mhurhangee/patent-ind-claim-en huggingface dataset:
A common underbody for vehicles; comprising, a lower sub-structure having a front extended frame , firewall , front floor and a modular rear floor to accommodate common aggregates to define the underbody of the vehicle; said common aggregates are selectively mounted on said lower sub-structure to manufacture vehicle variants with desired location of engine at front end or rear end of the vehicles; a cradle provided at rear end of said lower sub-structure ; a frame extension elements (10 and 10a) and a mid floor provided at rear end for manufacturing front engine variant; a modular front suspension mounting point for manufacturing vehicle variants, wherein said front extended frame is provided for mounting front engine in case of front engine front wheel drive vehicle, wherein said common aggregates assembled on said sub-structure to manufacture front engine front wheel drive variant are wheel arch outer (2.1 and 2.1a), suspension tower outer (2.2 and 2.2a), wheel arch inner (2.3 and 2.3a), rear floor assembly , front engine, said cradle for mounting CNG/LPG cylinder or battery at rear end, a fuel tank (la) mounted below the lower sub-structure etc., wherein said common aggregates assembled on said lower sub-structure to manufacture rear engine rear wheel drive variant are suspension tower inner (3.1 and 3.1a), wheel arch inner (3.1 and 3.1a), rear floor assembly , said cradle for mounting engine at rear end and a fuel tank (1 a) mounted below lower sub-structure, wherein for front engine front wheel drive vehicle or sedan variant said front suspension mounting point is at the front where as for rear engine mounting the front wheel mounting point is shifted inside to reduce the distance between the front and the rear wheel base region, wherein a change in a wheel base to obtain said vehicle variant is achieved by altering the location of front suspension mounting point while keeping the rear suspension mounting point same, wherein said front suspension tower location can be mounted inside or outside of the passenger compartment without modifying or changing the firewall.
A gear box assembly for motorized agricultural vehicle comprising: a staggered epicyclic gear device to provide a plurality of first transmission ratios ; a clutch device including an inlet clutch shaft coupled to said staggered epicyclic gear device and an exit clutch shaft ; a large high speed clutch gear and a small low speed clutch gear freely fitted on said exit clutch shaft in order to provide two second transmission ratios ; a clutch coupling device intended to couple either one of said low and high speed gears with said exit clutch shaft ; an output shaft including a small high speed exit gear being engaged with said large high speed clutch gear and a large low speed exit gear being engaged with said small low speed clutch gear ; characterized in that it further comprises an uncoupling device between said output shaft and said large low speed exit gear in order to release said output shaft from said small low speed clutch gear . a staggered epicyclic gear device to provide a plurality of first transmission ratios ; a clutch device including an inlet clutch shaft coupled to said staggered epicyclic gear device and an exit clutch shaft ; a large high speed clutch gear and a small low speed clutch gear freely fitted on said exit clutch shaft in order to provide two second transmission ratios ; a clutch coupling device intended to couple either one of said low and high speed gears with said exit clutch shaft ; an output shaft including a small high speed exit gear being engaged with said large high speed clutch gear and a large low speed exit gear being engaged with said small low speed clutch gear ; characterized in that it further comprises an uncoupling device between said output shaft and said large low speed exit gear in order to release said output shaft from said small low speed clutch gear .
A terminal apparatus in a wireless communication system including multiple transmission/reception points, TP/RPs , comprising: a receiver is configured to receive, through higher-layer signalling, information on a correspondence between a TP/RP to which the terminal apparatus is attached and a subframe; circuitry configured to determine the subframe in which to receive downlink control information based on the received information on the correspondence between the TP/RP to which the terminal apparatus is attached and the subframe; the receiver configured to receive the downlink control information including a plurality of uplink/downlink, UL/DL, Time Division Duplexing, TDD, configurations in a common search space of the subframe, wherein the common search space is a search space that is commonly used for transmitting the downlink control information to a plurality of user equipments, UEs, and each of the plurality of UL/DL TDD configurations corresponding to each of TP/RPs and the circuitry configured to identify, based on the downlink control information in the subframe, a UL/DL TDD configuration corresponding to the TP/RP to which the terminal apparatus is attached. a receiver is configured to receive, through higher-layer signalling, information on a correspondence between a TP/RP to which the terminal apparatus is attached and a subframe; circuitry configured to determine the subframe in which to receive downlink control information based on the received information on the correspondence between the TP/RP to which the terminal apparatus is attached and the subframe; the receiver configured to receive the downlink control information including a plurality of uplink/downlink, UL/DL, Time Division Duplexing, TDD, configurations in a common search space of the subframe, wherein the common search space is a search space that is commonly used for transmitting the downlink control information to a plurality of user equipments, UEs, and each of the plurality of UL/DL TDD configurations corresponding to each of TP/RPs and the circuitry configured to identify, based on the downlink control information in the subframe, a UL/DL TDD configuration corresponding to the TP/RP to which the terminal apparatus is attached.
A translucent polycrystalline material comprising: a group of single crystal grains of a plurality of types, wherein an orientation direction of the group of single crystal grains varies continuously in the material, and optical properties vary continuously in the material, characterized in that the composition of the single crystal grains varies continuously in the material.
A method for directly bonding a first substrate having a first bonding face and a second substrate having a second bonding face, comprising the steps of: - removing a surface oxide layer from each of the first and second bonding faces; - hydrogen passivating each of the first and second bonding faces; and being characterized in that - in a vacuum, performing electron impact hydrogen desorption on the each of the first and second bonding faces followed by placing the first and second bonding faces in intimate contact with one another. - removing a surface oxide layer from each of the first and second bonding faces; - hydrogen passivating each of the first and second bonding faces; and being - in a vacuum, performing electron impact hydrogen desorption on the each of the first and second bonding faces followed by placing the first and second bonding faces in intimate contact with one another.
A method implemented in a User Equipment, UE , for a cellular communications system, comprising: receiving , from a base station, a Random Access Response, RAR, message comprising an indication of a time-domain resource allocation for a Msg3 transmission on a Physical Uplink Shared Channel, PUSCH; determining a slot offset value, K2, for the Msg3 transmission based on the indication of the time-domain resource allocation and a PUSCH table; adding an additional slot offset value for the Msg3 transmission to the slot offset value, K2, to provide an increased slot offset value for the Msg3 transmission, wherein the additional slot offset value varies in relation to an additional processing time needed for RAR message decoding compared to Physical Downlink Control Channel, PDCCH, decoding and rounded to a next higher or next lower number of slots in an uplink numerology of the PUSCH, wherein the additional processing time is a function of whether the RAR message is transmitted in a short Physical Downlink Shared Channel, PDSCH, with mapping Type A; and transmitting , to the base station, the Msg3 transmission in accordance with the increased slot offset value. receiving , from a base station, a Random Access Response, RAR, message comprising an indication of a time-domain resource allocation for a Msg3 transmission on a Physical Uplink Shared Channel, PUSCH; determining a slot offset value, K2, for the Msg3 transmission based on the indication of the time-domain resource allocation and a PUSCH table; adding an additional slot offset value for the Msg3 transmission to the slot offset value, K2, to provide an increased slot offset value for the Msg3 transmission, wherein the additional slot offset value varies in relation to an additional processing time needed for RAR message decoding compared to Physical Downlink Control Channel, PDCCH, decoding and rounded to a next higher or next lower number of slots in an uplink numerology of the PUSCH, wherein the additional processing time is a function of whether the RAR message is transmitted in a short Physical Downlink Shared Channel, PDSCH, with mapping Type A; and transmitting , to the base station, the Msg3 transmission in accordance with the increased slot offset value.
A multilayered transmission line plate (1A; 2A) comprising: one pair of ground layers (11, 21; 22, 12), a differential wiring layer (101; 102) disposed between one ground layer (11; 22) and the other ground layer (21; 12) of the one pair of ground layers, a first insulating portion (1-I, 31; 2-II, 42) disposed between the differential wiring layer (101; 102) and the one ground layer (11; 22), and a second insulating portion (1-II, 32; 2-I, 41) disposed between the differential wiring layer (101; 102) and the other ground layer (21; 12), wherein the first insulating portion (31; 42) has a resin layer, the first insulating portion (31; 42) or the second insulating portion (32; 41) has a fiber base material layer containing a fiber base material, and a thickness of the first insulating portion (31; 42) is equal to or thinner than a thickness of the second insulating portion (32; 41), the fiber base material layer is a layer including a fiber base material and a resin composition, characterized in that a difference in dielectric constant between the fiber base material and the resin composition at 10 GHz is 0.5 or less. one pair of ground layers (11, 21; 22, 12), a differential wiring layer (101; 102) disposed between one ground layer (11; 22) and the other ground layer (21; 12) of the one pair of ground layers, a first insulating portion (1-I, 31; 2-II, 42) disposed between the differential wiring layer (101; 102) and the one ground layer (11; 22), and a second insulating portion (1-II, 32; 2-I, 41) disposed between the differential wiring layer (101; 102) and the other ground layer (21; 12), wherein the first insulating portion (31; 42) has a resin layer, the first insulating portion (31; 42) or the second insulating portion (32; 41) has a fiber base material layer containing a fiber base material, and a thickness of the first insulating portion (31; 42) is equal to or thinner than a thickness of the second insulating portion (32; 41), the fiber base material layer is a layer including a fiber base material and a resin composition, characterized in that a difference in dielectric constant between the fiber base material and the resin composition at 10 GHz is 0.5 or less.
An in vitro method of providing a mixture of fibroblast growth factor-2 (FGF-2) isoforms to a cell culture, the method comprising contacting the cell culture with a preparation from mesenchymal cells, wherein the preparation is selected from one or more of a cell lysate and a soluble cell-free extract, and wherein the mesenchymal cells are (a) fibroblasts, or (b) descendants of mesenchymal stem cells (MSCs) that have been transiently transfected with a vector comprising sequences encoding a Notch intracellular domain (NICD). contacting the cell culture with a preparation from mesenchymal cells, wherein the preparation is selected from one or more of a cell lysate and a soluble cell-free extract, and wherein the mesenchymal cells are (a) fibroblasts, or (b) descendants of mesenchymal stem cells (MSCs) that have been transiently transfected with a vector comprising sequences encoding a Notch intracellular domain (NICD). (a) fibroblasts, or (b) descendants of mesenchymal stem cells (MSCs) that have been transiently transfected with a vector comprising sequences encoding a Notch intracellular domain (NICD).
Method for reducing the evaporating rate of chlorine from a Refuse Derived Fuel (RDF) used in a kiln for clinker production, without the need of a chlorine by-pass, and fixing the chlorine into the clinker by fixing the added sulfur content into the clinker, said method comprising adding sulfur in the kiln by means of a carbonaceous fuel used and/or sulfur additions to the raw meal, wherein the RDF has a chlorine content above 1.5% in weight, and wherein said carbonaceous fuel has 4.5% to 8 % in weight of sulfur and/or said sulfur additions to the raw meal are added as a composition of a sulfated material having a minimum 30% in weight of sulfur expressed as SO 3 in its composition. wherein the RDF has a chlorine content above 1.5% in weight, and wherein said carbonaceous fuel has 4.5% to 8 % in weight of sulfur and/or said sulfur additions to the raw meal are added as a composition of a sulfated material having a minimum 30% in weight of sulfur expressed as SO 3 in its composition.
A radiation finder tool comprising: a body having an outer surface, a distal end , a proximal end, and a lengthwise axis extending between the proximal end and the distal end; and a plurality of radiation detectors mounted in the body, the plurality of radiation detectors oriented serially along the lengthwise axis, wherein each radiation detector of the plurality of radiation detectors has a different field of view centered about the lengthwise axis; and characterized by further comprising: a plurality of visual radiation detection indicators mounted on the outer surface of the body , each of the plurality of visual radiation detection indicators being coupled to a different one of the plurality of radiation detectors . a body having an outer surface, a distal end , a proximal end, and a lengthwise axis extending between the proximal end and the distal end; and a plurality of radiation detectors mounted in the body, the plurality of radiation detectors oriented serially along the lengthwise axis, wherein each radiation detector of the plurality of radiation detectors has a different field of view centered about the lengthwise axis; and characterized by further comprising: a plurality of visual radiation detection indicators mounted on the outer surface of the body , each of the plurality of visual radiation detection indicators being coupled to a different one of the plurality of radiation detectors .
A method of manufacturing an electrode lead, comprising: arranging a plurality of lead pieces between a first lead film and a second lead film in a length direction of a lead film including the first lead film and the second lead film ; bending the lead film to form a lead piece laminate in which the plurality of lead pieces are stacked in a height direction with respect to a plane of the lead film and in which the first lead film and the second lead film are alternately positioned between lead pieces of the plurality of lead pieces neighboring to each other; and sealing the bent lead film overlapping the plurality of lead pieces . arranging a plurality of lead pieces between a first lead film and a second lead film in a length direction of a lead film including the first lead film and the second lead film ; bending the lead film to form a lead piece laminate in which the plurality of lead pieces are stacked in a height direction with respect to a plane of the lead film and in which the first lead film and the second lead film are alternately positioned between lead pieces of the plurality of lead pieces neighboring to each other; and sealing the bent lead film overlapping the plurality of lead pieces .
Plug for connecting capillaries comprising - at least one capillary tube comprising at least one first inner diameter and an open end section ; - at least one generally plug-shaped sealing comprising at least one second inner diameter ; - the sealing having a first end section of generally convex shape adapted to seal the end section of the capillary tube when connected; - at least one pressure piece adapted to exert at least axial pressure and/or force to at least a part of the sealing towards a second end section of the sealing oriented opposite to the first end section of the sealing ; - wherein the pressure piece hosts at least the first end section of the sealing in an aperture in abutment with the end section of the capillary tube so that the first inner diameter of the capillary tube and the second inner diameter of the sealing are aligned. - at least one capillary tube comprising at least one first inner diameter and an open end section ; - at least one generally plug-shaped sealing comprising at least one second inner diameter ; - the sealing having a first end section of generally convex shape adapted to seal the end section of the capillary tube when connected; - at least one pressure piece adapted to exert at least axial pressure and/or force to at least a part of the sealing towards a second end section of the sealing oriented opposite to the first end section of the sealing ; - wherein the pressure piece hosts at least the first end section of the sealing in an aperture in abutment with the end section of the capillary tube so that the first inner diameter of the capillary tube and the second inner diameter of the sealing are aligned.
A formulation for use in reducing intraocular pressure by stabilizing vasculature associated with the trabecular meshwork in a subject in need thereof, the formulation comprising a therapeutically-effective amount of a Tie-2 activator, wherein the formulation is formulated for topical administration, wherein the Tie-2 activator is a compound of the formula: or a pharmaceutically-acceptable salt or zwitterion thereof.
A storage battery system , comprising: a cell module including storage battery cells; a battery management unit configured to maintain a contactor having a normally open contact to be in a closed state, while being supplied with power, the normally open contact inserted in a current supply path through which stored power is supplied from the cell module to an outside; and a power supply control circuit configured to DC to DC convert the power of the cell module for supply to the battery management unit , wherein the battery management unit is configured to output a status signal to the power supply control circuit , the status signal including an alternating signal having a given cycle in which a potential level transitions between an H-level and an L-level, and being to be output at the L-level in a stationary manner when the cell module is in an overdischarge state, and the power supply control circuit is configured to determine that the status signal is not output, when a non-transition period of the status signal exceeds a given period, and interrupt the power supply to the battery management unit from the cell module . a cell module including storage battery cells; a battery management unit configured to maintain a contactor having a normally open contact to be in a closed state, while being supplied with power, the normally open contact inserted in a current supply path through which stored power is supplied from the cell module to an outside; and a power supply control circuit configured to DC to DC convert the power of the cell module for supply to the battery management unit , wherein the battery management unit is configured to output a status signal to the power supply control circuit , the status signal including an alternating signal having a given cycle in which a potential level transitions between an H-level and an L-level, and being to be output at the L-level in a stationary manner when the cell module is in an overdischarge state, and the power supply control circuit is configured to determine that the status signal is not output, when a non-transition period of the status signal exceeds a given period, and interrupt the power supply to the battery management unit from the cell module .
An electrolyte composition comprising: a) a fluorinated solvent, wherein the fluorinated solvent is a fluorinated acyclic carboxylic acid ester represented by the formula: R 1 -COO-R 2 , wherein R 1 is H, an alkyl group, or a fluoroalkyl group, R 2 is an alkyl group or a fluoroalkyl group, either or both of R 1 and R 2 comprises fluorine, and R 1 and R 2 , taken as a pair, comprises at least two carbon atoms but not more than seven carbon atoms; b) an oxalate salt represented by the Formula: LiPF( 6-2q )(Ox) q wherein Ox is an oxalate moiety, and q is 1, 2 or 3; and c) optionally, at least one electrolyte salt. a) a fluorinated solvent, wherein the fluorinated solvent is a fluorinated acyclic carboxylic acid ester represented by the formula: R 1 -COO-R 2 , wherein R 1 is H, an alkyl group, or a fluoroalkyl group, R 2 is an alkyl group or a fluoroalkyl group, either or both of R 1 and R 2 comprises fluorine, and R 1 and R 2 , taken as a pair, comprises at least two carbon atoms but not more than seven carbon atoms; b) an oxalate salt represented by the Formula: LiPF( 6-2q )(Ox) q wherein Ox is an oxalate moiety, and q is 1, 2 or 3; and c) optionally, at least one electrolyte salt.
A process for the purification of a protein of interest from a mixture comprising the steps of a) in an operational chromatography cycle loading a mixture containing the protein of interest from a first container to a chromatography matrix operated such that the protein binds to the chromatography matrix until 40 to 100% of the static binding capacity of the chromatography matrix is reached; b) collecting flow-through containing unbound protein of interest in a second container, and c) in a further operational chromatography cycle re-loading the flow-through from the second container to the same chromatography matrix operated such that the protein of interest binds to the chromatography matrix until 40 to 100% of the static binding capacity of the chromatography matrix is reached. a) in an operational chromatography cycle loading a mixture containing the protein of interest from a first container to a chromatography matrix operated such that the protein binds to the chromatography matrix until 40 to 100% of the static binding capacity of the chromatography matrix is reached; b) collecting flow-through containing unbound protein of interest in a second container, and c) in a further operational chromatography cycle re-loading the flow-through from the second container to the same chromatography matrix operated such that the protein of interest binds to the chromatography matrix until 40 to 100% of the static binding capacity of the chromatography matrix is reached.