mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor for measuring hydrogen content in metal melt, comprising: a solid proton conductor element , a reference electrode , a quasi-electrode to be measured, a reference compound, a through pipe and an insulating ceramic adhesive , wherein the through pipe and the solid proton conductor element are connected through the insulating ceramic adhesive to form an inner space, the surface located in the space, of the solid proton conductor element , is an inner surface, and the surface exposed outside is an outer surface; the reference electrode is coated to the inner surface of the solid proton conductor element , and the quasi-electrode to be measured is the outer surface of the solid proton conductor element ; the quasi-electrode to be measured is in direct contact with the metal melt during hydrogen measurement, and the contact surface forms the electrode to be measured; and the reference compound is gas placed in the inner space and is in contact with the reference electrode , characterized in that the sensor comprises a gas guide pipe and a three-way clamp connected with an upper part of the through pipe , the gas guide pipe is inserted into the inner space formed by the through pipe , the insulating ceramic adhesive and the solid proton conductor element through the three-way clamp and is connected to the reference electrode , and when a bottom end of the gas guide pipe directly faces to the reference electrode and the solid proton conductor element , the bottom end of the gas guide pipe is a blind end, a side opening thereof acts as a gas outlet. a solid proton conductor element , a reference electrode , a quasi-electrode to be measured, a reference compound, a through pipe and an insulating ceramic adhesive , wherein the through pipe and the solid proton conductor element are connected through the insulating ceramic adhesive to form an inner space, the surface located in the space, of the solid proton conductor element , is an inner surface, and the surface exposed outside is an outer surface; the reference electrode is coated to the inner surface of the solid proton conductor element , and the quasi-electrode to be measured is the outer surface of the solid proton conductor element ; the quasi-electrode to be measured is in direct contact with the metal melt during hydrogen measurement, and the contact surface forms the electrode to be measured; and the reference compound is gas placed in the inner space and is in contact with the reference electrode , characterized in that the sensor comprises a gas guide pipe and a three-way clamp connected with an upper part of the through pipe , the gas guide pipe is inserted into the inner space formed by the through pipe , the insulating ceramic adhesive and the solid proton conductor element through the three-way clamp and is connected to the reference electrode , and when a bottom end of the gas guide pipe directly faces to the reference electrode and the solid proton conductor element , the bottom end of the gas guide pipe is a blind end, a side opening thereof acts as a gas outlet.
Independent wheel suspension for a steerable wheel of a motor vehicle , preferably of a mobile agricultural machine, for example a crop protection sprayer, wherein the independent suspension has: a wheel support which has a support member and a wheel hub for the steerable wheel , said wheel hub being rotatably connected to the support member ; a drive motor which is supported by the support member and for driving is operatively connected to the wheel hub ; characterized in that the independent wheel suspension has: a first transverse control arm which by means of a first ball joint above the drive motor and/or the wheel hub is connected to the support member ; and a second transverse control arm which by means of a second ball joint above the first transverse control arm is connected to the support member . a wheel support which has a support member and a wheel hub for the steerable wheel , said wheel hub being rotatably connected to the support member ; a drive motor which is supported by the support member and for driving is operatively connected to the wheel hub ; characterized in that the independent wheel suspension has: a first transverse control arm which by means of a first ball joint above the drive motor and/or the wheel hub is connected to the support member ; and a second transverse control arm which by means of a second ball joint above the first transverse control arm is connected to the support member . a first transverse control arm which by means of a first ball joint above the drive motor and/or the wheel hub is connected to the support member ; and a second transverse control arm which by means of a second ball joint above the first transverse control arm is connected to the support member .
A system for treating mucosal tissue from a small intestine of a patient, said system comprising: an elongate tube comprising a shaft having a distal portion; a treatment element (320; 321) positioned on the distal portion of the shaft , said treatment element configured to treat the mucosal tissue; and means for delivering a fluid into submucosal tissue to expand said submucosal tissue circumferentially to increase a target treatment area, the target treatment area including the mucosal tissue on the small intestine to be treated by the treatment element; wherein the treatment element (320; 321) is configured to treat mucosal tissue on the small intestine; and wherein the treatment element (320; 321) comprises an expandable balloon including fluid at a temperature of 65°C to 90°C. an elongate tube comprising a shaft having a distal portion; a treatment element (320; 321) positioned on the distal portion of the shaft , said treatment element configured to treat the mucosal tissue; and means for delivering a fluid into submucosal tissue to expand said submucosal tissue circumferentially to increase a target treatment area, the target treatment area including the mucosal tissue on the small intestine to be treated by the treatment element;
An optical microscopy probe for scanning microscopy imaging of an associated object (O), the probe comprising: - an elongated housing with an optical window , the optical window being positioned at a side position at the distal end of the housing, - an optical guide having an objective lens rigidly coupled to an end portion of the optical guide, the optical guide being displaceably mounted in a transverse direction of the housing so as to enable optical scanning in a region of interest (ROI) outside said optical window, and - a relay lens unit rigidly mounted relative to the housing at the distal end of the probe, the relay lens unit comprising a first lens , a second lens and a mirror , wherein the relay lens unit is optically arranged relative to the objective lens for allowing scanning microscopy through the optical window of the housing, wherein the first lens of the relay lens unit is positioned with an optical axis substantially parallel with a longitudinal direction of the probe, and wherein the second lens is configured to define a focal point of microscopic imaging outside of the probe. - an elongated housing with an optical window , the optical window being positioned at a side position at the distal end of the housing, - an optical guide having an objective lens rigidly coupled to an end portion of the optical guide, the optical guide being displaceably mounted in a transverse direction of the housing so as to enable optical scanning in a region of interest (ROI) outside said optical window, and - a relay lens unit rigidly mounted relative to the housing at the distal end of the probe, the relay lens unit comprising a first lens , a second lens and a mirror , wherein the relay lens unit is optically arranged relative to the objective lens for allowing scanning microscopy through the optical window of the housing, wherein the first lens of the relay lens unit is positioned with an optical axis substantially parallel with a longitudinal direction of the probe, and wherein the second lens is configured to define a focal point of microscopic imaging outside of the probe.
Sachet for food intended to contain a portion of food and to be introduced into a heating fluid in order to cook or heat said portion of food, said sachet being provided with a projecting external border that is made in one piece with the sachet and extends longitudinally along the surface of said sachet in order to provide gripping thereof, the projecting external border having a protrusion zone with a surface facing the rest of the border so as to form the favoured gripping zone of the sachet , said sachet being characterised in that the projecting external border has a profile composed of successive waves with heights decreasing as from the protrusion zone , which thus forms a tag situated at one end of said border, said projecting external border being provided with a notch intended for a gripping tool, of the fork type, to pass, and being formed by three successive continuous waves of decreasing heights, the first wave V1 being the highest and comprising the tag , the notch extending so as to straddle the first and second waves V2, the third wave V3 being substantially coplanar with the surface of the sachet .
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, reconfiguration message including a physical downlink control channel, PDCCH, configuration for a downlink bandwidth part, BWP, of a special cell, SpCell, wherein the RRC reconfiguration message includes one or more search space configurations, one or more control resource set, CORESET, configurations, information on a power saving network temporary identifier, PS-RNTI, and information on a PS offset, wherein a search space configuration among the one or more search space configurations is associated with a wakeup signal, WUS, and the search space configuration is associated with a CORESET configuration among the one or more CORESET configurations; identifying a PDCCH monitoring occasion for the WUS based on the search space configuration and the CORESET configuration; and receiving, from the base station on the SpCell, downlink control information including the WUS by monitoring the PDCCH monitoring occasion based on the PS-RNTI and the PS offset, wherein the search space configuration and the CORESET configuration are BWP specific for the downlink BWP, and wherein the PS-RNTI and the PS offset are cell specific for the SpCell. receiving, from a base station, a radio resource control, RRC, reconfiguration message including a physical downlink control channel, PDCCH, configuration for a downlink bandwidth part, BWP, of a special cell, SpCell, wherein the RRC reconfiguration message includes one or more search space configurations, one or more control resource set, CORESET, configurations, information on a power saving network temporary identifier, PS-RNTI, and information on a PS offset, wherein a search space configuration among the one or more search space configurations is associated with a wakeup signal, WUS, and the search space configuration is associated with a CORESET configuration among the one or more CORESET configurations; identifying a PDCCH monitoring occasion for the WUS based on the search space configuration and the CORESET configuration; and receiving, from the base station on the SpCell, downlink control information including the WUS by monitoring the PDCCH monitoring occasion based on the PS-RNTI and the PS offset, wherein the search space configuration and the CORESET configuration are BWP specific for the downlink BWP, and wherein the PS-RNTI and the PS offset are cell specific for the SpCell.
A syringe support for supporting an axial position of a syringe relative to a housing of an autoinjector , wherein the housing comprises a rear part (2.2) comprising a proximal end (2.4) and at least one rigid arm (2.3, 15.4) extending in the distal direction (D) from the proximal end (2.4), wherein the syringe support comprises a supporting beam (15.1) arranged on a distal end of the at least one rigid arm (2.3, 15.4) and biased radially inwards, wherein the supporting beam (15.1) is adapted to axially bias the syringe in a distal direction (D) within the housing , wherein the supporting beam (15.1) is adapted to accommodate syringes having variable lengths (L) within the housing in the distal direction (D), wherein the supporting beam (15.1) is configured to engage a flange (3.1) of the syringe , and wherein the supporting beam (15.1) is formed as a flexure beam. wherein the syringe support comprises a supporting beam (15.1) arranged on a distal end of the at least one rigid arm (2.3, 15.4) and biased radially inwards, wherein the supporting beam (15.1) is adapted to axially bias the syringe in a distal direction (D) within the housing , wherein the supporting beam (15.1) is adapted to accommodate syringes having variable lengths (L) within the housing in the distal direction (D), wherein the supporting beam (15.1) is configured to engage a flange (3.1) of the syringe , and wherein the supporting beam (15.1) is formed as a flexure beam.
A method for producing a milk-based product, comprising the steps of: a) providing a milk raw material; b) altering a ratio of casein to total protein of the milk raw material to about 0.70 or less, or about 0.60 or less, or about 0.50 or less, or about 0.40 or less, or about 0.20 or less; c) subjecting the milk raw material with the altered ratio of casein to total protein from step b) to a heat treatment at the temperature of at least about 150°C, specifically at least about 155°C, more specifically at least about 157°C, for a period of at most about 0.3 sec; d) cooling the heat-treated milk raw material from step c) to provide the milk-based product. a) providing a milk raw material; b) altering a ratio of casein to total protein of the milk raw material to about 0.70 or less, or about 0.60 or less, or about 0.50 or less, or about 0.40 or less, or about 0.20 or less; c) subjecting the milk raw material with the altered ratio of casein to total protein from step b) to a heat treatment at the temperature of at least about 150°C, specifically at least about 155°C, more specifically at least about 157°C, for a period of at most about 0.3 sec; d) cooling the heat-treated milk raw material from step c) to provide the milk-based product.
A sampling module for mounting in a pipeline with a multiphase flow meter and for receiving multiphase fluid from the pipe, wherein the sampling module comprises: a separation chamber for receiving and separating a sample volume of fluid from the multiphase fluid, the separation chamber having a vertical extent when in use; a lower valve for opening and closing a fluid path between a lower end of the separation chamber and the pipeline; an upper valve for opening and closing a fluid path between an upper end of the separation chamber and the pipeline; a lower sensor for measuring fluid properties of the fluid in a lower part of the separation chamber; and an upper sensor for measuring fluid properties of the fluid in an upper part of the separation chamber, characterised in that the sampling module includes a controller for opening and closing the valves in each one of the following operations: opening and closing both the lower valve and the upper valve together; opening and closing the upper valve whilst the lower valve remains closed; and opening and closing the lower valve while the upper valve remains closed. a separation chamber for receiving and separating a sample volume of fluid from the multiphase fluid, the separation chamber having a vertical extent when in use; a lower valve for opening and closing a fluid path between a lower end of the separation chamber and the pipeline; an upper valve for opening and closing a fluid path between an upper end of the separation chamber and the pipeline; a lower sensor for measuring fluid properties of the fluid in a lower part of the separation chamber; and an upper sensor for measuring fluid properties of the fluid in an upper part of the separation chamber, characterised in that the sampling module includes a controller for opening and closing the valves in each one of the following operations: opening and closing both the lower valve and the upper valve together; opening and closing the upper valve whilst the lower valve remains closed; and opening and closing the lower valve while the upper valve remains closed.
A geodetic instrument adapted to determine a direction and/or a distance to a target, comprising: an attachment device for attaching the geodetic instrument to a holding arrangement ; a motorized positioning arrangement for aiming a line of sight (L) of the geodetic instrument via rotation and/or translation of at least a part of the motorized positioning arrangement relative to the holding arrangement, and a controller configured to, upon determining that a setting up of the geodetic instrument is required, provide a control sequence to the motorized positioning arrangement for causing a series of oscillatory rotational and/or translational movements of said at least a part of the motorized positioning arrangement, wherein an envelope amplitude of the series of oscillatory rotational and/or translational movements decreases with time. an attachment device for attaching the geodetic instrument to a holding arrangement ; a motorized positioning arrangement for aiming a line of sight (L) of the geodetic instrument via rotation and/or translation of at least a part of the motorized positioning arrangement relative to the holding arrangement, and a controller configured to, upon determining that a setting up of the geodetic instrument is required, provide a control sequence to the motorized positioning arrangement for causing a series of oscillatory rotational and/or translational movements of said at least a part of the motorized positioning arrangement, wherein an envelope amplitude of the series of oscillatory rotational and/or translational movements decreases with time.
A method for managing an online charging session, the method comprising: establishing a subscriber data session on a network, via a Policy Charging Enforcement Function, PCEF ; establishing a connection with an initial online charging system, via a control plane engine ; detecting a change in subscriber's location to or from a roaming location, via the control plane engine; determining, via a processor , whether the change in the subscriber's location is associated with a change in the online charging system ; if the change in subscriber's location is associated with a change in the online charging system, determining a new online charging system for the subscriber data session, wherein the new online charging system is determined based on the roaming location; terminating the connection to the initial online charging system by terminating the Gy session with the initial online charging system and without terminating the subscriber data session ; and establishing a connection with the new online charging system , via a Policy and Charging Rules Function, PCRF, by starting a new Gy session with the new online charging system; otherwise continuing the connection with the initial online charging system . establishing a subscriber data session on a network, via a Policy Charging Enforcement Function, PCEF ; establishing a connection with an initial online charging system, via a control plane engine ; detecting a change in subscriber's location to or from a roaming location, via the control plane engine; determining, via a processor , whether the change in the subscriber's location is associated with a change in the online charging system ; if the change in subscriber's location is associated with a change in the online charging system, determining a new online charging system for the subscriber data session, wherein the new online charging system is determined based on the roaming location; terminating the connection to the initial online charging system by terminating the Gy session with the initial online charging system and without terminating the subscriber data session ; and establishing a connection with the new online charging system , via a Policy and Charging Rules Function, PCRF, by starting a new Gy session with the new online charging system; determining a new online charging system for the subscriber data session, wherein the new online charging system is determined based on the roaming location; terminating the connection to the initial online charging system by terminating the Gy session with the initial online charging system and without terminating the subscriber data session ; and establishing a connection with the new online charging system , via a Policy and Charging Rules Function, PCRF, by starting a new Gy session with the new online charging system; otherwise continuing the connection with the initial online charging system .
A method for fabricating an energy storage device comprising: combining polymeric binder particles with an ionically insulating coating material; mixing the binder particles and the coating material to form coated binder particles such that the binder particles are not fibrillized during mixing; combining the coated binder particles with active material particles to form a first mixture; milling at least some of the first mixture to form an electrode film mixture; and calendering the electrode film mixture to form a free-standing electrode film. combining polymeric binder particles with an ionically insulating coating material; mixing the binder particles and the coating material to form coated binder particles such that the binder particles are not fibrillized during mixing; combining the coated binder particles with active material particles to form a first mixture; milling at least some of the first mixture to form an electrode film mixture; and calendering the electrode film mixture to form a free-standing electrode film.
A fusion antibody for use in the treatment of an arylsulfatase A (ASA) deficiency in the central nervous system of a subject in need thereof, comprising systemically administering to the subject a therapeutically effective dose of a fusion antibody having arylsulfatase A activity, wherein the fusion antibody comprises: (a) a fusion protein comprising the amino acid sequences of an immunoglobulin heavy chain and an arylsulfatase A, wherein the immunoglobulin heavy chain comprises a CDR1 corresponding to the amino acid sequence of SEQ ID NO:1, a CDR2 corresponding to the amino acid sequence of SEQ ID NO:2, or a CDR3 corresponding to the amino acid sequence of SEQ ID NO:3; and (b) an immunoglobulin light chain, wherein the immunoglobulin light chain is an immunoglobulin light chain of kappa or lambda class and comprises a CDR1 corresponding to the amino acid sequence of SEQ ID NO:4, a CDR2 corresponding to the amino acid sequence of SEQ ID NO:5, or a CDR3 corresponding to the amino acid sequence of SEQ ID NO:6; wherein the fusion antibody crosses the blood brain barrier (BBB) and the ASA retains at least 20% of its activity, on a molar basis, compared to its activity as a separate entity. (a) a fusion protein comprising the amino acid sequences of an immunoglobulin heavy chain and an arylsulfatase A, wherein the immunoglobulin heavy chain comprises a CDR1 corresponding to the amino acid sequence of SEQ ID NO:1, a CDR2 corresponding to the amino acid sequence of SEQ ID NO:2, or a CDR3 corresponding to the amino acid sequence of SEQ ID NO:3; and (b) an immunoglobulin light chain, wherein the immunoglobulin light chain is an immunoglobulin light chain of kappa or lambda class and comprises a CDR1 corresponding to the amino acid sequence of SEQ ID NO:4, a CDR2 corresponding to the amino acid sequence of SEQ ID NO:5, or a CDR3 corresponding to the amino acid sequence of SEQ ID NO:6;