mhurhangee/ep-ind-claims huggingface dataset:
An inflatable bed, comprising: an upper sheet (1, 1a, 1b, 1c) comprising a planar portion (11, 11a) and an oblique portion (12, 12a); a lower sheet (2, 2a, 2b, 2c); a lateral confining sheet (3, 3a), connecting the upper sheet (1, 1a, 1b, 1c) and the lower sheet (2, 2a, 2b, 2c) and defining an inflatable chamber (100, 100a) therebetween, the lateral confining sheet (3, 3a) comprising: a circumferential portion (31, 31a), and an extension portion (32, 32a) extending from an end of the circumferential portion (31, 31a) and connected to the oblique portion (12, 12a) of the upper sheet (1, 1a, 1b, 1c); a first internal sheet (4, 4a, 4b, 4c) connecting the planar portion (11, 11a) of the upper sheet (1, 1a, 1b, 1c) to the lower sheet (2, 2a, 2b, 2c); and a second internal sheet (5, 5a) connecting the oblique portion (12, 12a) of the upper sheet (1, 1a, 1b, 1c) to the extension portion (32, 32a) of the lateral confining sheet (3, 3a); wherein the oblique portion (12, 12a) of the upper sheet (1, 1a, 1b, 1c) forms a front face of a backrest (101, 101a) of the inflatable bed (10, 10a, 10b, 10c), and the extension portion (32, 32a) of the lateral confining sheet (3, 3a) forms lateral faces of the backrest (101, 101a). an upper sheet (1, 1a, 1b, 1c) comprising a planar portion (11, 11a) and an oblique portion (12, 12a); a lower sheet (2, 2a, 2b, 2c); a lateral confining sheet (3, 3a), connecting the upper sheet (1, 1a, 1b, 1c) and the lower sheet (2, 2a, 2b, 2c) and defining an inflatable chamber (100, 100a) therebetween, the lateral confining sheet (3, 3a) comprising: a circumferential portion (31, 31a), and an extension portion (32, 32a) extending from an end of the circumferential portion (31, 31a) and connected to the oblique portion (12, 12a) of the upper sheet (1, 1a, 1b, 1c); a circumferential portion (31, 31a), and an extension portion (32, 32a) extending from an end of the circumferential portion (31, 31a) and connected to the oblique portion (12, 12a) of the upper sheet (1, 1a, 1b, 1c); a first internal sheet (4, 4a, 4b, 4c) connecting the planar portion (11, 11a) of the upper sheet (1, 1a, 1b, 1c) to the lower sheet (2, 2a, 2b, 2c); and a second internal sheet (5, 5a) connecting the oblique portion (12, 12a) of the upper sheet (1, 1a, 1b, 1c) to the extension portion (32, 32a) of the lateral confining sheet (3, 3a); wherein the oblique portion (12, 12a) of the upper sheet (1, 1a, 1b, 1c) forms a front face of a backrest (101, 101a) of the inflatable bed (10, 10a, 10b, 10c), and the extension portion (32, 32a) of the lateral confining sheet (3, 3a) forms lateral faces of the backrest (101, 101a).
A process for generating a unique identifier of a subject from a genotyped DNA sample of said subject, the process comprising the steps of: - obtaining a number N ≥ 2 of genomic positions of interest, said genomic positions obtained being such that, in a population of M subjects, these genomic positions have a binary polymorphism having an allelic frequency of 29% ±7% for the minority allele; - combining pairwise the genomic positions obtained by means of logic functions so as to obtain a binary code bc. - obtaining a number N ≥ 2 of genomic positions of interest, said genomic positions obtained being such that, in a population of M subjects, these genomic positions have a binary polymorphism having an allelic frequency of 29% ±7% for the minority allele; - combining pairwise the genomic positions obtained by means of logic functions so as to obtain a binary code bc.
Mechanical coolant pump for an internal combustion engine, comprising an impeller pump wheel pumping the liquid coolant incoming in axial direction radially into an outlet volute, a pump housing including a volute housing defining the outlet volute including an outlet channel, and an outlet valve arrangement in the route of the outlet channel, the outlet valve arrangement comprising a valve flap being pivotable between an open position and a closed position to leave open or close a valve opening of the outlet channel, whereby the valve opening is defined and surrounded by a valve seat comprising two linear lateral seat portions parallel to each other defining a valve seat plane and a symmetry plane in the middle of and rectangular to the valve seat plane, a valve flap is provided being rotatable around a pivot axis which is parallel to the symmetry plane, the mechanical coolant pump being characterized in that the valve flap is provided with a flap seat on one side of the valve flap, the flap seat corresponding to the valve seat, the valve flap being located with a lateral eccentricity from the symmetry plane, whereby the lateral eccentricity is between 1/20 and 1/1 of the pivot axis' distance to the valve seat plane, at least one axial end of the valve flap is fixed to a base disk being arranged rectangular to the pivot axis, whereby the proximal surface of the base disk is lying in a plane defined by an inner wall surface of the the volute housing is provided with a recess for housing the valve flap in its open position.
Retracting device, in particular for sliding doors, having a release part which can be coupled indirectly or directly to a damper and a spring, wherein the release part can be moved out of a first parking section (13.2) of a guide into a guide section (13.1), and wherein the release part can be displaced in the guide section (13.1) in the damping direction counter to the damping force of the damper, characterized in that the guide has a second parking section (13.3) into which the release part can be moved into a second parking position, in that the second parking section (13.3) is arranged offset in the damping direction with respect to the first parking section (13.2) and in that, that the release part has two guide pieces (51, 52) which are guided displaceable in the guide, in that in each case one guide piece (51, 52) can be retracted in the assigned parking position in a parking section (13.2, 13.3) and in that by means of the guide pieces (51, 52) the release part is assigned in the parking position and thus the release part is fixed.
A vane strut assembly for a gas turbine engine exhaust case, the vane strut assembly comprising: a first panel; a second panel; and a coupling mechanism that couples the first panel and the second panel to one another, the coupling mechanism including a first fitting that is attached to the first panel; a second fitting that is attached to the second panel; and a cable coupled to the first fitting and the second fitting; characterized in that the cable accommodates a deflection (A1; A2) between the first panel and the second panel within a range of one-sixteenth of an inch (1.5mm) and one-quarter of an inch (6.4mm). a first panel; a second panel; and a coupling mechanism that couples the first panel and the second panel to one another, the coupling mechanism including a first fitting that is attached to the first panel; a second fitting that is attached to the second panel; and a cable coupled to the first fitting and the second fitting; a first fitting that is attached to the first panel; a second fitting that is attached to the second panel; and a cable coupled to the first fitting and the second fitting; characterized in that the cable accommodates a deflection (A1; A2) between the first panel and the second panel within a range of one-sixteenth of an inch (1.5mm) and one-quarter of an inch (6.4mm).
A measurement probe that is detachably connected to a bio-optical measurement apparatus which performs optical measurement on body tissue, the measurement probe comprising: only first and second illumination fibers (35, 36) configured to irradiate the body tissue with low coherent light having a short spatial coherence length; and three or more light-receiving fibers (37, 38, 39) configured to receive scattered light at multiple angles, characterized in that all light-receiving fibers (37, 38, 39) of the measurement probe are arranged on a perpendicular bisector of a line segment connecting centers of the first and second illumination fibers (35, 36) at a distal end surface of the measurement probe, such that a distance between the first illumination fiber and any one of the light-receiving fibers (37, 38, 39) is equal to a distance between the second illumination fiber and the any one of the light-receiving fibers (37, 38, 39). only first and second illumination fibers (35, 36) configured to irradiate the body tissue with low coherent light having a short spatial coherence length; and three or more light-receiving fibers (37, 38, 39) configured to receive scattered light at multiple angles, characterized in that all light-receiving fibers (37, 38, 39) of the measurement probe are arranged on a perpendicular bisector of a line segment connecting centers of the first and second illumination fibers (35, 36) at a distal end surface of the measurement probe, such that a distance between the first illumination fiber and any one of the light-receiving fibers (37, 38, 39) is equal to a distance between the second illumination fiber and the any one of the light-receiving fibers (37, 38, 39).
A microsphere comprising an antimicrobial agent for use in selectively removing carie-causing organisms from the oral cavity in a subject, the agent being encapsulated within a superfine epichlorohydrin cross-linked dextran (Sephadex G-25).
An analgesic agent which is an opioid peptide which is an enkephalin, endorphin, dynorphin, endomorphin, casomorphin or dermorphin or an analog or derivative thereof wherein an analog or a derivative is a peptide analogous to the opioid peptide thereof wherein one or more amino acids within the peptide have been substituted, deleted, or inserted, for use in treating pain in an individual which is chronic or procedural-related pain of the head or facial region associated with the trigeminal nerve, by a method of intranasal administration, wherein the administration is targeted to the trigeminal nerve system by administering to the inferior two-thirds of the nasal cavity, and results predominantly in analgesia to the facial or head region as compared to analgesic effects in other parts of the body.
A decorative sheet, comprising: a transparent recycled resin layer containing a recycled polyester resin; a pattern layer having an arbitrary pattern; and a colored recycled resin layer containing a recycled polyester resin and colored in an arbitrary color tone, wherein the decorative sheet is formed by sequentially superimposing the transparent recycled resin layer, the pattern layer, and the colored recycled resin layer, wherein the transparent recycled resin layer has a haze value equal to or less than 4% as a degree of cloudiness, an L* value equal to or more than 98.5, and a b* value equal to or less than 1.8 in CIE 1976 Lab that are measured using a color measuring plate L*: 99.17, a*: -0.09, b*: 0.53 as a background, and wherein the pattern layer has an L* value equal to or more than 95.0 and less than 97.0, and a b* value equal to or more than 3.0 in the CIE 1976 Lab, or the pattern layer has an L* value less than 95.0 in the CIE 1976 Lab. a transparent recycled resin layer containing a recycled polyester resin; a pattern layer having an arbitrary pattern; and a colored recycled resin layer containing a recycled polyester resin and colored in an arbitrary color tone, wherein the decorative sheet is formed by sequentially superimposing the transparent recycled resin layer, the pattern layer, and the colored recycled resin layer, wherein the transparent recycled resin layer has a haze value equal to or less than 4% as a degree of cloudiness, an L* value equal to or more than 98.5, and a b* value equal to or less than 1.8 in CIE 1976 Lab that are measured using a color measuring plate L*: 99.17, a*: -0.09, b*: 0.53 as a background, and wherein the pattern layer has an L* value equal to or more than 95.0 and less than 97.0, and a b* value equal to or more than 3.0 in the CIE 1976 Lab, or the pattern layer has an L* value less than 95.0 in the CIE 1976 Lab.
A method of making a patient-specific surgical instrument (400, 500, 600, 700) configured to facilitate the placement of an interpositional implant for a facet, an uncovertebral joint or a costovertebral joint of a patient, wherein at least a portion of the surgical instrument (400, 500, 600, 700) has a shape that matches a shape of the facet, uncovertebral or costovertebral joint of the patient, the method comprising deriving the shape of the facet, uncovertebral or costovertebral joint of the patient from electronic image data of the patient; and creating the surgical instrument (400, 500, 600, 700).
Vibration damper with a closure package which is connected to a damper tube of the vibration damper and guides and seals a piston rod, the closure package having: - a base body which can be connected to a damper tube and has two ends (12, 13), the first end forming an end face of the damper tube in use, and the second end being arranged in the damper tube in use, - a seal, which is arranged in the base body for sealing a piston rod, and - a seal holder, which is arranged between the seal and the base body at the first end, wherein the seal holder is positively and/or non-positively connected to the base body for axial fixing of the seal, characterized in that the seal holder is designed as an emergency-fusible seal holder which is at least thermoplastically deformable when the vibration damper overheats in order to release the connection with the base body. - a base body which can be connected to a damper tube and has two ends (12, 13), the first end forming an end face of the damper tube in use, and the second end being arranged in the damper tube in use, - a seal, which is arranged in the base body for sealing a piston rod, and - a seal holder, which is arranged between the seal and the base body at the first end, wherein the seal holder is positively and/or non-positively connected to the base body for axial fixing of the seal, characterized in that the seal holder is designed as an emergency-fusible seal holder which is at least thermoplastically deformable when the vibration damper overheats in order to release the connection with the base body.
A drawer pull-out guide, comprising: - a first guide rail and at least one second guide rail displaceably supported relative to one another, - at least one supporting element arranged on the first guide rail, the at least one supporting element being configured to be supported, at least temporarily, on the second guide rail, - wherein a position of the at least one supporting element relative to the second guide rail can be adjusted by an adjustment device, and, after adjustment has been made, can be fixed relative to the first guide rail, wherein the at least one supporting element can be adjusted in a height direction, seen in the mounted position of the drawer pull-out guide, by the adjustment device, characterized in that the guide rails (10, 11) are configured to be displaceable relative to one another between a closed position and an open position, wherein the at least one supporting element, at least in the closed position, has a play in relation to the second guide rail and the play can be adjusted by the adjustment device. - a first guide rail and at least one second guide rail displaceably supported relative to one another, - at least one supporting element arranged on the first guide rail, the at least one supporting element being configured to be supported, at least temporarily, on the second guide rail, - wherein a position of the at least one supporting element relative to the second guide rail can be adjusted by an adjustment device, and, after adjustment has been made, can be fixed relative to the first guide rail, wherein the at least one supporting element can be adjusted in a height direction, seen in the mounted position of the drawer pull-out guide, by the adjustment device,
A method of producing dental aligners, comprising determining an initial configuration of the patient's teeth; determining a final configuration of the patient's teeth; designing a movement path for at least one of the patient's teeth from the initial configuration to the final configuration; dividing the movement path into a plurality of successive treatment steps, each having a target configuration for the one of the patient's teeth; and producing two or more dental aligners of substantially identical shape, the aligners being adapted to move the one of the patient's teeth to the target configuration; wherein-producing the aligners comprises producing the aligners comprising a fluid-permeable material allowing oxygen and/or saliva to pass through the produced aligners.
Shiftable planetary gear mechanism in a portable power tool, said gear mechanism having a plurality of planet carriers (8, 9, 10) with associated planet gears (12, 13, 14) and being intended to be adjusted between at least two gear stages, wherein the gear stages are selectable via an adjustable shifting ring gear, wherein, in a first gear stage, the shifting ring gear is rotationally coupled to a planet carrier and, in a second gear stage, the shifting ring gear is latched in a manner fixed to a housing, wherein at least two planetary stages (13, 14) are located axially one after another within the shifting ring gear, characterized in that, in the second gear stage, the shifting ring gear is rotationally coupled to the 2nd- and 3rd-stage planet gears (13, 14).
A device for processing orbital data configured to be in communication with spatial listening sensors (24, 26, 28) configured to observe a satellite in orbit during its passage in a listening field of at least one of the sensors; the processing device comprising a computing unit configured to: - determine, from information communicated by at least one of said sensors (24, 26, 28), a list of orbital parameters of the observed satellite at N distinct time points (t 1, t 2,..., t N) so as to obtain N lists (List_t 1, List_t 2,..., List_t N) of orbital parameters of the satellite; - determine an orbital trajectory time function (Traj _t, Traj _t,..., Traj _t) for each of the N lists (List_t 1, List_t 2,..., List_t N) of orbital parameters of the observed satellite so as to obtain N orbital trajectory time functions (Traj _t, Traj _t,..., Traj _t); - estimate N orbital positions of the observed satellite according to the N orbital trajectory time functions (Traj1_t, Traj2_t,..., TrajN_t) at the distinct time points (t 1, t 2,...t N) so as to obtain N x N estimated orbital positions (Est_Pos_Traj _t 1,..., Est_Pos_Traj _t N,..., Est_Pos_Traj _t N) of the satellite; - determine the deviations between the N orbital trajectory time functions (Traj1_t, Traj2_t,..., TrajN_t) according to the determination of an N-order square matrix representative of the deviations (Err(i,j)) of the orbital positions between the N estimated orbital positions (Est_Pos_Traj(j)_t j - Est_Pos_Traj(i)_t j) according to the same time point (t 1, t 2,..., t N); - determine the temporal orbital evolution of the observed satellite as a function of the deviations thus determined. - determine, from information communicated by at least one of said sensors (24, 26, 28), a list of orbital parameters of the observed satellite at N distinct time points (t 1, t 2,..., t N) so as to obtain N lists (List_t 1, List_t 2,..., List_t N) of orbital parameters of the satellite; - determine an orbital trajectory time function (Traj _t, Traj _t,..., Traj _t) for each of the N lists (List_t 1, List_t 2,..., List_t N) of orbital parameters of the observed satellite so as to obtain N orbital trajectory time functions (Traj _t, Traj _t,..., Traj _t); - estimate N orbital positions of the observed satellite according to the N orbital trajectory time functions (Traj1_t, Traj2_t,..., TrajN_t) at the distinct time points (t 1, t 2,...t N) so as to obtain N x N estimated orbital positions (Est_Pos_Traj _t 1,..., Est_Pos_Traj _t N,..., Est_Pos_Traj _t N) of the satellite; - determine the deviations between the N orbital trajectory time functions (Traj1_t, Traj2_t,..., TrajN_t) according to the determination of an N-order square matrix representative of the deviations (Err(i,j)) of the orbital positions between the N estimated orbital positions (Est_Pos_Traj(j)_t j - Est_Pos_Traj(i)_t j) according to the same time point (t 1, t 2,..., t N); - determine the temporal orbital evolution of the observed satellite as a function of the deviations thus determined.
A driving strength control apparatus, comprising: a signal receiving unit to receive a test signal for controlling a driving strength transmitted by a peripheral device; characterized in that the apparatus is further comprising: a signal sampling unit to sample the test signal via a clock signal to obtain a plurality of rising edges and falling edges of the test signal; an interval measuring unit to measure the time interval between a rising edge and a falling edge, or between a rising edge and another rising edge, or between a falling edge and another falling edge; and a controlling unit to adjust the driving strength imposed on the peripheral device according to the time interval. a signal receiving unit to receive a test signal for controlling a driving strength transmitted by a peripheral device; characterized in that the apparatus is further comprising: a signal sampling unit to sample the test signal via a clock signal to obtain a plurality of rising edges and falling edges of the test signal; an interval measuring unit to measure the time interval between a rising edge and a falling edge, or between a rising edge and another rising edge, or between a falling edge and another falling edge; and a controlling unit to adjust the driving strength imposed on the peripheral device according to the time interval.
A multilayer ceramic electronic component (1; 1a; 1b; 1c) comprising a ceramic laminate with a multilayer structure having a ceramic base layer composed entirely of a polycrystalline phase and one or more ceramic auxiliary layers (3, 4;), the ceramic base layer and the one or more ceramic auxiliary layers (3, 4) being formed by co-firing, the one or more ceramic auxiliary layers (3, 4) being arranged on at least one main surface of the ceramic base layer, being arranged at an upper and/or lower outer surface of the ceramic laminate and composed entirely of a polycrystalline phase; and one or more conductive patterns (6, 7, 8) arranged inside and/or outside the ceramic laminate, wherein the polycrystalline phase in the ceramic base layer and the polycrystalline phase in the one or more ceramic auxiliary layers (3, 4) have the same crystal structure, and the one or more ceramic auxiliary layers (3, 4) have a linear expansion coefficient α2 lower than the linear expansion coefficient α1 of the ceramic base layer, wherein the difference, α1 - α2, between the linear expansion coefficient α1 of the ceramic base layer and the linear expansion coefficient α2 of the one or more ceramic auxiliary layers (3, 4) is in the range of 0.4 to 3 ppm/°C.