mhurhangee/ep-ind-claims huggingface dataset:
A synchronization unit for a positive dual clutch, having a sleeve carrier which is connected axially and fixedly to a working shaft so as to rotate with it, and having a selector sleeve which is fixed rotationally and can be displaced axially relative to the sleeve carrier, and having two frictionally acting synchronizer clutches which are assigned to opposite axial sides of the sleeve carrier and in each case one clutch gear, each synchronizer clutch having a multiple disk assembly, and having a plurality of pressure pieces which are arranged distributed over the circumference of the sleeve carrier and are mounted in an axially adjustable manner by way of the selector sleeve for loading one or the other synchronizer clutch, wherein sleeve-carrier-side synchronizer rings of the synchronizer clutch and the sleeve carrier have axially indented circumferential sections, characterized in that the sleeve carrier is provided with a plurality of axial cutouts which are arranged distributed over its circumference and are open in an alternating manner toward opposite end sides of the sleeve carrier, that each synchronizer ring is provided with a number of toothing sections which corresponds to the number of axial cutouts of an end side of the sleeve carrier, which toothing sections are fitted axially and radially into the cutouts, that the selector sleeve has an axial inner toothing system which is complementary with respect to the toothing sections and is recessed in sections in the region of the toothing sections of each synchronizer ring and at the radial level of the cutouts of the sleeve carrier, and that the recessed regions of the selector sleeve are made from opposite end sides in a complementary manner with respect to the cutouts of the sleeve carrier such that they alternate and are distributed over the circumference.
A battery separator comprising at least a polyolefin porous membrane and a modified porous layer, the polyolefin porous membrane having protrusions made of a polyolefin interspersed randomly on at least one surface at a density of not less than 3 protrusions/cm 2 and not greater than 200 protrusions/cm 2, the protrusions satisfying 5 μm ≤ W ≤ 50 μm (W being a size of the protrusion) and 0.5 μm ≤ H (H being a height of the protrusion); and the modified porous layer containing a fluorine-based resin and inorganic particles laminated on a surface of the polyolefin porous membrane, the surface having the protrusions; a content of the inorganic particles relative to a total of the fluorine-based resin and the inorganic particles of the modified porous layer being not less than 40 wt.% and less than 80 wt.%.
Interconnect structure for coupling at least one electronic unit (108, 116) for outputting and/or receiving electric signals, and at least one optical unit for converting said electric signals into optical signals and/or vice versa, to a further electronic component, said interconnect structure comprising an electrically insulating substrate and a plurality of signal lead pairs (104, 120) to be coupled between said electronic unit (108, 116) and a frontend contact region for electrically contacting said interconnect structure by said further electronic component, said interconnect structure further comprising a ground plane layer which is electrically insulated from said signal lead pairs (104, 120), wherein each pair of signal leads (104, 120) has a circuit connecting region for electrically contacting respective terminals of said at least one electronic unit (108, 116), characterized in that a region adjacent to said terminals of said at least one electronic unit (108, 116) said ground plane layer has a plurality of clearances that are each allocated to one signal lead pair (104, 120) and separated from a respective neighbouring clearance by a ground plane layer web, wherein each clearance is arranged in the vicinity of the circuit connecting regions, wherein a first region is provided in which the ground plane layer is uninterrupted and in which a first distance is provided between the two parallel lines of every signal lead pair (104, 120) and a second region is provided in which the clearances are provided and in which a second distance is provided between the two parallel lines of every signal lead pair (104, 120) the first distance being smaller than the second distance, and wherein in the first region the clearances follow the contour of the layout of the signal leads with their own outline.
A guidewire stop (100; 200) configured to lock a medical device onto a guidewire, said guidewire stop comprising a locking element, an actuator coupled to the locking element, and a locking tube (110; 210), wherein the locking tube (110; 201) is configured so that at least a section of the guidewire and at least part of the locking element or actuator can pass through the locking tube (110; 210); wherein the locking tube (110; 210) comprises an unlocking element (120; 220) configured to unlock the medical device from the guidewire; and wherein the guidewire stop (100; 200) is configured to have at least the following three configurations: - an initial unlocked configuration in which the guidewire stop (100; 200) and the medical device are movable relative to the guidewire; - a first locked configuration in which the locking element is not engaged with the unlocking element (120; 220) and in which the guidewire stop (100; 200) and the medical device are not movable relative to the guidewire; and - a first unlocked configuration in which the locking element is engaged with the unlocking element (120; 220) and in which the guidewire stop (100; 200) and the medical device are movable relative to the guidewire, wherein the unlocking element (120; 220) is a hole, fissure, indentation, cavity, orifice, window, gap, dent, cut, puncture or perforation in the locking tube (110; 201), and wherein the unlocking element (120; 220) has a size and shape allowing the unlocking element (120; 220) and the locking element to be engaged with one another. - an initial unlocked configuration in which the guidewire stop (100; 200) and the medical device are movable relative to the guidewire; - a first locked configuration in which the locking element is not engaged with the unlocking element (120; 220) and in which the guidewire stop (100; 200) and the medical device are not movable relative to the guidewire; and - a first unlocked configuration in which the locking element is engaged with the unlocking element (120; 220) and in which the guidewire stop (100; 200) and the medical device are movable relative to the guidewire,
Protection pad for coils, comprising: - a core and - a magnet, the core having rubber as material, characterized in that the core has a guide, in which the magnet is arranged and along which the magnet can be moved, and the magnet is arranged in the interior of the core. - a core and - a magnet,
A method for reporting channel state information, wherein the method comprises: receiving a reference signal sent by a base station; selecting, based on the reference signal, a precoding matrix from a codebook, wherein a precoding matrix W comprised in the codebook is a product of three matrices being W 1, Z, and W 2, that is, W = W 1 ZW 2, wherein both W 1 and Z are block diagonal matrices, W 1 = diag { X 1,..., X N B}, Z = diag { Z 1,..., Z N B}, each of W 1 and Z comprises at least one block matrix, that is, a block matrix quantity is N B ≥ 1, and a k-th column of each block matrix Z i in the matrix Z has the following structure: z i, k = α i, k 2 + β i, k 2 − 1 2 α i, k e i, k T β i, k e jθ i, k e i, k T T wherein [] T represents matrix transposition; e i,k represents an n i x1 selection vector, wherein in the vector, the k th element is 1 and all other elements are 0, and n i is a half of a column quantity of a block matrix X i; θ i,k is a phase shift, α i,k ≥ 0, and β i,k ≥ 0; the matrix W 2 is used for weighted combination of column vectors from matrix W 1 Z to form matix W; and sending a precoding matrix indicator PMI to the base station, wherein the PMI corresponds to the selected precoding matrix, and is used by the base station to obtain the selected precoding matrix W according to the PMI. receiving a reference signal sent by a base station; selecting, based on the reference signal, a precoding matrix from a codebook, wherein a precoding matrix W comprised in the codebook is a product of three matrices being W 1, Z, and W 2, that is, W = W 1 ZW 2, wherein both W 1 and Z are block diagonal matrices, W 1 = diag { X 1,..., X N B}, Z = diag { Z 1,..., Z N B}, each of W 1 and Z comprises at least one block matrix, that is, a block matrix quantity is N B ≥ 1, and a k-th column of each block matrix Z i in the matrix Z has the following structure: z i, k = α i, k 2 + β i, k 2 − 1 2 α i, k e i, k T β i, k e jθ i, k e i, k T T wherein [] T represents matrix transposition; e i,k represents an n i x1 selection vector, wherein in the vector, the k th element is 1 and all other elements are 0, and n i is a half of a column quantity of a block matrix X i; θ i,k is a phase shift, α i,k ≥ 0, and β i,k ≥ 0; the matrix W 2 is used for weighted combination of column vectors from matrix W 1 Z to form matix W; and sending a precoding matrix indicator PMI to the base station, wherein the PMI corresponds to the selected precoding matrix, and is used by the base station to obtain the selected precoding matrix W according to the PMI. wherein [] T represents matrix transposition; e i,k represents an n i x1 selection vector, wherein in the vector, the k th element is 1 and all other elements are 0, and n i is a half of a column quantity of a block matrix X i; θ i,k is a phase shift, α i,k ≥ 0, and β i,k ≥ 0; the matrix W 2 is used for weighted combination of column vectors from matrix W 1 Z to form matix W; and sending a precoding matrix indicator PMI to the base station, wherein the PMI corresponds to the selected precoding matrix, and is used by the base station to obtain the selected precoding matrix W according to the PMI.
Nozzle for vacuum cleaner, comprising a soleplate, with surfaces forming at least two transverse channels capable of receiving a suction flow, said channels are delimited by transversal juxtaposed scraping ribs, said ribs visibly extending in the transversal direction (y) perpendicular to the direction of movement of the nozzle and being able to scrape a surface covered with a carpet to facilitate the suction of waste found on it, characterised in that the nozzle comprises a front part in a triangular shape, with a tip pointing forward and two edges (10-12; 10-13) extending backward and in that it has at least one lateral inlet housed in one edge (10-12; 10-13) in the triangular part of the nozzle used for vacuuming dust.
A lathe loading clamp for supporting bars, characterized in that it comprises a main body provided with a shaft for coupling to a rotating assembly, which is substantially tapered at one of its ends, and with a cavity at the opposite end, said cavity accommodating a bush, made of material that is at least partially polymeric, which has an axial channel having a diameter that is suitable to be substantially complementary to the diameter of the bar to be supported, said axial channel, in the configuration for use, being able to accommodate a portion of the bar, characterised in that said cavity accommodates the bush with a predefined axial play.
A leak-resistant elastomeric barrier comprising: an elastomeric barrier comprising elastomeric polymer, having two sides, and coated on at least a portion of a first side with highly hydrophobic coating characterized in that a contact angle with water at 23± 2 °C is initially about 130°- or more, and that said contact angle does not decay by more than about 10% over 40 minutes, optionally wherein said contact angle does not decay by more than about 6% over 40 minutes, optionally, wherein the barrier is formed to provide a hand protective part of a barrier glove.
A cover glass for an electronic device comprising: 40 to 64 mol% SiO 2, 16 to 28 mol% Al 2 O 3, 1 to 14 mol% P 2 O 5, K 2 O, and 12 to 16 mol% R 2 O, wherein R 2 O is at least one alkali metal oxide selected from Na2O, K2O, Rb2O, Cs2O, Li 2 O and combination thereof, wherein 0.75 ≤ [(P 2 O 5 (mol%) + R 2 O(mol%))/ M 2 O 3 (mol%)] ≤ 1.3, where M 2 O 3 = Al 2 O 3 + B 2 O 3 40 to 64 mol% SiO 2, 16 to 28 mol% Al 2 O 3, 1 to 14 mol% P 2 O 5, K 2 O, and 12 to 16 mol% R 2 O, wherein R 2 O is at least one alkali metal oxide selected from Na2O, K2O, Rb2O, Cs2O, Li 2 O and combination thereof, wherein 0.75 ≤ [(P 2 O 5 (mol%) + R 2 O(mol%))/ M 2 O 3 (mol%)] ≤ 1.3, where M 2 O 3 = Al 2 O 3 + B 2 O 3
Rail vehicle coupling for the connection of two rail vehicles (2, 3) comprising a joint socket which is set up for releasable connection to one of the two rail vehicles (2, 3), and a joint yoke which is set up for releasable connection to the further one of the two rail vehicles (2, 3), and a horizontally oriented pin which is connected to the joint yoke and which penetrates a spherical bearing which is connected to the joint socket, it being possible for a maintenance frame to be fastened releasably to the rail vehicle coupling, which maintenance frame, in the fastened position, fixes the spherical bearing in a defined position and in the process transmits all the forces and torques between the rail vehicles (2, 3), the joint yoke comprising a fastening device for releasable fastening of the maintenance frame, characterized in that the joint socket comprises at least one locating receptacle for the lateral orientation of the maintenance frame.
An electrical connector, comprising: a conductive connector shell having a mating interface end and an opposite board engagement end; and a contact subassembly received in the connector shell, the contact subassembly comprising, first and second signal wafers (120, 122) and a ground wafer separate from the first and second signal wafers, the ground wafer being sandwiched between the first and second signal wafers, each of the first and second signal wafers including one or more signal contacts that has a tail end and an opposite mating end, and a dielectric wafer body formed around the one or more signal contacts such that the tail and mating ends of the one or more signal contacts are outside of the wafer body, the tail end of the one or more signal contacts extends through and beyond the board engagement end of the connector shell and the mating end of the one more signal contacts extends toward the mating interface end of the connector shell, and characterised by the ground wafer including one or more ground contacts and a dielectric wafer body formed around the one or more ground contacts such that a tail end of the one or more ground contacts is outside of the wafer body of the ground wafer and extends through and beyond the board engagement end of the connector shell. a conductive connector shell having a mating interface end and an opposite board engagement end; and a contact subassembly received in the connector shell, the contact subassembly comprising, first and second signal wafers (120, 122) and a ground wafer separate from the first and second signal wafers, the ground wafer being sandwiched between the first and second signal wafers, each of the first and second signal wafers including one or more signal contacts that has a tail end and an opposite mating end, and a dielectric wafer body formed around the one or more signal contacts such that the tail and mating ends of the one or more signal contacts are outside of the wafer body, the tail end of the one or more signal contacts extends through and beyond the board engagement end of the connector shell and the mating end of the one more signal contacts extends toward the mating interface end of the connector shell, and characterised by the ground wafer including one or more ground contacts and a dielectric wafer body formed around the one or more ground contacts such that a tail end of the one or more ground contacts is outside of the wafer body of the ground wafer and extends through and beyond the board engagement end of the connector shell.
A ventilation unit comprising an axial fan having an axis of rotation an electric motor for driving the axial fan and comprising a casing, a cap coupled to the casing to form a sealed enclosure and an electronic control system at least partly housed in the enclosure and comprising a plurality of electronic components (12, 13), the ventilation unit further comprising a shroud supporting the electric motor and having an outer mounting frame, an inner collar supporting the electric motor, a plurality of spokes (9, 10) for connecting the inner collar to the outer frame, a first spoke of the spokes (9, 10) comprising means (11, 15, 16) for housing a first electronic component of the electronic components (12, 13), the first electronic component being mounted in the housing means, the ventilation unit being characterized in that the housing means comprise a compartment located near the inner collar and housing the first electronic component in such a way that the main direction of extension of said electronic component is parallel to the main direction of extension of the compartment itself and said directions of extension are both parallel to the axis of rotation and transversal to the main direction of extension of the spoke.
A method comprising: receiving, by a wireless device from a base station, a first radio resource control, RRC, release message comprising a suspend configuration associated with a first bandwidth part, BWP; while the wireless device is in an RRC idle state or an RRC inactive state: transmitting, by the wireless device, based on the suspend configuration: first data associated with a small data transmission, SDT, procedure; and an RRC message requesting to resume an RRC connection; receiving, by the wireless device, a second RRC release message comprising a subsequent configuration associated with a second BWP; and transmitting via the second BWP, by the wireless device based on the subsequent configuration, second data associated with the SDT procedure. receiving, by a wireless device from a base station, a first radio resource control, RRC, release message comprising a suspend configuration associated with a first bandwidth part, BWP; while the wireless device is in an RRC idle state or an RRC inactive state: transmitting, by the wireless device, based on the suspend configuration: first data associated with a small data transmission, SDT, procedure; and an RRC message requesting to resume an RRC connection; receiving, by the wireless device, a second RRC release message comprising a subsequent configuration associated with a second BWP; and transmitting via the second BWP, by the wireless device based on the subsequent configuration, second data associated with the SDT procedure. transmitting, by the wireless device, based on the suspend configuration: first data associated with a small data transmission, SDT, procedure; and an RRC message requesting to resume an RRC connection; first data associated with a small data transmission, SDT, procedure; and an RRC message requesting to resume an RRC connection; receiving, by the wireless device, a second RRC release message comprising a subsequent configuration associated with a second BWP; and transmitting via the second BWP, by the wireless device based on the subsequent configuration, second data associated with the SDT procedure.
A humanized anti-tau antibody wherein the sequence of the heavy chain variable region comprises SEQ ID NO. 16, the sequence of the light chain variable region comprises SEQ ID NO. 26, and wherein the antibody is of the IgG1 or IgG4 isotype.
Locking device, in particular a lock cylinder, comprising a locking member, a rotary handle, in particular a rotary knob, and a rotatable element, which is connected to the rotary handle by means of a rotation ally-fixed connection, wherein the rotary handle and the rotatable element are freely rotatable together when in a non-operative state and can be coupled to the locking member when in the opening or closing state, characterized by a coupling that can be arranged between the rotary handle and the rotatable element, the coupling breaking the rotationally-fixed connection between the rotary handle and the rotatable element if a limiting speed of the rotary handle is exceeded.
An implantable medical device comprising an elongated composite tubular body including at least one tubular part made of a biocompatible and RF wave permeable dielectric material, and at least one tubular part made of a biocompatible metallic material (62, 64), wherein a brazing sealing is provided at an interface between the dielectric material tubular part and the metallic material tubular part (62, 64), characterized in that at the interface the dielectric material tubular part and the metallic material tubular part (62, 64) have respective planar end faces which are arranged end-to-end against each other without being fit into each other, and in that the brazing sealing is a planar brazing which seals to each other the two opposite respective planar end faces of the dielectric material tubular part and of the metallic material tubular part (62, 64). characterized in that at the interface the dielectric material tubular part and the metallic material tubular part (62, 64) have respective planar end faces which are arranged end-to-end against each other without being fit into each other, and in that the brazing sealing is a planar brazing which seals to each other the two opposite respective planar end faces of the dielectric material tubular part and of the metallic material tubular part (62, 64).
A composition composing a Ninjurin 1 expression or activation inhibitor for use in the prevention and treatment of inflammatory disease, wherein the Ninjurin 1 protein expression inhibitor is selected from the group consisting of an antisense nucleotide complementarily binding to Ninjurin 1 mRNA, short interfering RNA complementarily binding to Ninjurin 1 mRNA and short hairpin RNA complementarily binding to Ninjurin 1 mRNA, and wherein the Ninjurin 1 protein activation inhibitor is an antibody binding to Ninjurin 1 protein.
Disposable for extracorporeal blood treatment, preferably apheresis set, which comprises a blood admission line, a separator, a blood return line, a plasma line and two interfaces (35, 36) for the addition of citrate, wherein a first interface is arranged in the blood admission line and a second interface is arranged in the plasma line, wherein in the blood admission line the disposable has a blood pump downstream of the first interface and upstream of the separator, in the blood admission line the disposable has an access valve or an access clamp upstream of the first interface, and in the blood admission line the disposable has an access pressure sensor between the blood pump and the access valve or the access clamp.