mhurhangee/ep-ind-claims huggingface dataset:
A hyaluronic acid derivative of Formula I comprising (m + n) repeating units; wherein m and n are integers > 0, with 70 < (m + n) < 5000 with m > n; the symbol // means that two consecutive units can be either both unsubstituted or both substituted or only one of the two is substituted; R is H or an alkanoyl moiety containing from 2 to 20 carbon atoms wherein said alkanoyl moiety can be linear or branched if it contains from 3 to 20 carbon atoms; X is Cl, Br, Ac, MeSO 3 or H 2 PO 4; A is H, Na, K, or TBA; or when X is absent A is absent. comprising (m + n) repeating units; wherein m and n are integers > 0, with 70 < (m + n) < 5000 with m > n; the symbol // means that two consecutive units can be either both unsubstituted or both substituted or only one of the two is substituted; R is H or an alkanoyl moiety containing from 2 to 20 carbon atoms wherein said alkanoyl moiety can be linear or branched if it contains from 3 to 20 carbon atoms; X is Cl, Br, Ac, MeSO 3 or H 2 PO 4; A is H, Na, K, or TBA; or when X is absent A is absent.
A piezoelectric sensor comprising: a piezoelectric sheet; a first ground electrode integrally laminated on a first side of the piezoelectric sheet and having a first cutout section; a signal electrode integrally laminated on a second side of the piezoelectric sheet and having a third cutout section; and a second ground electrode integrally laminated on the signal electrode so as to be electrically insulated from the signal electrode and having a second cutout section, wherein the cutout sections of the signal electrode, the first ground electrode, and the second ground electrode are at least partially overlapped with one another in a thickness direction of the piezoelectric sheet, and a portion of the piezoelectric sheet exposed through a portion where the cutout sections of the signal electrode, the first ground electrode, and the second ground electrode are overlapped with one another in the thickness direction of the piezoelectric sheet serves as an exposed section. a piezoelectric sheet; a first ground electrode integrally laminated on a first side of the piezoelectric sheet and having a first cutout section; a signal electrode integrally laminated on a second side of the piezoelectric sheet and having a third cutout section; and a second ground electrode integrally laminated on the signal electrode so as to be electrically insulated from the signal electrode and having a second cutout section, wherein the cutout sections of the signal electrode, the first ground electrode, and the second ground electrode are at least partially overlapped with one another in a thickness direction of the piezoelectric sheet, and a portion of the piezoelectric sheet exposed through a portion where the cutout sections of the signal electrode, the first ground electrode, and the second ground electrode are overlapped with one another in the thickness direction of the piezoelectric sheet serves as an exposed section.
A communication method for a terminal device, comprising: sending, a registration request message to a core network device through a radio access network device, wherein the registration request message comprises first network slice information, and the first network slice information is information about a first network slice corresponding to a protocol data unit, PDU, session that the terminal device expects to establish; and receiving, through the radio access network device, a registration accept message sent by the core network device, wherein the registration accept message comprises information about a first registration area allocated to the terminal device and second network slice information, the second network slice information is information about a second network slice that is allowed to be used by the terminal device in the first registration area, wherein the first registration area allocated to the terminal device comprises at least one tracking area, and each of the at least one tracking area supports the first network slice and the second network slice information comprises the first network slice information. sending, a registration request message to a core network device through a radio access network device, wherein the registration request message comprises first network slice information, and the first network slice information is information about a first network slice corresponding to a protocol data unit, PDU, session that the terminal device expects to establish; and receiving, through the radio access network device, a registration accept message sent by the core network device, wherein the registration accept message comprises information about a first registration area allocated to the terminal device and second network slice information, the second network slice information is information about a second network slice that is allowed to be used by the terminal device in the first registration area, wherein the first registration area allocated to the terminal device comprises at least one tracking area, and each of the at least one tracking area supports the first network slice and the second network slice information comprises the first network slice information.
A system comprising: a winch system (221, 514, 2106) for an aerial vehicle, wherein the winch system comprises: (a) a tether disposed on a spool, wherein a leading end of the tether is mechanically couplable to a payload, and (b) a motor (184, 222, 512) that is operable to apply torque to the tether; at least one sensor arranged to generate sensor data indicative of oscillations of the tether when the tether is at least partially unwound; and a control system operable to: while the aerial vehicle is in a hover flight mode: use the generated sensor data as a basis for detecting oscillation of the tether; and perform a damping routine to dampen oscillations of the tether, wherein the damping routine comprises responding to detection of oscillation exceeding a threshold by, while the aerial vehicle is in a position-hold mode, causing the aerial vehicle to reduce an extent of flight stabilization along at least one of the three dimensions in physical space, thereby resulting in damping of the oscillations due to energy dissipation during movement of the aerial vehicle along the at least one dimension. a winch system (221, 514, 2106) for an aerial vehicle, wherein the winch system comprises: (a) a tether disposed on a spool, wherein a leading end of the tether is mechanically couplable to a payload, and (b) a motor (184, 222, 512) that is operable to apply torque to the tether; at least one sensor arranged to generate sensor data indicative of oscillations of the tether when the tether is at least partially unwound; and a control system operable to: while the aerial vehicle is in a hover flight mode: use the generated sensor data as a basis for detecting oscillation of the tether; and perform a damping routine to dampen oscillations of the tether, wherein the damping routine comprises responding to detection of oscillation exceeding a threshold by, while the aerial vehicle is in a position-hold mode, causing the aerial vehicle to reduce an extent of flight stabilization along at least one of the three dimensions in physical space, thereby resulting in damping of the oscillations due to energy dissipation during movement of the aerial vehicle along the at least one dimension. use the generated sensor data as a basis for detecting oscillation of the tether; and perform a damping routine to dampen oscillations of the tether, wherein the damping routine comprises responding to detection of oscillation exceeding a threshold by, while the aerial vehicle is in a position-hold mode, causing the aerial vehicle to reduce an extent of flight stabilization along at least one of the three dimensions in physical space, thereby resulting in damping of the oscillations due to energy dissipation during movement of the aerial vehicle along the at least one dimension.
Plug-in connector for hollow profiles, in particular warm-edge hollow profiles, of spacers of an insulating glazing, wherein the plug-in connector has a base with side walls at the edges, wherein arranged on the outside of the base in a single central row on either side of the centre of the plug-in connector are in each case a plurality of retaining elements that are on the base and in the form of spring lugs which, proceeding from the base, are directed obliquely outwardly with respect to the adjacent hollow-profile wall and to the connector centre, wherein the retaining elements on the base are arranged in each case in a recessed base region on the outside of the base which adjoins a raised, platelike base region arranged in the region of the centre, and wherein laterally obliquely outwardly directed, resilient retaining elements (18, 19) are arranged on the free edge region of the side walls.
An X-ray irradiation device, for use in an X-ray photoelectron spectroscopy or an X-ray fluorescence analysis, that focuses X-rays emitted from an X-ray generation mechanism to a predetermined focal position by a focusing mechanism, the X-ray irradiation device being characterized in that: the X-ray generation mechanism includes an electron gun that emits a constant level of electron beam, a plurality of X-ray sources (12a, 12b) that generate X-rays (x1, x2) having different wavelengths by irradiation with the electron beam, and a wavelength selecting structure (12c, 21) that selects the X-ray sources to be irradiated with the electron beam and selects wavelengths of the generated X-rays, the focusing mechanism has a structure in which the plurality of X-rays are focused to the same focal position by a plurality of focusing elements (13a, 13b, 13c) having diffraction characteristics suitable for the wavelengths of the respective X-rays generated by the X-ray generation mechanism, the focusing elements are each an X-ray reflecting mirror whose mirror surface (131,132) having a curvature equal to twice a diameter of a Rowland circle is arranged on the Rowland circle, the Rowland circle including a generation position of the X-rays suitable for the diffraction characteristics thereof and the focal position with those positions as pass points, and the plurality of focusing elements are arranged at positions where the X-rays output from the plurality of X-ray sources enter the mirror surfaces of the respective focusing elements at an incident angle close to a perpendicular angle. the X-ray generation mechanism includes an electron gun that emits a constant level of electron beam, a plurality of X-ray sources (12a, 12b) that generate X-rays (x1, x2) having different wavelengths by irradiation with the electron beam, and a wavelength selecting structure (12c, 21) that selects the X-ray sources to be irradiated with the electron beam and selects wavelengths of the generated X-rays, the focusing mechanism has a structure in which the plurality of X-rays are focused to the same focal position by a plurality of focusing elements (13a, 13b, 13c) having diffraction characteristics suitable for the wavelengths of the respective X-rays generated by the X-ray generation mechanism, the focusing elements are each an X-ray reflecting mirror whose mirror surface (131,132) having a curvature equal to twice a diameter of a Rowland circle is arranged on the Rowland circle, the Rowland circle including a generation position of the X-rays suitable for the diffraction characteristics thereof and the focal position with those positions as pass points, and the plurality of focusing elements are arranged at positions where the X-rays output from the plurality of X-ray sources enter the mirror surfaces of the respective focusing elements at an incident angle close to a perpendicular angle.
An apparatus for performing automated valet parking, the apparatus comprising: a processor; a non-transitory memory storing a program to be executed in the processor, the program comprising instructions that when executed cause the processor to determine a first target position and a first guide route using a map currently stored and detect an obstacle on the basis of sensor data, wherein an infrastructure updates the map on the basis of the detected obstacle to generate an updated map, and a transceiver configured to transmit the first target position and the first guide route to a first vehicle under control of the processor, wherein the apparatus is configured to perform automated valet parking characterized in that the instructions cause the processor to calculate a confidence value of the obstacle and update the map by reflecting or not reflecting the obstacle on the map depending on the confidence value, the instructions cause the processor to classify the obstacle as a permanent obstacle or a temporary obstacle and calculate the confidence value of the obstacle by varying a weight according to the classification of the obstacle, and the instructions cause the processor to calculate the confidence value on the basis of at least one of the number of times that the obstacle is detected, a degree of change in position at which the obstacle is detected, and a detection time at which the obstacle is detected. a processor; a non-transitory memory storing a program to be executed in the processor, the program comprising instructions that when executed cause the processor to determine a first target position and a first guide route using a map currently stored and detect an obstacle on the basis of sensor data, wherein an infrastructure updates the map on the basis of the detected obstacle to generate an updated map, and a transceiver configured to transmit the first target position and the first guide route to a first vehicle under control of the processor, wherein the apparatus is configured to perform automated valet parking characterized in that the instructions cause the processor to calculate a confidence value of the obstacle and update the map by reflecting or not reflecting the obstacle on the map depending on the confidence value, the instructions cause the processor to classify the obstacle as a permanent obstacle or a temporary obstacle and calculate the confidence value of the obstacle by varying a weight according to the classification of the obstacle, and the instructions cause the processor to calculate the confidence value on the basis of at least one of the number of times that the obstacle is detected, a degree of change in position at which the obstacle is detected, and a detection time at which the obstacle is detected.
A set of baffles (1, 2, 3) intended for being attached under the front shield of a motor vehicle, these baffles (1, 2, 3) including a central baffle and two lateral baffles (2, 3), these baffles each being intended to pivot between a retracted position, in which they are folded beneath the front shield and a deployed position, in which they project towards the ground, said set further including a device for controlling the pivoting of the baffles (1, 2, 3) between said retracted and deployed positions, characterized in that said device includes a single power train coupled to two cams (7, 8) cooperating respectively with two levers (9, 10) pivotally mounted on a fixed support and connected by transmission means (12, 13, 14) respectively to the central baffle and to the two lateral baffles (2, 3).
A leg strap (100; 101; 102) to be worn on a leg of a jumper and gripped by one or more lifters (120,130), said leg strap (100; 101; 102) characterised by comprising: a) a non-elastic encircling strap, wherein said encircling strap has two ends, and wherein the encircling strap comprises a thin, flexible material of sufficient size and shape to be worn around the leg of the jumper; and b) one or more handles, wherein each handle comprises an elastic band, wherein each handle has two ends, wherein each end is attached to the non-elastic encircling strap with a handle attachment, wherein the handle, is of sufficient size and shape that it can be gripped by at least one hand of at least one lifter (120, 130), wherein said elastic band is elastic to a predetermined stretch length, and whereby the elastic band of each handle can stretch a sufficient amount to allow the insertions of one hand of one of the lifters (120, 130) and become inelastic when the predetermined stretch length is reached such that during the jump the jumper can be held more securely. a) a non-elastic encircling strap, wherein said encircling strap has two ends, and wherein the encircling strap comprises a thin, flexible material of sufficient size and shape to be worn around the leg of the jumper; and b) one or more handles, wherein each handle comprises an elastic band, wherein each handle has two ends, wherein each end is attached to the non-elastic encircling strap with a handle attachment, wherein the handle, is of sufficient size and shape that it can be gripped by at least one hand of at least one lifter (120, 130), wherein said elastic band is elastic to a predetermined stretch length, and whereby the elastic band of each handle can stretch a sufficient amount to allow the insertions of one hand of one of the lifters (120, 130) and become inelastic when the predetermined stretch length is reached such that during the jump the jumper can be held more securely.
An inkjet recording device, comprising a print head that includes a head base including: a nozzle from which ink is ejected; charging electrodes (11A, 11B) that charge the ink ejected from the nozzle; deflection electrodes (12A, 12B) that deflect the ink charged by the charging electrodes (11A, 11B); and a gutter that collects ink not used in printing, and a head cover included in the head base, said head cover being attached to the print head for the purpose of protecting the nozzles (8A, 8B), the charging electrodes (11A, 11B), the deflection electrodes (12A, 12B) and the gutter mounted on the head base, characterized in that the head base has a first horizontal uneven side portion extending in a horizontal direction, an oblique uneven side portion, and a second horizontal uneven side portion, wherein the head cover is configured to be moved in the horizontal direction for the attachment and removal of parts during maintenance of the print head, wherein the first horizontal uneven side portion, the oblique uneven side portion, and the second horizontal uneven side portion are configured such that installed parts are prevented from colliding with each other when the head cover is attached to or removed from the print head. a nozzle from which ink is ejected; charging electrodes (11A, 11B) that charge the ink ejected from the nozzle; deflection electrodes (12A, 12B) that deflect the ink charged by the charging electrodes (11A, 11B); and a gutter that collects ink not used in printing, and a head cover included in the head base, said head cover being attached to the print head for the purpose of protecting the nozzles (8A, 8B), the charging electrodes (11A, 11B), the deflection electrodes (12A, 12B) and the gutter mounted on the head base, characterized in that the head base has a first horizontal uneven side portion extending in a horizontal direction, an oblique uneven side portion, and a second horizontal uneven side portion, wherein the head cover is configured to be moved in the horizontal direction for the attachment and removal of parts during maintenance of the print head, wherein the first horizontal uneven side portion, the oblique uneven side portion, and the second horizontal uneven side portion are configured such that installed parts are prevented from colliding with each other when the head cover is attached to or removed from the print head.
A material composition for use in light conversion comprising: a) a phosphor material; and b) at least one type of semiconductor seeded nanoparticle material having a central emission wavelength in the range of 580-680nm, characterized in that the SNP material comprises rod shaped SNP (RSNP) and the phosphor material and the RSNP material are mixed in a selected amount such that an absorption ratio of optical absorbance at 455nm to a maximum value of optical absorbance in the range of 580-700 nm greater than 3.5:1 is obtained. a) a phosphor material; and b) at least one type of semiconductor seeded nanoparticle material having a central emission wavelength in the range of 580-680nm, characterized in that the SNP material comprises rod shaped SNP (RSNP) and the phosphor material and the RSNP material are mixed in a selected amount such that an absorption ratio of optical absorbance at 455nm to a maximum value of optical absorbance in the range of 580-700 nm greater than 3.5:1 is obtained.
Apparatus for coating workpieces that preferably consist at least in portions of wood, wood-based materials, plastics material, aluminium or the like, said apparatus comprising a supply device for supplying a coating material; a pressing device for pressing the coating material onto a surface of a workpiece; a conveying device for bringing about a relative movement between the pressing device and the relevant workpiece; and an activation device for activating an adhesive on a coating material supplied in the supply device and/or for activating an adhesive on a surface of a workpiece to be coated, wherein the activation device comprises at least one supply line for supplying an activating agent and a nozzle body having an inflow channel and a discharge region, characterised in that the activation device comprises at least one sound-absorbing element which is designed to reduce the sound pressure resulting from the flow of the activating agent and/or to cause a frequency shift, wherein the sound-absorbing element is arranged at least at one of the following locations: supply line of the activation device, inflow channel of the nozzle body, discharge region of the nozzle body.
An azeotropic or azeotrope-like composition consisting essentially of 1,3,3,3-tetrachloroprop-1-ene (HCCO-1230zd) and from 15 to 70 weight percent hydrogen fluoride.
Active filtering system arranged for being connected between a first power supply line and a second power supply line of a DC bus, said bus being arranged for being connected to a DC voltage source located upstream, said system being characterized in that it comprises: - A first capacitor arranged for being connected both to the first power supply line of the bus and to the second power supply line of the bus and to the terminals whereof a voltage (V C1) is applied including an AC component ( Ṽ C 1), - A switching assembly controlled by processing means for generating a compensation voltage (V AF) and comprising a first terminal connected to the first capacitor and a second terminal intended to be connected to the second supply line, said processing means being arranged for determining control commands to be applied to the switching assembly to generate a compensation voltage (V AF) across the terminals of the switching assembly, by implementing a regulating loop comprising as input a reference value (V AF_ref) of compensation voltage determined on the basis of the AC component ( Ṽ C 1) of the voltage across the terminals of the first capacitor and a measured value (V AF) of the compensation voltage across the terminals of the switching assembly. - A first capacitor arranged for being connected both to the first power supply line of the bus and to the second power supply line of the bus and to the terminals whereof a voltage (V C1) is applied including an AC component ( Ṽ C 1), - A switching assembly controlled by processing means for generating a compensation voltage (V AF) and comprising a first terminal connected to the first capacitor and a second terminal intended to be connected to the second supply line, said processing means being arranged for determining control commands to be applied to the switching assembly to generate a compensation voltage (V AF) across the terminals of the switching assembly, by implementing a regulating loop comprising as input a reference value (V AF_ref) of compensation voltage determined on the basis of the AC component ( Ṽ C 1) of the voltage across the terminals of the first capacitor and a measured value (V AF) of the compensation voltage across the terminals of the switching assembly.