mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical tool , comprising: a handle ; a flexible insertion tube , having a proximal end coupled to the handle and a distal end configured to be inserted into an orifice of a body of a living subject; an inner tube , which is bendable without breaking over a range of angles from 0 to 120 degrees in response to a bending force, and which is configured, after being bent into a bent shape, to retain the bent shape after the bending force has been removed, the inner tube being located within the insertion tube and having a distal termination in proximity to the distal end of the insertion tube; a flexible tubing , which defines a lumen and which is contained within the inner tube; a working tip , which has an opening, and which is configured to contact tissue in the body and to mate with the distal termination of the inner tube; and a rigid outer tube , which grips respective outer surfaces of the working tip and of the inner tube so as to maintain the opening of the working tip in communication with the flexible tubing lumen. a handle ; a flexible insertion tube , having a proximal end coupled to the handle and a distal end configured to be inserted into an orifice of a body of a living subject; an inner tube , which is bendable without breaking over a range of angles from 0 to 120 degrees in response to a bending force, and which is configured, after being bent into a bent shape, to retain the bent shape after the bending force has been removed, the inner tube being located within the insertion tube and having a distal termination in proximity to the distal end of the insertion tube; a flexible tubing , which defines a lumen and which is contained within the inner tube; a working tip , which has an opening, and which is configured to contact tissue in the body and to mate with the distal termination of the inner tube; and a rigid outer tube , which grips respective outer surfaces of the working tip and of the inner tube so as to maintain the opening of the working tip in communication with the flexible tubing lumen.
A method comprising: receiving device data for a computing device; determining, based on the device data, an accent library for use in speech recognition; receiving speech at the computing device; recognizing the speech based on the accent library; receiving other speech at the computing device; dynamically determining, based on the other speech, that the other speech is not associated with the accent library; determining another accent library or no accent library for the other speech; and recognizing the other speech with the other or no accent library. receiving device data for a computing device; determining, based on the device data, an accent library for use in speech recognition; receiving speech at the computing device; recognizing the speech based on the accent library; receiving other speech at the computing device; dynamically determining, based on the other speech, that the other speech is not associated with the accent library; determining another accent library or no accent library for the other speech; and recognizing the other speech with the other or no accent library.
A methanesulfonate polymorph of a 5-type phosphodiesterase inhibitor, the structure of the 5-type phosphodiesterase inhibitor being as shown in formula A: wherein the methanesulfonate polymorph of the 5-type phosphodiesterase inhibitor includes the following diffraction peaks measured at 2 θ reflection angles in an X-ray powder diffraction pattern: 7.1750°±0.2°, 7.6299°±0.2°, 8.8588°±0.2°, 13.2310°±0.2°, 14.3754°±0.2°, 14.8440±0.2°, 15.2941°±0.2°, 17.1838°±0.2°, 20.0314°±0.2°, 20.8507°±0.2°, 21.2839°±0.2°, 21.7890°±0.2°, 22.2594°±0.2°, 23.0373±0.2°, 25.1243°±0.2°, 25.4244°±0.2°, 26.1530°±0.2°, 28.1210°±02°, 30.0135°±0.2°, 31.4809° ±0.2°, 32.3619°±0.2°, 37.2410°±0.2° 37.6388°±0.2° and 40.8286°±0.2°.
Labelling apparatus for applying labels to containers, comprising a gluing device having a glue roller and a glue-application unit which is assigned to the glue roller and is intended for applying glue to the glue roller , wherein the glue-application unit has at least one accommodating space (374a, 374b; 474a, 474b; 574) for accommodating of glue, wherein the glue roller and/or the glue-application unit are designed and the glue roller and the glue-application unit are arranged in relation to one another such that glue which is located in the accommodating space (374a, 374b; 474a, 474b; 574) is applied to the surface of the glue roller only in one or more sub-regions of the overall extent - as seen in the axial direction of the glue roller - of the surface of the glue roller; characterised in that the glue-application unit on the side of the glue roller comprises at least one controllable scraper by means of which the at least one accommodating space can be sealed, in particular hermetically, on the side of the glue roller.
A fluid pressure regulator comprising: a first stage valve arranged to open and close a fluid flow path to control flow of fluid through the valve, the first stage valve including: a first valve body defining a valve chamber having an outlet opening and an inlet opening ; a first valve gasket arranged in the valve chamber at the outlet opening ; and a first valve ball movable in the valve chamber to contact the first valve gasket and close the outlet opening ; a first stage piston arranged for movement to move the first valve ball relative to the outlet opening and thereby open and close the first stage valve, the piston having an inner side and an outer side; and a regulator body defining a piston chamber in which the first stage piston is movable and housing the valve chamber , wherein the first stage piston includes a depressor arranged to move with the first stage piston and contact the first valve ball to move the first valve ball away from the outlet opening , characterized in that the depressor has a rigid, convex contact surface arranged to contact the first valve ball . a first stage valve arranged to open and close a fluid flow path to control flow of fluid through the valve, the first stage valve including: a first valve body defining a valve chamber having an outlet opening and an inlet opening ; a first valve gasket arranged in the valve chamber at the outlet opening ; and a first valve ball movable in the valve chamber to contact the first valve gasket and close the outlet opening ; a first valve body defining a valve chamber having an outlet opening and an inlet opening ; a first valve gasket arranged in the valve chamber at the outlet opening ; and a first valve ball movable in the valve chamber to contact the first valve gasket and close the outlet opening ; a first stage piston arranged for movement to move the first valve ball relative to the outlet opening and thereby open and close the first stage valve, the piston having an inner side and an outer side; and a regulator body defining a piston chamber in which the first stage piston is movable and housing the valve chamber , wherein the first stage piston includes a depressor arranged to move with the first stage piston and contact the first valve ball to move the first valve ball away from the outlet opening , characterized in that the depressor has a rigid, convex contact surface arranged to contact the first valve ball .
An electric generator comprising: a rotor shaft to be driven to rotate with a rotor ; a stator in operable communication with said rotor ; a housing surrounding said rotor and said stator ; said rotor shaft extending outwardly of said housing , and a seal sealing a location where said rotor shaft extends outwardly of said housing ; and a vent valve , separate from said seal , and configured for allowing venting of the interior of said housing when said rotor shaft is not rotating; wherein the valve is configured to be in a non-venting position after the rotor shaft begins rotation; characterised in that there is a static oil level within the interior of the housing, which is the level of oil in the machine when not rotating, and that the vent valve is positioned in the housing at a location above the static oil level. a rotor shaft to be driven to rotate with a rotor ; a stator in operable communication with said rotor ; a housing surrounding said rotor and said stator ; said rotor shaft extending outwardly of said housing , and a seal sealing a location where said rotor shaft extends outwardly of said housing ; and a vent valve , separate from said seal , and configured for allowing venting of the interior of said housing when said rotor shaft is not rotating; wherein the valve is configured to be in a non-venting position after the rotor shaft begins rotation; characterised in that there is a static oil level within the interior of the housing, which is the level of oil in the machine when not rotating, and that the vent valve is positioned in the housing at a location above the static oil level.
A stator, comprising: a stator core including a plurality of teeth and a plurality of slots each located between adjacent ones of the teeth ; and a concentric coil formed by concentrically winding a rectangular wire and placed in the slots of the stator core , wherein the concentric coil comprises a slot accommodated portion placed in a slot of the plurality of slots ; an interval (L4) in a circumferential direction of the stator core between an outer peripheral surface of an axial end of the slot accommodated portion about a winding center (C) of the concentric coil and the tooth facing the outer peripheral surface is larger than an interval (L5) in the circumferential direction of the stator core between an inner peripheral surface of the axial end of the slot accommodated portion about the winding center (C) of the concentric coil and the tooth facing the inner peripheral surface , characterized in that the interval (L4) in the circumferential direction between the concentric coil and the tooth facing the outer peripheral surface of the concentric coil gradually decreases from the axial end of the slot on a first axial side of the slot toward an axial middle portion of the slot , then gradually increases toward the vicinity of the axial middle portion , then gradually decreases, and thereafter gradually increases toward the axial end of the slot on the other axial side of the slot , such that the portion of the concentric coil , which is placed in the slot , has a wave shape. a stator core including a plurality of teeth and a plurality of slots each located between adjacent ones of the teeth ; and a concentric coil formed by concentrically winding a rectangular wire and placed in the slots of the stator core , wherein the concentric coil comprises a slot accommodated portion placed in a slot of the plurality of slots ; an interval (L4) in a circumferential direction of the stator core between an outer peripheral surface of an axial end of the slot accommodated portion about a winding center (C) of the concentric coil and the tooth facing the outer peripheral surface is larger than an interval (L5) in the circumferential direction of the stator core between an inner peripheral surface of the axial end of the slot accommodated portion about the winding center (C) of the concentric coil and the tooth facing the inner peripheral surface , characterized in that the interval (L4) in the circumferential direction between the concentric coil and the tooth facing the outer peripheral surface of the concentric coil gradually decreases from the axial end of the slot on a first axial side of the slot toward an axial middle portion of the slot , then gradually increases toward the vicinity of the axial middle portion , then gradually decreases, and thereafter gradually increases toward the axial end of the slot on the other axial side of the slot , such that the portion of the concentric coil , which is placed in the slot , has a wave shape.
A method for installing a self-clinching fastener in a steel substrate, comprising: receiving the substrate in a shape-forming press, a temperature of the substrate being higher than a temperature of the press, the substrate being substantially austenite when being received in the press; operating the press to shape the substrate, a hardness of the substrate undergoing a transition while the substrate is cooled in the press; and installing the fastener in the substrate while the hardness of substrate undergoes said transition when the temperature of the substrate is between +20% and -5% of the martensite start temperature. receiving the substrate in a shape-forming press, a temperature of the substrate being higher than a temperature of the press, the substrate being substantially austenite when being received in the press; operating the press to shape the substrate, a hardness of the substrate undergoing a transition while the substrate is cooled in the press; and installing the fastener in the substrate while the hardness of substrate undergoes said transition when the temperature of the substrate is between +20% and -5% of the martensite start temperature.
A method for assigning frequency-domain resources for a communication channel to a user equipment, UE, in an active bandwidth part, BWP, with a size N BWP size in number of RBs, the method being performed by a network node of a wireless communication network, wherein the number of bits, b, available for signaling a frequency domain resource assignment is less than ⌈ log 2 N BWP size N BWP size + 1 / 2 ⌉ , the number of bits, b, being defined based on the size of another BWP, N BWP , 2 size , the method comprising: encoding a frequency-domain resource indication value, RIV, to indicate a starting virtual resource block, RB start , and an allocation length, L RBs , in terms of contiguously allocated RBs assigned to the UE, wherein the RIV is encoded to support all possible allocation lengths between one and N BWP size RBs, and a subset of all possible starting virtual RBs, RB start , between zero and N BWP size − 1 with a resolution of a RBs, wherein the value of α is determined by α = ⌈ N BWP size / N BWP , 2 size 2 ⌉ ; sending the RIV to the UE in a downlink control information message for assigning frequency-domain resources within the active BWP. encoding a frequency-domain resource indication value, RIV, to indicate a starting virtual resource block, RB start , and an allocation length, L RBs , in terms of contiguously allocated RBs assigned to the UE, wherein the RIV is encoded to support all possible allocation lengths between one and N BWP size RBs, and a subset of all possible starting virtual RBs, RB start , between zero and N BWP size − 1 with a resolution of a RBs, wherein the value of α is determined by α = ⌈ N BWP size / N BWP , 2 size 2 ⌉ ; sending the RIV to the UE in a downlink control information message for assigning frequency-domain resources within the active BWP.
A system for interstitial photodynamic light therapy of a tissue, comprising: at least two light-transmitting catheters (LTCs) , each LTC having a lumen , and wherein a first LTC of the at least two LTCs has a flat end at or near a base of a conical tip ; a treatment fiber having a flat tip configured to be disposed through the lumen of a first LTC of the at least two LTCs ; a dosimetry fiber configured to be disposed through the lumen of the first LTC of the at least two LTCs together with the treatment fiber ; a second treatment fiber configured to be disposed through the lumen of a second LTC of the at least two LTCs ; a spectrometer in operable communication with the dosimetry fiber , the spectrometer configured to measure light received at the dosimetry fiber ; a light source in operable communication with at least one treatment fiber , the light source configured to deliver light to a tissue by way of the at least one treatment fiber ; and a controller configured to adjust the light delivered by the light source according to light measured by the spectrometer . at least two light-transmitting catheters (LTCs) , each LTC having a lumen , and wherein a first LTC of the at least two LTCs has a flat end at or near a base of a conical tip ; a treatment fiber having a flat tip configured to be disposed through the lumen of a first LTC of the at least two LTCs ; a dosimetry fiber configured to be disposed through the lumen of the first LTC of the at least two LTCs together with the treatment fiber ; a second treatment fiber configured to be disposed through the lumen of a second LTC of the at least two LTCs ; a spectrometer in operable communication with the dosimetry fiber , the spectrometer configured to measure light received at the dosimetry fiber ; a light source in operable communication with at least one treatment fiber , the light source configured to deliver light to a tissue by way of the at least one treatment fiber ; and a controller configured to adjust the light delivered by the light source according to light measured by the spectrometer .
A method for stabilizing a freeze dried bacterial extract for cell free protein synthesis, the method comprises: i. combining a bacterial extract comprising lysed bacterial components, wherein the extract is able to synthesize a target protein from a template nucleic acid encoding the target protein in cell free protein synthesis, and a carbohydrate composition, wherein the carbohydrate composition constitutes 20-100% (% of the total carbohydrate composition) sucrose and 0-80% (% of the total carbohydrate composition) non-sucrose carbohydrate comprising mannitol, sorbitol, dextran, or mixtures thereof to yield a mixture; and ii. freeze-drying the mixture to produce the stable, freeze dried bacterial extract having an 0.6-2:1 (w/w) ratio of carbohydrate to dried bacterial components. i. combining a bacterial extract comprising lysed bacterial components, wherein the extract is able to synthesize a target protein from a template nucleic acid encoding the target protein in cell free protein synthesis, and a carbohydrate composition, wherein the carbohydrate composition constitutes 20-100% (% of the total carbohydrate composition) sucrose and 0-80% (% of the total carbohydrate composition) non-sucrose carbohydrate comprising mannitol, sorbitol, dextran, or mixtures thereof to yield a mixture; and ii. freeze-drying the mixture to produce the stable, freeze dried bacterial extract having an 0.6-2:1 (w/w) ratio of carbohydrate to dried bacterial components.
The method for switching off an output of a junction box comprising an input and at least one output and also an, at the inlet side arranged, electronic switch and an, at the outlet side arranged, mechanical isolator that is connected in series thereto, and by means of said mechanical isolator the input is connected to the output so as to transmit energy, whereby the junction box comprises an internal evaluating unit having at least one processor and a data storage device, wherein an evaluating program is stored in the data storage device and said evaluating program is provided for the purpose of being performed by the processor, including the following steps: - Open the electronic switch by means of the evaluating unit; - Wait for a defined period of time (Δt); - Measure the potential (U) at the output of the electronic switch by means of the evaluating unit and an electronic measuring device ; - Compare the measured potential (U) with a predefined value (U Ref ); - Set a release parameter in dependence upon the measured potential (U) being below the predetermined value (U Ref ); - Open the mechanical isolator in dependence upon the release parameter. - Open the electronic switch by means of the evaluating unit; - Wait for a defined period of time (Δt); - Measure the potential (U) at the output of the electronic switch by means of the evaluating unit and an electronic measuring device ; - Compare the measured potential (U) with a predefined value (U Ref ); - Set a release parameter in dependence upon the measured potential (U) being below the predetermined value (U Ref ); - Open the mechanical isolator in dependence upon the release parameter.
An olefin polymerization catalyst system comprising an admixture or reaction product resulting from combining: (A) a first olefin polymerization procatalyst, (B) a second olefin polymerization procatalyst, and (C) a chain shuttling agent, wherein the first olefin polymerization procatalyst (A) is selected from the group consisting of: and wherein the second olefin polymerization procatalyst (B) comprises a metal-ligand complex of Formula (II): wherein: M 2 is a Group 4 metal; T 2 is a nitrogen, oxygen or phosphorus containing group; X 2 is halo, hydrocarbyl, or hydrocarbyloxy; R d independently at each occurrence is hydrogen, halogen, or R e ; and R e independently at each occurrence is C1-20 hydrocarbyl or a heteroatom. (A) a first olefin polymerization procatalyst, (B) a second olefin polymerization procatalyst, and (C) a chain shuttling agent, M 2 is a Group 4 metal; T 2 is a nitrogen, oxygen or phosphorus containing group; X 2 is halo, hydrocarbyl, or hydrocarbyloxy; R d independently at each occurrence is hydrogen, halogen, or R e ; and R e independently at each occurrence is C1-20 hydrocarbyl or a heteroatom.