mhurhangee/patent-ind-claim-en huggingface dataset:
A CCR2 agonist for use in the treatment of a tissue lesion in a female who is pregnant or who has been pregnant at least one time in need thereof wherein the tissue lesion is selected from the group consisting of skin lesion, hepatic lesion, cardiac lesion, lung lesion, neurologic lesion, ocular lesion, stomach lesion, pancreas lesion, spleen lesion, bowel lesion, thyroid lesion, thymus lesion, kidney lesion, bone lesion, bone marrow lesion, muscle lesion, tendon lesion, ligament lesion, reproductive organs lesion or endocrine glands lesion and wherein the CCR2 agonist is a CCL2 polypeptide having an amino acid sequence as set forth in SEQ ID NO:3.
A uroflowmetry device comprising - a core unit ; - a receptacle for collecting urine, operationally coupled to the core unit ; and, - a holder for holding the core unit and the receptacle ; wherein the core unit comprises at least - a urine detector; - a weight sensor; - a communication module ; - a microprocessor ; and, - an energy source; wherein the receptacle comprises urine analysis sensors for providing a chemical analysis of urine; wherein: - the urine detector is configured for detecting the presence of urine in the receptacle, - the weight sensor is configured for detecting the weight of the urine in the receptacle, and for detecting the rate at which urine flows into the receptacle, and, - the weight sensor is configured for detecting when micturition is over; characterised in that the core unit further comprises an accelerometer that is configured for - detecting acceleration in a lateral direction; - detecting shocks; and - detecting the orientation of the core unit with respect to the horizontal plane; wherein said accelerometer is configured to label uroflowmetry measurements during which shocks were detected as invalid measurements. - a core unit ; - a receptacle for collecting urine, operationally coupled to the core unit ; and, - a holder for holding the core unit and the receptacle ; wherein the core unit comprises at least - a urine detector; - a weight sensor; - a communication module ; - a microprocessor ; and, - an energy source; - a urine detector; - a weight sensor; - a communication module ; - a microprocessor ; and, - an energy source; wherein the receptacle comprises urine analysis sensors for providing a chemical analysis of urine; wherein: - the urine detector is configured for detecting the presence of urine in the receptacle, - the weight sensor is configured for detecting the weight of the urine in the receptacle, and for detecting the rate at which urine flows into the receptacle, and, - the weight sensor is configured for detecting when micturition is over; - the urine detector is configured for detecting the presence of urine in the receptacle, - the weight sensor is configured for detecting the weight of the urine in the receptacle, and for detecting the rate at which urine flows into the receptacle, and, - the weight sensor is configured for detecting when micturition is over; characterised in that the core unit further comprises an accelerometer that is configured for - detecting acceleration in a lateral direction; - detecting shocks; and - detecting the orientation of the core unit with respect to the horizontal plane; - detecting acceleration in a lateral direction; - detecting shocks; and - detecting the orientation of the core unit with respect to the horizontal plane; wherein said accelerometer is configured to label uroflowmetry measurements during which shocks were detected as invalid measurements.
A method of wireless communication comprising: monitoring, by a user equipment, UE, a first component carrier, CC, of a plurality of CCs for a first channel; determining, by the UE during monitoring, one or more channel measurements for a set of candidate CCs of the plurality of CCs; determining, by the UE based on a determination at the UE, whether to include carrier selection data in an uplink transmission, the carrier selection data based on one or more channel measurements; and transmitting, by the UE, the carrier selection data in the uplink transmission, characterized in that : i) the carrier selection data includes an indication of a preferred frequency range, a preferred frequency band, or both; or ii) the carrier selection data includes an indication of a preferred CC type, wherein the preferred CC types includes a downlink only CC, an uplink only CC, or both a downlink and uplink CC; or iii) the carrier selection data includes a request to suspend or resume scheduling on a particular CC, frequency band, or frequency range. monitoring, by a user equipment, UE, a first component carrier, CC, of a plurality of CCs for a first channel; determining, by the UE during monitoring, one or more channel measurements for a set of candidate CCs of the plurality of CCs; determining, by the UE based on a determination at the UE, whether to include carrier selection data in an uplink transmission, the carrier selection data based on one or more channel measurements; and transmitting, by the UE, the carrier selection data in the uplink transmission, characterized in that : i) the carrier selection data includes an indication of a preferred frequency range, a preferred frequency band, or both; or ii) the carrier selection data includes an indication of a preferred CC type, wherein the preferred CC types includes a downlink only CC, an uplink only CC, or both a downlink and uplink CC; or iii) the carrier selection data includes a request to suspend or resume scheduling on a particular CC, frequency band, or frequency range. i) the carrier selection data includes an indication of a preferred frequency range, a preferred frequency band, or both; or ii) the carrier selection data includes an indication of a preferred CC type, wherein the preferred CC types includes a downlink only CC, an uplink only CC, or both a downlink and uplink CC; or iii) the carrier selection data includes a request to suspend or resume scheduling on a particular CC, frequency band, or frequency range.
A method of forming a splice to join two optical fibres, the method comprising: providing two optical fibres , at least one of which is a hollow core optical fibre; aligning an end of one of the optical fibres with an end of the other optical fibre such that longitudinal axes of the two optical fibres are substantially along a same line and the ends of the optical fibres are spaced apart; performing a prefusion stage comprising: applying an electric arc proximate the ends of the optical fibres in order to soften the material of the ends ; moving the ends of the optical fibres together to make contact and then exceed the contact by an overlap distance to form a fused portion in which the ends are fused together; and performing at least one pushing stage, each pushing stage comprising: implementing a cooling period during which no electric arc is applied; at the end of the cooling period, applying an electric arc to the fused portion to soften the material of the fused ends; and pushing the fused ends of the optical fibres further together. providing two optical fibres , at least one of which is a hollow core optical fibre; aligning an end of one of the optical fibres with an end of the other optical fibre such that longitudinal axes of the two optical fibres are substantially along a same line and the ends of the optical fibres are spaced apart; performing a prefusion stage comprising: applying an electric arc proximate the ends of the optical fibres in order to soften the material of the ends ; moving the ends of the optical fibres together to make contact and then exceed the contact by an overlap distance to form a fused portion in which the ends are fused together; and applying an electric arc proximate the ends of the optical fibres in order to soften the material of the ends ; moving the ends of the optical fibres together to make contact and then exceed the contact by an overlap distance to form a fused portion in which the ends are fused together; and performing at least one pushing stage, each pushing stage comprising: implementing a cooling period during which no electric arc is applied; at the end of the cooling period, applying an electric arc to the fused portion to soften the material of the fused ends; and pushing the fused ends of the optical fibres further together. implementing a cooling period during which no electric arc is applied; at the end of the cooling period, applying an electric arc to the fused portion to soften the material of the fused ends; and pushing the fused ends of the optical fibres further together.
A system for direct current nerve block, comprising: a direct current generator; a working electrode and a counter electrode; and a controller configured to cyclically apply direct current of a first polarity over a first duration, and direct current of a second polarity opposite the first polarity over a second duration, receive measurements of a peak voltage of the first polarity over the first duration and measurements of a peak voltage of the second polarity over the second duration; adjust the direct current by analyzing the peak voltages over the first duration and the second duration, and increase a current magnitude by a pre-determined amount up to a current limit if the measured peak voltage over the first duration and the second duration is below an absolute threshold limit; and decreasing the current magnitude by an amount if the measured peak voltage over the first duration or the second duration is above an absolute threshold limit. a direct current generator; a working electrode and a counter electrode; and a controller configured to cyclically apply direct current of a first polarity over a first duration, and direct current of a second polarity opposite the first polarity over a second duration, receive measurements of a peak voltage of the first polarity over the first duration and measurements of a peak voltage of the second polarity over the second duration; adjust the direct current by analyzing the peak voltages over the first duration and the second duration, and increase a current magnitude by a pre-determined amount up to a current limit if the measured peak voltage over the first duration and the second duration is below an absolute threshold limit; and decreasing the current magnitude by an amount if the measured peak voltage over the first duration or the second duration is above an absolute threshold limit.
A surgical end effector, comprising: a first jaw ; a second jaw rotatably coupled to said first jaw; and a lockout arrangement configured to prevent rotational movement of said second jaw toward said first jaw unless an unfired staple cartridge is positioned in said first jaw, wherein said lockout arrangement comprises a pivotable lock configured to pivot between a locked orientation and an unlocked orientation, and wherein said pivotable lock comprises: a first leg configured to engage said second jaw when said pivotable lock is in the locked orientation such that as a result of the engagement between the first leg and the anvil, the second jaw is held in an open configuration relative to the first jaw; a second leg configured to engage the unfired staple cartridge when the unfired staple cartridge is positioned in said first jaw; and said surgical end effector being characterized in that said pivotable lock is configured to be moved into said unlocked orientation upon the installation of the staple cartridge in said first jaw. a first jaw ; a second jaw rotatably coupled to said first jaw; and a lockout arrangement configured to prevent rotational movement of said second jaw toward said first jaw unless an unfired staple cartridge is positioned in said first jaw, wherein said lockout arrangement comprises a pivotable lock configured to pivot between a locked orientation and an unlocked orientation, and wherein said pivotable lock comprises: a first leg configured to engage said second jaw when said pivotable lock is in the locked orientation such that as a result of the engagement between the first leg and the anvil, the second jaw is held in an open configuration relative to the first jaw; a second leg configured to engage the unfired staple cartridge when the unfired staple cartridge is positioned in said first jaw; and said surgical end effector being characterized in that said pivotable lock is configured to be moved into said unlocked orientation upon the installation of the staple cartridge in said first jaw. a first leg configured to engage said second jaw when said pivotable lock is in the locked orientation such that as a result of the engagement between the first leg and the anvil, the second jaw is held in an open configuration relative to the first jaw; a second leg configured to engage the unfired staple cartridge when the unfired staple cartridge is positioned in said first jaw; and said surgical end effector being characterized in that said pivotable lock is configured to be moved into said unlocked orientation upon the installation of the staple cartridge in said first jaw.
Box construction lock with strike plate assembly, wherein the lock includes locking mechanism with a locking latch-bolt , located in lock housing , so that in the lock locked position, locking latch-bolt is at least partially in strike plate assembly , characterized in that the lock housing and the strike plate in the lock's locked position are releasably attached, and in that there is adjustment range between lock housing and its locking mechanism , so that the lock housing comprises at least two positions relative to the locking mechanism.
Method for determining measurement points (MPa) of an adapted measurement path for measuring a measurement object using a coordinate measuring device , comprising the steps of - determining measurement points (MPi) of an ideal measurement path, - determining target measurement points (MPs) of at least one guide path, which differs from the ideal measurement path, - capturing actual measurement points (MPf) along the at least one guide path using the coordinate measuring device or a further coordinate measuring device, - determining the deviations (A) between the target measurement points (MPs) and the actual measurement points (MPf) of the at least one guide path, - determining the measurement points (MPa) of the adapted measurement path by changing the measurement points (MPi) of the ideal measurement path in dependence on the deviations (A), characterized in that the guide path extends parallel to the ideal measurement path. - determining measurement points (MPi) of an ideal measurement path, - determining target measurement points (MPs) of at least one guide path, which differs from the ideal measurement path, - capturing actual measurement points (MPf) along the at least one guide path using the coordinate measuring device or a further coordinate measuring device, - determining the deviations (A) between the target measurement points (MPs) and the actual measurement points (MPf) of the at least one guide path, - determining the measurement points (MPa) of the adapted measurement path by changing the measurement points (MPi) of the ideal measurement path in dependence on the deviations (A),
A device for dielectrophoretic characterisation of particles which comprises an analysis electrode and a separate cover electrode having planar surfaces which face each other wherein the analysis electrode comprises an electrically conductive layer of material provided on a substrate support and apertures are defined through the electrically conductive layer, wherein the apertures (a) extend through the entire conductive layer of material and are of circular cross section, or (b) are annular, leaving a circular island in the centre of the aperture, and wherein, in use, a sample medium is placed between the analysis electrode and the cover electrode and the sample medium consists of particles suspended in a solvent.
Use of an unfired, refractory molded body , comprising a binding agent matrix containing at least one set, permanent binding agent and aggregate grains of rice husk ash, which grains are incorporated into the binding agent matrix , wherein the aggregate of the molded body consists of at least 50 wt-% of rice husk ash, relative to the total dry mass of aggregates materials, and wherein the at least one permanent binding agent pertains to water-glass or a sol-gel binder or a phosphate binder or alumina cement or Portland cement, and wherein the molded body comprises a cold bending strength from 1.0 to 9.0 MPa, preferably from 1.5 to 7.0 MPa according to DIN EN 993-6 (04/1995), for thermal isolation of molten metal, especially of molten steel, and/or of a metallic ingot solidifying from the molten metal, wherein a molded body is used which is produced with the following method steps: a) Preparation of a mixture having the aggregate grains of the rice husk ash, the at least one, permanent binding agent, and potentially a solvent for the permanent binding agent, b) Filling the mixture into a mold, c) Compacting the mixture by means of superimposed load vibration or uniaxial pressing, d) Removing the green molded body from the mold, e) Letting the molded body set. a) Preparation of a mixture having the aggregate grains of the rice husk ash, the at least one, permanent binding agent, and potentially a solvent for the permanent binding agent, b) Filling the mixture into a mold, c) Compacting the mixture by means of superimposed load vibration or uniaxial pressing, d) Removing the green molded body from the mold, e) Letting the molded body set.
Aerial vehicle for countering drones with a drive and a housing around the drive and an active body for damaging a drone , a seeker head with an optical seeker and a control unit for drone detection, for controlling a flight to the detected drone and for triggering the active body , characterized in that the drive is held detachably with respect to the housing in such a way that it can be ejected in flight, and the active body is arranged relative to the drive in such a way that it gains a degree of freedom of action as a result of the ejection.
A monolithic three-dimensional memory device comprising a first memory block containing a plurality of memory sub-blocks located on a substrate , wherein: each memory sub-block (102A... 102D) comprises a set of memory stack structures and a portion of alternating layers laterally surrounding the set of memory stack structures ; the alternating layers comprise insulating layers and electrically conductive layers ; a first portion of neighboring pair of memory sub-blocks (102A... 102D) is laterally spaced from each other along a first horizontal direction by a backside contact via structure ; and wherein the backside contact via structure is of unitary construction and includes a bridge portion that overlies a first subset of the alternating layers in a bridge region , wherein in the bridge region the first subset of the alternating layers contiguously extends between a second portion of the neighboring pair of memory sub-blocks (102A... 102D) through a gap between two portions of the backside contact via structure that are laterally spaced apart along a second horizontal direction to provide a connecting portion between the neighboring pair of memory sub-blocks (102A... 102D); the device further comprising: an isolation dielectric structure comprising a dielectric material and underlying the bridge portion, wherein the isolation dielectric structure contacts sidewalls of a second subset of the alternating layers that are located above the first subset of the alternating layers. each memory sub-block (102A... 102D) comprises a set of memory stack structures and a portion of alternating layers laterally surrounding the set of memory stack structures ; the alternating layers comprise insulating layers and electrically conductive layers ; a first portion of neighboring pair of memory sub-blocks (102A... 102D) is laterally spaced from each other along a first horizontal direction by a backside contact via structure ; and wherein the backside contact via structure is of unitary construction and includes a bridge portion that overlies a first subset of the alternating layers in a bridge region , wherein in the bridge region the first subset of the alternating layers contiguously extends between a second portion of the neighboring pair of memory sub-blocks (102A... 102D) through a gap between two portions of the backside contact via structure that are laterally spaced apart along a second horizontal direction to provide a connecting portion between the neighboring pair of memory sub-blocks (102A... 102D); the device further comprising: an isolation dielectric structure comprising a dielectric material and underlying the bridge portion, wherein the isolation dielectric structure contacts sidewalls of a second subset of the alternating layers that are located above the first subset of the alternating layers.
Process for making a solid alkali metal salt (A) of an aminocarboxylate complexing agent, said process comprising the steps of (a) providing a 40 to 80% by weight aqueous solution or slurry comprising a salt (A), (b) optionally, heating said slurry or solution to a temperature in the range of from 50 to 150°C, (c) introducing the slurry or solution from step (a) or, if applicable, step (b) into an essentially horizontal cylindrical drying apparatus containing a stirring element that rotates around an essentially horizontal axis and that is charged with solid particles of salt (A), wherein the pressure in the cylindrical drying apparatus is in the range from 100 to 600 mbar abs, and (d) removing most of the water by evaporation, (e) removing solid salt (A) as granule. (a) providing a 40 to 80% by weight aqueous solution or slurry comprising a salt (A), (b) optionally, heating said slurry or solution to a temperature in the range of from 50 to 150°C, (c) introducing the slurry or solution from step (a) or, if applicable, step (b) into an essentially horizontal cylindrical drying apparatus containing a stirring element that rotates around an essentially horizontal axis and that is charged with solid particles of salt (A), wherein the pressure in the cylindrical drying apparatus is in the range from 100 to 600 mbar abs, and (d) removing most of the water by evaporation, (e) removing solid salt (A) as granule.
A two-side adherable high-frequency induction heating container sealing member , comprising: an upper layer , the upper layer forming a first thermal-adhesion sealing layer (10-a); a first aluminum foil layer (10-c); an intermediate base layer (10-d); a synthetic resin layer having tensile strength and hardness; and a first thermal-adhesion resin layer (10-f) from the top to the bottom successively, and the upper layer having a preformed opening guide cut line -provided opening tab , a preformed opening guide cut strip , and a preformed thermal-adhesion sealing strip ; and a lower layer , the lower layer forming a second aluminum foil layer (20-a) and a second thermal-adhesion sealing layer (20-b) from the top to the bottom successively, wherein the first thermal-adhesion resin layer (10-f) formed on the lower portion of the upper layer and the second aluminum foil layer (20-a) formed on the upper portion of the lower layer are integrated by the thermal adhesion. an upper layer , the upper layer forming a first thermal-adhesion sealing layer (10-a); a first aluminum foil layer (10-c); an intermediate base layer (10-d); a synthetic resin layer having tensile strength and hardness; and a first thermal-adhesion resin layer (10-f) from the top to the bottom successively, and the upper layer having a preformed opening guide cut line -provided opening tab , a preformed opening guide cut strip , and a preformed thermal-adhesion sealing strip ; and a lower layer , the lower layer forming a second aluminum foil layer (20-a) and a second thermal-adhesion sealing layer (20-b) from the top to the bottom successively, wherein the first thermal-adhesion resin layer (10-f) formed on the lower portion of the upper layer and the second aluminum foil layer (20-a) formed on the upper portion of the lower layer are integrated by the thermal adhesion.