at least a portion of the analyte-dependent optical signal onto the detectors (16, 20). a light source configured to transmit an excitation optical signal through a first area of skin to an implanted sensor; a plurality of detectors (16, 20) substantially surrounding the light source, the plurality of detectors (16, 20) configured to detect an analyte-dependent optical signal emitted from the implanted sensor through a second surface area of skin in response to the implanted sensor being illuminated by the excitation optical signal, the second surface area of the skin being at least four times the first surface area of the skin; and a lens configured to focus at least a portion of the analyte-dependent optical signal onto the detectors (16, 20).
A phase difference film comprising: a phase difference thin film consisting of two non-liquid crystal polymers, wherein the two non-liquid crystal polymers are a polyamideimide and a polyimide, wherein an amount of the polyamideimide is the same as or greater than an amount of the polyimide, wherein the phase difference thin film satisfies refractive indexes of n x = n y > n z and has a thickness direction phase difference per unit thickness of greater than or equal to 80 nanometers/micrometer, wherein n x denotes a refractive index of the phase difference thin film at a slow axis thereof, n y denotes a refractive index of the phase difference thin film at a fast axis thereof, and n z denotes a refractive index of the phase difference thin film in a direction perpendicular to the slow axis and the fast axis thereof, wherein the term "slow axis" denotes a refractive index of the phase difference thin film in a direction having the highest in-plane refractive index and the term "fast axis" denotes a refractive index of the phase difference thin film in a direction having the lowest in-plane refractive index, and wherein an average light transmittance in a wavelength region of 360 nanometers to 740 nanometers is greater than or equal to 88 %. a phase difference thin film consisting of two non-liquid crystal polymers, wherein the two non-liquid crystal polymers are a polyamideimide and a polyimide, wherein an amount of the polyamideimide is the same as or greater than an amount of the polyimide, wherein the phase difference thin film satisfies refractive indexes of n x = n y > n z and has a thickness direction phase difference per unit thickness of greater than or equal to 80 nanometers/micrometer, wherein n x denotes a refractive index of the phase difference thin film at a slow axis thereof, n y denotes a refractive index of the phase difference thin film at a fast axis thereof, and n z denotes a refractive index of the phase difference thin film in a direction perpendicular to the slow axis and the fast axis thereof, wherein the term "slow axis" denotes a refractive index of the phase difference thin film in a direction having the highest in-plane refractive index and the term "fast axis" denotes a refractive index of the phase difference thin film in a direction having the lowest in-plane refractive index, and wherein an average light transmittance in a wavelength region of 360 nanometers to 740 nanometers is greater than or equal to 88 %.
A method of controlling an elevator car, the method comprising: driving the elevator car with a drive system including a drive device and a brake device; detecting an emergency stop condition; triggering the brake device in response to detecting an emergency stop condition; determining a delay to be applied between triggering the brake device and stopping the drive device; and waiting for a time period corresponding to the delay before stopping the drive device characterised by determining whether the detected emergency stop condition is a motion-hazard emergency stop condition, and only waiting for the time period corresponding to the delay before stopping the drive device if the emergency stop condition is a motion-hazard emergency stop condition. driving the elevator car with a drive system including a drive device and a brake device; detecting an emergency stop condition; triggering the brake device in response to detecting an emergency stop condition; determining a delay to be applied between triggering the brake device and stopping the drive device; and waiting for a time period corresponding to the delay before stopping the drive device characterised by determining whether the detected emergency stop condition is a motion-hazard emergency stop condition, and only waiting for the time period corresponding to the delay before stopping the drive device if the emergency stop condition is a motion-hazard emergency stop condition.
A driver component for a tissue biopsy system for accessing and collecting one or more tissue specimens from a target site within a patient, the tissue biopsy system including a disposable elongated probe component, the driver component being configured to receive in an operational relationship a proximal portion of the probe component, wherein the driver component has a first driver motor configured to rotate a tubular section of the probe component to orient a tissue receiving aperture in the distal end of a tubular section and a second driver motor configured to drive a tissue cutting member longitudinally within the tubular section to cut tissue extending into the tubular section through the tissue receiving aperture thereof, characterized in that the driver component has at least one illuminating element (66, 67) in a distal portion thereof.
A sealing valve arrangement for a shaft furnace charging installation, said arrangement comprising: a shutter that cooperates with a valve seat; a shutter-actuating device for moving said shutter between a closed position in sealing contact with the valve seat and an open position remote from the valve seat; whereby the said shutter-actuating device comprises: a tilting shaft connected to said shutter; an electric motor with a output shaft connected to said tilting shaft; a braking device associated with said electric motor, said braking device being configured for stopping said output shaft of said electric motor from rotating; and characterized by a transmission means arranged between said output shaft of said electric motor and said tilting shaft, wherein said transmission means comprises a backlash configured for having a predetermined amount of allowed rotation between said output shaft of said electric motor and said tilting shaft. a shutter that cooperates with a valve seat; a shutter-actuating device for moving said shutter between a closed position in sealing contact with the valve seat and an open position remote from the valve seat; whereby the said shutter-actuating device comprises: a tilting shaft connected to said shutter; an electric motor with a output shaft connected to said tilting shaft; a braking device associated with said electric motor, said braking device being configured for stopping said output shaft of said electric motor from rotating; and characterized by a transmission means arranged between said output shaft of said electric motor and said tilting shaft, wherein said transmission means comprises a backlash configured for having a predetermined amount of allowed rotation between said output shaft of said electric motor and said tilting shaft. a tilting shaft connected to said shutter; an electric motor with a output shaft connected to said tilting shaft; a braking device associated with said electric motor, said braking device being configured for stopping said output shaft of said electric motor from rotating; and characterized by a transmission means arranged between said output shaft of said electric motor and said tilting shaft, wherein said transmission means comprises a backlash configured for having a predetermined amount of allowed rotation between said output shaft of said electric motor and said tilting shaft.
A VTOL (vertical take-off and landing) aircraft comprising: a body; a left main wing and a right main wing coupled to the body; a left secondary wing and a right secondary wing coupled to the body; a left linear support connecting the left main wing to the left secondary wing; a right linear support connecting the right main wing to the right secondary wing, wherein the left linear support is parallel to the right linear support; at least two lifting propellers (131, 133, 135, 137) disposed on a top surface of each of the left and right linear supports, wherein the at least two lifting propellers (131, 133, 135, 137) on each of the left and right linear supports are all horizontally positioned on a first horizontal plane; a left tail-top lifting propeller disposed at a rear end of the VTOL aircraft, horizontally positioned higher than the first horizontal plane; a right tail-top lifting propeller disposed at the rear end of the VTOL aircraft, horizontally positioned higher than the first horizontal plane; and wherein a radius of the left and right tail-top lifting propellers (134, 138) is the same as a radius of each of the at least two lifting propellers (131, 133, 135, 137). a body; a left main wing and a right main wing coupled to the body; a left secondary wing and a right secondary wing coupled to the body; a left linear support connecting the left main wing to the left secondary wing; a right linear support connecting the right main wing to the right secondary wing, at least two lifting propellers (131, 133, 135, 137) disposed on a top surface of each of the left and right linear supports, wherein the at least two lifting propellers (131, 133, 135, 137) on each of the left and right linear supports are all horizontally positioned on a first horizontal plane; a left tail-top lifting propeller disposed at a rear end of the VTOL aircraft, horizontally positioned higher than the first horizontal plane; a right tail-top lifting propeller disposed at the rear end of the VTOL aircraft, horizontally positioned higher than the first horizontal plane; and wherein a radius of the left and right tail-top lifting propellers (134, 138) is the same as a radius of each of the at least two lifting propellers (131, 133, 135, 137).
A transmission opportunity control method performed by an access point, the method comprising: • determining a handover threshold based on a network status, and sending the handover threshold to a station, • sending a first frame to the station, wherein the first frame carries a TXOP handover enforcement, THE, indication field, wherein the THE indication field is a first value or a second value, the first value is used to instruct the station that has accessed a channel to hand over a held TXOP to the access point, and the second value is used to instruct the station that has accessed the channel to hand over the held TXOP to the access point when a handover condition is satisfied, wherein the handover condition comprises: a time used by the station to obtain the channel through contention is greater than the handover threshold, wherein the handover threshold is a contention time that is provided by the access point for the station and that is used to contend for the channel. • determining a handover threshold based on a network status, and sending the handover threshold to a station, • sending a first frame to the station, wherein the first frame carries a TXOP handover enforcement, THE, indication field,
Gingiva former comprising an implant fixing structure configured to fix the gingiva former to an implant construction fixed to a jaw of a patient, and an emergence profile portion configured to be positioned within a gingiva of the patient when the gingiva former is mounted to the implant construction, a mounting structure configured to connect an intermediate element (2; 3) to the gingiva former such that the intermediate element (2; 3) extends towards an oral cavity of the patient when the gingiva former is mounted to the implant construction, wherein the mounting structure comprises an indexing formation configured to index the orientation of the intermediate element (2; 3) when connected to the gingiva former and a clipping geometry configured to snap-fit with a corresponding clipping structure (212; 312) of the intermediate element (2; 3) to temporarily mount the intermediate element (2; 3) to the gingiva former. an implant fixing structure configured to fix the gingiva former to an implant construction fixed to a jaw of a patient, and an emergence profile portion configured to be positioned within a gingiva of the patient when the gingiva former is mounted to the implant construction, a mounting structure configured to connect an intermediate element (2; 3) to the gingiva former such that the intermediate element (2; 3) extends towards an oral cavity of the patient when the gingiva former is mounted to the implant construction, wherein the mounting structure comprises an indexing formation configured to index the orientation of the intermediate element (2; 3) when connected to the gingiva former and a clipping geometry configured to snap-fit with a corresponding clipping structure (212; 312) of the intermediate element (2; 3) to temporarily mount the intermediate element (2; 3) to the gingiva former.
A user equipment, UE, configured to communicate with a base station, the UE comprising: a higher layer processing unit configured to acquire radio resource control, RRC, configuration information, the RRC configuration information indicating a configuration of downlink control information, DCI, format 2_0; and a receiving unit configured to monitor a physical downlink control channel, PDCCH, with the DCI format 2_0 based on the configuration, wherein the DCI format 2_0 includes a first information field, the first information field indicates a remaining channel occupancy duration, and characterised in that the remaining channel occupancy duration is expressed as the number of OFDM symbol(s) starting from a first OFDM symbol of a slot where the DCI format 2_0 is detected. a higher layer processing unit configured to acquire radio resource control, RRC, configuration information, the RRC configuration information indicating a configuration of downlink control information, DCI, format 2_0; and a receiving unit configured to monitor a physical downlink control channel, PDCCH, with the DCI format 2_0 based on the configuration, wherein the DCI format 2_0 includes a first information field, the first information field indicates a remaining channel occupancy duration, and characterised in that the remaining channel occupancy duration is expressed as the number of OFDM symbol(s) starting from a first OFDM symbol of a slot where the DCI format 2_0 is detected.
A LiDAR system, comprising: a signal generator for generating a continuous periodic signal; a pulse modulation circuit for applying a pulse modulation signal to the continuous signal to convert the continuous signal into a plurality of pulses of the continuous signal; an amplitude modulation circuit (124, 128) for generating an amplitude modulation envelope signal (126, 157) and applying the amplitude modulation envelope signal (126, 157) to the plurality of pulses to generate a plurality of amplitude-modulated pulses of the continuous signal; an optical modulation circuit for receiving the plurality of amplitude-modulated pulses of the continuous signal and applying the amplitude-modulated pulses of the continuous signal to an optical signal to generate a pulse amplitude-modulated, PAM, optical signal; optical transmission elements (142, 144) for transmitting the PAM optical signal into a region; optical receiving elements for receiving reflected optical signals from the region; and receive signal processing circuitry for receiving the reflected optical signals and using quadrature detection to process the reflected optical signals. a signal generator for generating a continuous periodic signal; a pulse modulation circuit for applying a pulse modulation signal to the continuous signal to convert the continuous signal into a plurality of pulses of the continuous signal; an amplitude modulation circuit (124, 128) for generating an amplitude modulation envelope signal (126, 157) and applying the amplitude modulation envelope signal (126, 157) to the plurality of pulses to generate a plurality of amplitude-modulated pulses of the continuous signal; an optical modulation circuit for receiving the plurality of amplitude-modulated pulses of the continuous signal and applying the amplitude-modulated pulses of the continuous signal to an optical signal to generate a pulse amplitude-modulated, PAM, optical signal; optical transmission elements (142, 144) for transmitting the PAM optical signal into a region; optical receiving elements for receiving reflected optical signals from the region; and receive signal processing circuitry for receiving the reflected optical signals and using quadrature detection to process the reflected optical signals.
A baler twine tension measurement assembly comprising a displacement detector and elements defining a first twine path, the first twine path extending between a first location and a second location angularly displaceable with respect to the first location, the displacement detector being operable to generate a signal indicative of the angular displacement of the second location with respect to the first location characterised in that the first location comprises a first pulley located at a first end of an elongate element and the second location comprises a second pulley located on the elongate element, spaced from the first pulley.