mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a wireless device , the method comprising: transmitting, via a first cell , secured NAS signaling which indicates one or more identifiers associated with a non-public network that the wireless device targets to access, wherein the non-public network is a standalone non-public network, SNPN and the one or more identifiers include a public land mobile network identity, PLMN ID, and a network identifier, NID or the non-public network is a public network integrated non-public network, PNiNPN, and the one or more identifiers include a public land mobile network identity, PLMN ID; performing , over the first cell associated with a public network, a non-access stratum, NAS, procedure in which the wireless device is authenticated as being authorized to access the non-public network; after performing the NAS procedure, receiving from the first cell a mobility command that commands the wireless device to perform a mobility procedure towards a second cell associated with the non-public network; wherein the mobility command includes an identifier of the second cell towards which the wireless device is to perform the mobility procedure, and wherein the method further comprises determining, based on the mobility command, that the second cell identified by the identifier is a cell associated with the non-public network; and performing the mobility procedure towards the second cell . transmitting, via a first cell , secured NAS signaling which indicates one or more identifiers associated with a non-public network that the wireless device targets to access, wherein the non-public network is a standalone non-public network, SNPN and the one or more identifiers include a public land mobile network identity, PLMN ID, and a network identifier, NID or the non-public network is a public network integrated non-public network, PNiNPN, and the one or more identifiers include a public land mobile network identity, PLMN ID; performing , over the first cell associated with a public network, a non-access stratum, NAS, procedure in which the wireless device is authenticated as being authorized to access the non-public network; after performing the NAS procedure, receiving from the first cell a mobility command that commands the wireless device to perform a mobility procedure towards a second cell associated with the non-public network; wherein the mobility command includes an identifier of the second cell towards which the wireless device is to perform the mobility procedure, and wherein the method further comprises determining, based on the mobility command, that the second cell identified by the identifier is a cell associated with the non-public network; and performing the mobility procedure towards the second cell .
A degradation diagnostic device configured to perform a diagnosis for degradation of a compressor comprising a compression mechanism unit to be driven along with a rotational motion of a rotary shaft and a shell forming an outer casing, the degradation diagnostic device comprising a vibration detection device to be fixed onto an outer wall of the shell at a position at which an outer periphery of the compression mechanism unit is located, wherein the vibration detection device includes: a vibration sensor configured to detect vibration of the compressor ; a sensor holding unit including the vibration sensor ; a base portion to which the sensor holding unit is connected; and a plurality of projecting portions formed on a surface of the base portion on a side opposite to the sensor holding unit , each of the plurality of projecting portions has a distal end portion to be held in linear contact with the outer wall of the shell along with an axial direction of the rotary shaft , wherein, in a sectional view of the vibration detection device taken along a plane perpendicular to the rotary shaft , the distal end portion of each of the projecting portions has a pointed shape, and part of the vibration detection device other than the distal end portions of the plurality of projecting portions does not contact with the outer wall of the shell . a vibration sensor configured to detect vibration of the compressor ; a sensor holding unit including the vibration sensor ; a base portion to which the sensor holding unit is connected; and a plurality of projecting portions formed on a surface of the base portion on a side opposite to the sensor holding unit , each of the plurality of projecting portions has a distal end portion to be held in linear contact with the outer wall of the shell along with an axial direction of the rotary shaft , the distal end portion of each of the projecting portions has a pointed shape, and part of the vibration detection device other than the distal end portions of the plurality of projecting portions does not contact with the outer wall of the shell .
A frame for retaining one or more masonry slips, the one or more masonry slips each having at least two slots formed on at least two sides thereof, respectively, the frame comprising: a supporting structure comprising a back plate , wherein the supporting structure is configured to house two or more masonry slips ; two or more face rails positioned on the back plate of the supporting structure wherein each face rail is configured to house at least one masonry slip , each face rail comprising a projection directed away from the back plate of the supporting structure, and further comprising a retaining element positioned at the end of the projection and such that the retaining element is approximately parallel to the back plate of the supporting structure, wherein the retaining element is configured to be positioned within one of the two slots formed on the sides of the masonry slip ; characterized in that the supporting structure is a curved supporting structure. a supporting structure comprising a back plate , wherein the supporting structure is configured to house two or more masonry slips ; two or more face rails positioned on the back plate of the supporting structure wherein each face rail is configured to house at least one masonry slip , each face rail comprising a projection directed away from the back plate of the supporting structure, and further comprising a retaining element positioned at the end of the projection and such that the retaining element is approximately parallel to the back plate of the supporting structure, wherein the retaining element is configured to be positioned within one of the two slots formed on the sides of the masonry slip ; characterized in that the supporting structure is a curved supporting structure.
Device for a vehicle seat for adjusting the inclination of a backrest, which extends in a backrest longitudinal direction (RL), relative to a seat part , an inclination-adjusting apparatus , which can rotate about a first axis of rotation extending in the vehicle seat width direction (B), of the device for adjusting the backrest inclination being connected to the seat part , and a coil spring of the device being connected to the inclination-adjusting apparatus at one end and to the seat part at the other end, wherein the device comprises the inclination-adjusting apparatus , an adapter element , which can rotate about the first axis of rotation , is rigidly connected to the inclination-adjusting apparatus and comprises a first stop element , a coil spring , that can rotate about the first axis of rotation , and comprises both a first coil spring end , which is arranged immovable relative to the adapter element , and a second coil spring end , and a second stop element that can be immovably connected to the seat part , the second coil spring end being in operative contact with the first stop element when a first angle between the backrest longitudinal direction (RL) and a vehicle seat longitudinal direction (L) is smaller than a limit angle, and being in operative contact with the second stop element when a first angle is greater than the limit angle.
A method for preparing an artificial blood vessel, comprising: weaving warp yarns and weft yarns to form interlaced first weaves and second weaves, both weaves extend along a weft direction to obtain a composite fabric; and successively corrugating and thermal-setting the composite fabric to obtain the artificial blood vessel, wherein the first weaves are plain weaves and the second weaves are satin weaves, each plain weave and each satin weave alternate with each other, and each of the satin weaves has warps floating over 5 to 9 wefts; the composite fabric has a warp density in the range of 480 yarns per 10 cm to 748 yarns per 10 cm and a weft density of 280 yarns per 10 cm to 400 yarns per 10 cm. weaving warp yarns and weft yarns to form interlaced first weaves and second weaves, both weaves extend along a weft direction to obtain a composite fabric; and successively corrugating and thermal-setting the composite fabric to obtain the artificial blood vessel, wherein the first weaves are plain weaves and the second weaves are satin weaves, each plain weave and each satin weave alternate with each other, and each of the satin weaves has warps floating over 5 to 9 wefts; the composite fabric has a warp density in the range of 480 yarns per 10 cm to 748 yarns per 10 cm and a weft density of 280 yarns per 10 cm to 400 yarns per 10 cm.
A material-removing machine for removing material from a cone section of a medical balloon comprising: a prime mover ; and a material-removing element operatively connected to the prime mover such that operation of the prime mover imparts rotation to the material-removing element about a rotational axis, wherein the material-removing element includes an interior surface defining a generally conical-shaped cavity extending along the rotational axis and adapted to receive at least a longitudinal portion of a cone section of an expanded medical balloon , wherein at least a portion of the interior surface is adapted to remove material from the longitudinal portion of the cone section to reduce a wall thickness of the longitudinal portion cone section , and wherein the material-removing element further includes a through opening in communication with the conical-shaped cavity and adapted to receive at least a portion of a waist section extending outward from the cone section of the expanded medical balloon when at least the longitudinal portion of the cone section is received in the conical-shaped cavity , wherein the material-removing element is configured to remove material continuously from the 360-degree exterior perimeter of the longitudinal portion of the cone section as the material-removing element rotates about the cone section to reduce the wall thickness of the cone section . a prime mover ; and a material-removing element operatively connected to the prime mover such that operation of the prime mover imparts rotation to the material-removing element about a rotational axis,
A notching machine for making a paper blank from a corresponding paper sheet, comprising: - a frame ; - a supporting surface (S) defining a worktop (P) to supportably receive the paper sheet being processed along a longitudinal orientation (L) of sheet loading; - a carriage , movable in parallel with the worktop (P); - a primary cutting unit , associated with the carriage and including a primary blade and a primary anvil (141A"), wherein the primary blade is slidable relative to the primary anvil (141A") along a cutting orientation (C) perpendicular to the worktop (P) to make a primary shear cut (T1); - a secondary cutting unit , associated with the carriage ; - an actuating assembly configured to move the primary blade relative to the primary anvil (141A") along the cutting orientation (C). characterized in that the secondary cutting unit includes a secondary blade and a secondary anvil (142A"), wherein the secondary blade is slidable relative to the secondary anvil (142A") along the cutting orientation (C) to make a corresponding secondary shear cut (T2), wherein the actuating assembly is configured to move the secondary blade relative to the secondary anvil (142A") along the cutting orientation (C), wherein the carriage is movable along the longitudinal orientation (L) between a first position, where the primary cutting unit is configured to make the primary cut (T1), and a second position, where the secondary cutting unit is configured to make the secondary cut (T2). - a frame ; - a supporting surface (S) defining a worktop (P) to supportably receive the paper sheet being processed along a longitudinal orientation (L) of sheet loading; - a carriage , movable in parallel with the worktop (P); - a primary cutting unit , associated with the carriage and including a primary blade and a primary anvil (141A"), wherein the primary blade is slidable relative to the primary anvil (141A") along a cutting orientation (C) perpendicular to the worktop (P) to make a primary shear cut (T1); - a secondary cutting unit , associated with the carriage ; - an actuating assembly configured to move the primary blade relative to the primary anvil (141A") along the cutting orientation (C). characterized in that the secondary cutting unit includes a secondary blade and a secondary anvil (142A"), wherein the secondary blade is slidable relative to the secondary anvil (142A") along the cutting orientation (C) to make a corresponding secondary shear cut (T2), wherein the actuating assembly is configured to move the secondary blade relative to the secondary anvil (142A") along the cutting orientation (C), wherein the carriage is movable along the longitudinal orientation (L) between a first position, where the primary cutting unit is configured to make the primary cut (T1), and a second position, where the secondary cutting unit is configured to make the secondary cut (T2).
An imaging apparatus comprising: a lens configured to collect subject light; an image sensor configured to photoelectrically convert the subject light from the lens ; a circuit substrate including a circuit configured to output a signal from the image sensor ; an actuator configured to drive the lens with a pulse width modulation, PWM, waveform; and a detection unit configured to detect a magnetic field generated by a coil included in the actuator , wherein the detection unit is formed on the circuit substrate and comprises a coil for detecting an induced electromotive force. a lens configured to collect subject light; an image sensor configured to photoelectrically convert the subject light from the lens ; a circuit substrate including a circuit configured to output a signal from the image sensor ; an actuator configured to drive the lens with a pulse width modulation, PWM, waveform; and a detection unit configured to detect a magnetic field generated by a coil included in the actuator , wherein the detection unit is formed on the circuit substrate and comprises a coil for detecting an induced electromotive force.
A compound, selected from the group consisting of: or a solvate or a pharmaceutically acceptable salt thereof.
A lighting device comprising: a plurality of light sources (11, ..., 16) disposed at a circumference of a concentric circle; a light guide disposed adjacent to the light sources (11, ..., 16) while surrounding the light sources (11, ..., 16); and a cover member configured to surround upper surfaces of the light sources (11, ..., 16) and upper and side surfaces of the light guide , wherein the light guide is provided with a plurality of grooves (g1, ..., g6) at a central first area thereof such that each of the light sources (11, ..., 16) is inserted into a corresponding groove of said grooves (g1, ..., g6), respectively, and wherein shapes of the plurality of grooves (g1, ..., g6) are identical while being point-symmetric with respect to a center of the concentric circle, characterized in that in each of said grooves (g1, ..., g6) the light guide is configured such that a first surface thereof in a direction of the light sources and a second surface thereof in a direction opposite to the light sources have inclination with respect to a direction perpendicular to a horizontal advance direction of light (L2), without being perpendicular to the horizontal advance direction (L2), and in that the cover member has a light-transmissive pattern in a light diffusion area thereof facing the upper surface of the light guide , wherein the cover member further comprises light shields respectively disposed in an inner area inside the light-transmissive pattern and an outer area outside the light-transmissive pattern, wherein the light guide and the cover member are spaced apart from each other, and wherein the inner area and the outer area are protruded toward the light guide . a plurality of light sources (11, ..., 16) disposed at a circumference of a concentric circle; a light guide disposed adjacent to the light sources (11, ..., 16) while surrounding the light sources (11, ..., 16); and a cover member configured to surround upper surfaces of the light sources (11, ..., 16) and upper and side surfaces of the light guide , wherein the light guide is provided with a plurality of grooves (g1, ..., g6) at a central first area thereof such that each of the light sources (11, ..., 16) is inserted into a corresponding groove of said grooves (g1, ..., g6), respectively, and wherein shapes of the plurality of grooves (g1, ..., g6) are identical while being point-symmetric with respect to a center of the concentric circle, wherein the light guide and the cover member are spaced apart from each other, and wherein the inner area and the outer area are protruded toward the light guide .
A method of training a test system for mobile network testing by using at least one testing device configured to be connected to a mobile network, comprising the following steps: - Running a predefined set of test procedures on the at least one testing device in order to obtain at least one temporal test metric, wherein the test procedures running on the at least one testing device simulate the behavior of a participant of the mobile network, - Evaluating the at least one temporal test metric via a machine learning model by means of a processing unit , and - Training the machine learning model by means of the processing unit to predict a temporal course of at least one test stability score based on the at least one temporal test metric obtained, wherein the training of the machine learning model is based on the at least one temporal test metric together with at least one known binary test result, and wherein the temporal course of the at least one test stability score indicates the probability of a respective binary test result throughout the entire duration of a test. - Running a predefined set of test procedures on the at least one testing device in order to obtain at least one temporal test metric, wherein the test procedures running on the at least one testing device simulate the behavior of a participant of the mobile network, - Evaluating the at least one temporal test metric via a machine learning model by means of a processing unit , and - Training the machine learning model by means of the processing unit to predict a temporal course of at least one test stability score based on the at least one temporal test metric obtained, wherein the training of the machine learning model is based on the at least one temporal test metric together with at least one known binary test result, and wherein the temporal course of the at least one test stability score indicates the probability of a respective binary test result throughout the entire duration of a test.
A method of manufacturing Nd-Fe-B magnets comprising at least the steps of: - providing Nd-Fe-B ribbons produced by melt spinning technique and a powder containing a heavy rare earth metal, - mixing the Nd-Fe-B ribbons with the powder containing the heavy rare earth metal such that a mixture having between 1 and 4 weight % of the heavy rare earth metal in the mixture is achieved, - pressing and spark plasma sintering the mixture to a fully dense nanocrystalline Nd-Fe-B magnet and - subsequently annealing the Nd-Fe-B magnet to allow the diffusion of the heavy rare earth metal. - providing Nd-Fe-B ribbons produced by melt spinning technique and a powder containing a heavy rare earth metal, - mixing the Nd-Fe-B ribbons with the powder containing the heavy rare earth metal such that a mixture having between 1 and 4 weight % of the heavy rare earth metal in the mixture is achieved, - pressing and spark plasma sintering the mixture to a fully dense nanocrystalline Nd-Fe-B magnet and - subsequently annealing the Nd-Fe-B magnet to allow the diffusion of the heavy rare earth metal.
A seal surface carving apparatus comprising: a thermal head having a plurality of heater elements disposed in a line shape; an attachment on which an impression die having a seal surface to be carved is set; conveying means that carries in the attachment to an inside of the apparatus and carries out the attachment to an outside of the apparatus ; and control means configured to carve the seal surface on the impression die by driving the respective heater elements of the thermal head while controlling a relative position between the impression die and the thermal head using the conveying means ; a slit hole extending along a conveyance direction inside the apparatus based on the conveying means being formed in the attachment , characterised in that a size of the impression die is capable of being determined by detecting a position at which the impression die blocks the slit hole . a thermal head having a plurality of heater elements disposed in a line shape; an attachment on which an impression die having a seal surface to be carved is set; conveying means that carries in the attachment to an inside of the apparatus and carries out the attachment to an outside of the apparatus ; and control means configured to carve the seal surface on the impression die by driving the respective heater elements of the thermal head while controlling a relative position between the impression die and the thermal head using the conveying means ; a slit hole extending along a conveyance direction inside the apparatus based on the conveying means being formed in the attachment , characterised in that a size of the impression die is capable of being determined by detecting a position at which the impression die blocks the slit hole .
A method for producing homoserine lactone and organic acid, comprising - producing O-acyl homoserine by a microorganism, and - hydrolysing the O-acyl homoserine in the presence of hydrochloric acid, wherein O-acyl homoserine and hydrochloric acid are used at a molar ratio of 1: 1-15. - producing O-acyl homoserine by a microorganism, and - hydrolysing the O-acyl homoserine in the presence of hydrochloric acid, wherein O-acyl homoserine and hydrochloric acid are used at a molar ratio of 1: 1-15.