mhurhangee/patent-ind-claim-en huggingface dataset:
A rechargeable battery comprising: an electrode assembly comprising a first electrode , a second electrode , and a separator between the first electrode and the second electrode ; a case accommodating the electrode assembly ; a cap plate coupled to the case ; a first current collector coupled to the first electrode of the electrode assembly ; and a first terminal assembly comprising a first terminal coupled to the first current collector and having a first fixed groove (31a1) and a second terminal having a second fixed protrusion (32b1) coupled to the first fixed groove (31a1), wherein the first terminal comprises a first material, and the second terminal comprises a second material different from the first material, wherein the first terminal assembly further comprises a first terminal plate on the cap plate , the first current collector comprises the first material, and the first terminal plate comprises the second material, wherein the second terminal further comprises a second terminal head and a second terminal column extending from the second terminal head and having the second fixed protrusion , and the first terminal plate comprises a second terminal hole through which the second terminal column is passed and inserted into the first fixed groove of the first terminal , wherein the first terminal plate further comprises a second terminal groove defining an area around the second terminal hole , and the second terminal head of the second terminal is fixed to the second terminal groove . an electrode assembly comprising a first electrode , a second electrode , and a separator between the first electrode and the second electrode ; a case accommodating the electrode assembly ; a cap plate coupled to the case ; a first current collector coupled to the first electrode of the electrode assembly ; and a first terminal assembly comprising a first terminal coupled to the first current collector and having a first fixed groove (31a1) and a second terminal having a second fixed protrusion (32b1) coupled to the first fixed groove (31a1), wherein the first terminal comprises a first material, and the second terminal comprises a second material different from the first material, wherein the first terminal assembly further comprises a first terminal plate on the cap plate , the first current collector comprises the first material, and the first terminal plate comprises the second material, wherein the second terminal further comprises a second terminal head and a second terminal column extending from the second terminal head and having the second fixed protrusion , and the first terminal plate comprises a second terminal hole through which the second terminal column is passed and inserted into the first fixed groove of the first terminal , wherein the first terminal plate further comprises a second terminal groove defining an area around the second terminal hole , and the second terminal head of the second terminal is fixed to the second terminal groove .
A method of mounting a tire on a vehicle wheel using a robotic tire mounter having a selectively moveable gripper unit , characterized in that the method comprises: moving the gripper unit downward toward an opening of the tire while in a releasing configuration until gripping elements of the gripper unit are disposed at least partially within an opening of the tire ; moving the gripping elements away from one another and into engagement with one of a first or second bead of the tire ; continue moving the gripping elements away from one another a predetermined distance to a gripping position so as to slightly deform the opening of the tire ; actuating the robotic tire mounter so as to lift the gripping unit, and thereby lifting the tire , and moving the tire to a wheel ; actuating the robotic tire mounter so as to lower the tire over the wheel and manipulate the tire over a rim of the wheel such that a rim of the wheel is disposed between the first and second beads of the tire ; and moving the gripping elements from the gripping position to the releasing configuration. moving the gripper unit downward toward an opening of the tire while in a releasing configuration until gripping elements of the gripper unit are disposed at least partially within an opening of the tire ; moving the gripping elements away from one another and into engagement with one of a first or second bead of the tire ; continue moving the gripping elements away from one another a predetermined distance to a gripping position so as to slightly deform the opening of the tire ; actuating the robotic tire mounter so as to lift the gripping unit, and thereby lifting the tire , and moving the tire to a wheel ; actuating the robotic tire mounter so as to lower the tire over the wheel and manipulate the tire over a rim of the wheel such that a rim of the wheel is disposed between the first and second beads of the tire ; and moving the gripping elements from the gripping position to the releasing configuration.
A method for analyzing an activation state of a signaling pathway in a cell or tissue separated from a subject, the method comprising the steps of: (a) immobilizing a first protein in the signaling pathway on a substrate by treating the substrate with an extract of cells or tissues separated from the subject including the first protein; (b) inducing an interaction between of first protein and a second fluorescence-labeled protein by supplying to the substrate the second fluorescence-labeled protein that interacts with the first protein, wherein the second protein is another protein in the signaling pathway; and (c) analyzing the interaction between the first protein and the second protein based on a fluorescent signal of a fluorescent label of the second protein, and analyzing an activation state of the signaling pathway in real time using a total internal reflection microscope , wherein the number of the second fluorescence-labeled proteins that are bound to the first protein on the substrate in a predetermined frame determined by using a single molecule fluorescent observation algorithm is observed, and wherein one image is generated by averaging a predetermined number of frames and the number of single-molecule signals is measured by analyzing the image . (a) immobilizing a first protein in the signaling pathway on a substrate by treating the substrate with an extract of cells or tissues separated from the subject including the first protein; (b) inducing an interaction between of first protein and a second fluorescence-labeled protein by supplying to the substrate the second fluorescence-labeled protein that interacts with the first protein, wherein the second protein is another protein in the signaling pathway; and (c) analyzing the interaction between the first protein and the second protein based on a fluorescent signal of a fluorescent label of the second protein, and analyzing an activation state of the signaling pathway in real time using a total internal reflection microscope , wherein the number of the second fluorescence-labeled proteins that are bound to the first protein on the substrate in a predetermined frame determined by using a single molecule fluorescent observation algorithm is observed, and
A fluorophore of formula (I): wherein R 1 , R 2 , R 3 , and R 4 are independently selected from the group consisting of hydrogen, deuterium, C 1 -C 12 alkyl, and aryl; R 5 is selected from the group consisting of hydrogen, deuterium, C 1 -C 12 alkyl, C 2 -C 12 alkenyl, C 2 -C 12 alkynyl, aryl, heteroaryl, and halosubstituted alkyl; R 6 is selected from the group consisting of hydrogen, C 1 -C 12 alkyl, C 2 -C 12 alkenyl, aryl, heteroaryl, halo, halosubstituted alkyl, cyano, nitro, alkoxy, carboxyl, and sulfonyl; X - and Y - are independently selected anionic counterions, and are the same or different; m and n are independently 1 or 2, and are the same or different; and o is 0, 1, 2, 3, 4, 5, or 6. wherein R 1 , R 2 , R 3 , and R 4 are independently selected from the group consisting of hydrogen, deuterium, C 1 -C 12 alkyl, and aryl; R 5 is selected from the group consisting of hydrogen, deuterium, C 1 -C 12 alkyl, C 2 -C 12 alkenyl, C 2 -C 12 alkynyl, aryl, heteroaryl, and halosubstituted alkyl; R 6 is selected from the group consisting of hydrogen, C 1 -C 12 alkyl, C 2 -C 12 alkenyl, aryl, heteroaryl, halo, halosubstituted alkyl, cyano, nitro, alkoxy, carboxyl, and sulfonyl; X - and Y - are independently selected anionic counterions, and are the same or different; m and n are independently 1 or 2, and are the same or different; and o is 0, 1, 2, 3, 4, 5, or 6.
Method for managing a downlink transmission in a Multi User-Multiple Input Multiple Output MU-MIMO system, the MU-MIMO system comprising a base station , and a set of remote radio units (2a-2c) connected to the base station, the method comprising steps of: /1/ sorting remote radio units antennas Tx 1 , ... , Tx M t sensed by the user equipment (4a-4d), with the remote radio units antennas Tx 1 , ... , Tx M t sorted in ascending order of l ij , where l ij refers to an estimation of large scale channel gain from user equipment i to antenna j and M t is a total number of remote radio units antennas, said sorting comprising: - setting a first set D i as an empty set and a second set U i as set {1, ..., M t }; - for each Tx k removing k from U i and adding k to D i if M i M i − 1 − 1 2 ≥ l ik 2 ∑ j ∈ U i l ij 2 − l ik 2 , where M i refers to the size of the set U i , and /2/ computing the large scale fading data v i,j associated with the user equipment i, with v i , j = { 1 , j ∈ D i 0 , j ∈ U i /3/ calculating a UE-specific channel vector as: h ̃ i = h ^ i ⋅ diag V i ⋅ M t M i where ĥ i is a code vector indexed by a user equipment feedback in a Discrete Fourier Transformation codebook and Vi is a vector defined as V i = ( v i ,1 , v i,2 ,···, v i,M t ), and /4/ scheduling a downlink transmission by using the UE-specific channel vector. /1/ sorting remote radio units antennas Tx 1 , ... , Tx M t sensed by the user equipment (4a-4d), with the remote radio units antennas Tx 1 , ... , Tx M t sorted in ascending order of l ij , where l ij refers to an estimation of large scale channel gain from user equipment i to antenna j and M t is a total number of remote radio units antennas, said sorting comprising: - setting a first set D i as an empty set and a second set U i as set {1, ..., M t }; - for each Tx k removing k from U i and adding k to D i if M i M i − 1 − 1 2 ≥ l ik 2 ∑ j ∈ U i l ij 2 − l ik 2 , where M i refers to the size of the set U i , and - setting a first set D i as an empty set and a second set U i as set {1, ..., M t }; - for each Tx k removing k from U i and adding k to D i if M i M i − 1 − 1 2 ≥ l ik 2 ∑ j ∈ U i l ij 2 − l ik 2 , where M i refers to the size of the set U i , and /2/ computing the large scale fading data v i,j associated with the user equipment i, with v i , j = { 1 , j ∈ D i 0 , j ∈ U i /3/ calculating a UE-specific channel vector as: h ̃ i = h ^ i ⋅ diag V i ⋅ M t M i
A process for the production of a composite textile article which includes at least a biopolymer layer, comprising the following steps: a. Providing at least one textile article; b. Providing at least part of said textile article with at least a biopolymer layer; c. Providing at least part of said biopolymer layer with at least a textile softening agent, to provide a composite textile article; wherein said step b. is carried out by contacting at least part of said textile article with a culture comprising biopolymer-producing microorganisms, and culturing said biopolymer-producing microorganisms, to provide at least part of said textile article with a biopolymer layer, and wherein said textile softening agent is a silicone softening agent. a. Providing at least one textile article; b. Providing at least part of said textile article with at least a biopolymer layer; c. Providing at least part of said biopolymer layer with at least a textile softening agent, to provide a composite textile article;
A watertight electrical connector for connecting to flat-wire conductors of a flexible circuit , the watertight electrical connector comprising: a first portion (101-1) that supports connector terminals ; a second portion (101-2) that houses the connector terminals within a cavity , the second portion (101-2) having a contact surface configured to mate with one or more of the flat-wire conductors within a connection area on a surface of the flexible circuit ; and a seal surrounding an opening to the cavity to form a watertight connection between the connector terminals housed within the cavity and the one or more of the flat-wire conductors within the connection area on the surface of the flexible circuit the watertight electrical connector being configured to form the watertight connection when a retainer is fitted over the flexible circuit and attached to the watertight electrical connector to compress the seal and form the watertight connection between the surface of the flexible circuit and the contact surface of the watertight electrical connector , wherein the connector terminals protrude slightly through an opening of the cavity that passes through the contact surface of the watertight electrical connector , characterized in that the contact surface comprises outer protrusions that receive the retainer and are configured to contain edges of the flexible circuit to ensure alignment between the connector terminals housed within the cavity and the one or more of the flat-wire conductors within the connection area on the surface of the flexible circuit . a first portion (101-1) that supports connector terminals ; a second portion (101-2) that houses the connector terminals within a cavity , the second portion (101-2) having a contact surface configured to mate with one or more of the flat-wire conductors within a connection area on a surface of the flexible circuit ; and a seal surrounding an opening to the cavity to form a watertight connection between the connector terminals housed within the cavity and the one or more of the flat-wire conductors within the connection area on the surface of the flexible circuit the watertight electrical connector being configured to form the watertight connection when a retainer is fitted over the flexible circuit and attached to the watertight electrical connector to compress the seal and form the watertight connection between the surface of the flexible circuit and the contact surface of the watertight electrical connector , wherein the connector terminals protrude slightly through an opening of the cavity that passes through the contact surface of the watertight electrical connector ,
A sliding component comprising: a pair of sliding parts of annular shapes, the sliding parts having respective sliding faces (S) sliding relatively to each other, at least one of the sliding faces (S) being provided with a positive pressure generation mechanism with a positive pressure generation groove and a negative pressure generation mechanism with a negative pressure generation groove , the positive pressure generation groove and the negative pressure generation groove being separated from an opposite-to-sealed-fluid side by a land (R), and a deep groove deeper than a groove depth of the positive pressure generation groove and the negative pressure generation groove being located at least on the opposite-to-sealed-fluid side of the positive pressure generation groove and the negative pressure generation groove , and the deep groove being provided in such a manner as to communicate at least with a sealed fluid side, wherein the deep groove includes a radius-direction groove and circumferential grooves , the positive pressure generation groove or the negative pressure generation groove is radially spaced in a plurality of rows, and the circumferential grooves are arranged on the opposite-to-sealed-fluid side of the positive pressure generation groove and the negative pressure generation groove , characterized in that the circumferential grooves are also arranged in a radial direction space between the positive pressure generation groove and the negative pressure generation groove . a pair of sliding parts of annular shapes, the sliding parts having respective sliding faces (S) sliding relatively to each other, at least one of the sliding faces (S) being provided with a positive pressure generation mechanism with a positive pressure generation groove and a negative pressure generation mechanism with a negative pressure generation groove , the positive pressure generation groove and the negative pressure generation groove being separated from an opposite-to-sealed-fluid side by a land (R), and a deep groove deeper than a groove depth of the positive pressure generation groove and the negative pressure generation groove being located at least on the opposite-to-sealed-fluid side of the positive pressure generation groove and the negative pressure generation groove , and the deep groove being provided in such a manner as to communicate at least with a sealed fluid side, wherein the deep groove includes a radius-direction groove and circumferential grooves , the positive pressure generation groove or the negative pressure generation groove is radially spaced in a plurality of rows, and the circumferential grooves are arranged on the opposite-to-sealed-fluid side of the positive pressure generation groove and the negative pressure generation groove , characterized in that the circumferential grooves are also arranged in a radial direction space between the positive pressure generation groove and the negative pressure generation groove .
Wiper arm adapter unit which is provided for coupling, in particular releasably coupling, to a wiper arm , having a wind deflector surface , which is designed to deflect inflowing air and to press a wiper blade against a vehicle window , and having a wiper blade adapter unit receptacle , which is provided for receiving a wiper blade adapter unit pivotably about a bearing axis , wherein the wiper blade adapter unit is provided to receive the wiper blade , characterized in that the wind deflector surface encloses a main angle of between 25° and 65°, preferably between 40° and 50°, with the bearing axis , wherein the wiper arm adapter unit has an air-guiding surface , which is arranged on the wind-averted edge of the wind deflector surface and encloses an air-guiding angle of between -25° and -65°, preferably between -40° and -50°, with the bearing axis , and the air-guiding surface has a height offset of between 1 mm and 6 mm, preferably between 2 mm and 5 mm, particularly preferably between 3 mm and 4 mm, with respect to the wind deflector surface , wherein the height offset runs along a surface normal of a wiper arm adapter base area .
A method of forming a rare earth manganate having a resultant impedance with dominant inductive reactance by reconfiguring a vortex density, wherein a unique voltage-time profile is applied between a first and a second electrically conductive contact of the rare earth manganate attached to the rare earth manganate, so that the rare-earth manganate passes through an ordering temperature in a region of an electric field forming between the two electrically conductive contacts during a cooling process during and after application of the unique voltage-time profile and the vortex density is thus influenced and adjusted locally in the region of the electric field forming between the two electrically conductive contacts, characterized in that the voltage-time profile is a voltage pulse or a voltage ramp, wherein a temperature gradient greater than 1 K/min, preferably greater than 10 K/min, even more preferably greater than 100 K/min, is generated for reconfiguring the vortex density, wherein the temperature gradient is influenced and adjusted by means of the voltage-time profile and by insulation structures in which the rare-earth manganate is embedded.
A composition comprising an effective amount of a chimeric molecule comprising a supercharged green fluorescent protein (s-GFP) and aurein, complexed or linked to one or more Myc proteins or peptides, Myc modulators, Notch proteins or peptides, Notch Intracellular domain (NICD) proteins or peptides, Atonal Homolog 1 (Atoh1), Atoh1 modulators, transcription factors, transcription modulators, or combinations thereof for use in the treatment of deafness or disorders thereof, associated with a genetic mutation.
Method for producing a covered steering wheel for a vehicle, having the steps of: - providing a steering wheel skeleton that has been encapsulated by injection moulding with a matrix material , - coating a covering material on its non-visible side with an activatable material , wherein the covering material is leather, imitation leather or a textile material, - applying the coated covering material to the steering wheel skeleton that has been encapsulated by injection moulding, with the result that the non-visible side of said covering material faces the steering wheel skeleton that has been encapsulated by injection moulding, - connecting longitudinal edges of the covering material to one another, and - activating the activatable material to create a material bond between the covering material and the matrix material , characterized in that the activatable material is a foamable material that foams upon activation. - providing a steering wheel skeleton that has been encapsulated by injection moulding with a matrix material , - coating a covering material on its non-visible side with an activatable material , wherein the covering material is leather, imitation leather or a textile material, - applying the coated covering material to the steering wheel skeleton that has been encapsulated by injection moulding, with the result that the non-visible side of said covering material faces the steering wheel skeleton that has been encapsulated by injection moulding, - connecting longitudinal edges of the covering material to one another, and - activating the activatable material to create a material bond between the covering material and the matrix material ,