mhurhangee/patent-ind-claim-en huggingface dataset:
An oral pharmaceutical composition comprising: a) at least one antiseptic agent selected from the group consisting of: i. hydrogen peroxide, carbamide peroxide, in an amount from 0.001% to 1% w/w composition; ii. cetylpyridinium chloride, in an amount from 0.005% to 5% w/w, iii. or mixture thereof; b) essential oil selected from eugenol, in an amount from 0.005% to 0.04% w/w; c) phenolic antiseptic agent selected from para-chlorophenol, in an amount from 0.001% to 0.01% w/w; d) an agent with anti-inflammatory properties selected from camphor, in an amount from 0.006 to 0.05% w/w; e) a flavoring agent selected from the group consisting of menthol, methyl acetate, methyl lactate, eucalyptus oil, eucalyptol, and oxanone, or mixture thereof, in an amount of from 0.01 to 5% w/w; f) a plant extract selected from chamomile, in an amount from 0.05% to 0.5% w/w; g) a sweetening agent selected from saccharin, dextrose, xylitol, sucrose, sucralose, stevia, in an amount of 0.01% to 15% w/w; and h) pharmaceutically acceptable excipients selected from glycerin, sorbitol, glycols and mixtures thereof, wherein when the excipient is glycerin, it is present in an amount from 0.05% to 0.5% w/w; for use in the treatment and/or prevention of oral mucositis or stomatitis associated with anticancer therapies, wherein the composition is in the form of a fluid and wherein the application of the composition is carried out at least three times a day. a) at least one antiseptic agent selected from the group consisting of: i. hydrogen peroxide, carbamide peroxide, in an amount from 0.001% to 1% w/w composition; ii. cetylpyridinium chloride, in an amount from 0.005% to 5% w/w, iii. or mixture thereof; i. hydrogen peroxide, carbamide peroxide, in an amount from 0.001% to 1% w/w composition; ii. cetylpyridinium chloride, in an amount from 0.005% to 5% w/w, iii. or mixture thereof; b) essential oil selected from eugenol, in an amount from 0.005% to 0.04% w/w; c) phenolic antiseptic agent selected from para-chlorophenol, in an amount from 0.001% to 0.01% w/w; d) an agent with anti-inflammatory properties selected from camphor, in an amount from 0.006 to 0.05% w/w; e) a flavoring agent selected from the group consisting of menthol, methyl acetate, methyl lactate, eucalyptus oil, eucalyptol, and oxanone, or mixture thereof, in an amount of from 0.01 to 5% w/w; f) a plant extract selected from chamomile, in an amount from 0.05% to 0.5% w/w; g) a sweetening agent selected from saccharin, dextrose, xylitol, sucrose, sucralose, stevia, in an amount of 0.01% to 15% w/w; and h) pharmaceutically acceptable excipients selected from glycerin, sorbitol, glycols and mixtures thereof, wherein when the excipient is glycerin, it is present in an amount from 0.05% to 0.5% w/w;
An injection molding machine, comprising: a motor which includes a stator and a rotor ; a rotation transmission shaft which is rotated by the motor ; a screw shaft which is rotated bya rotation of the rotation transmission shaft ; and a screw nut which is screwed to the screw shaft and is moved forward or rearward by a rotation of the screw shaft , wherein the motor , the rotation transmission shaft , the screw shaft , and the screw nut are disposed on the same straight line, and wherein the rotation transmission shaft includes a connection shaft portion which is connected to the rotor in a portion inside the rotor , wherein the stator includes a coil which forms a rotating magnetic field, and the rotor includes a magnet portion which is rotated by the rotating magnetic field, characterized in that the motor includes a motor bearing which rotatably supports the rotor with respect to the stator , and wherein at least a portion of the motor bearing overlaps the coil in an axial direction of the motor . a motor which includes a stator and a rotor ; a rotation transmission shaft which is rotated by the motor ; a screw shaft which is rotated bya rotation of the rotation transmission shaft ; and a screw nut which is screwed to the screw shaft and is moved forward or rearward by a rotation of the screw shaft , wherein the motor , the rotation transmission shaft , the screw shaft , and the screw nut are disposed on the same straight line, and wherein the rotation transmission shaft includes a connection shaft portion which is connected to the rotor in a portion inside the rotor , wherein the stator includes a coil which forms a rotating magnetic field, and the rotor includes a magnet portion which is rotated by the rotating magnetic field, characterized in that the motor includes a motor bearing which rotatably supports the rotor with respect to the stator , and wherein at least a portion of the motor bearing overlaps the coil in an axial direction of the motor .
A method of coating a microneedle device, the method comprising spray coating the individual needles of a microneedle device by positioning the microneedle device and the spray nozzle of a spraying device such that the angle between the axis of the spray nozzle and the plane of the microneedle device is between 70 and 45 degrees when spraying at least one microneedle.
A manufacturing method, comprising: arranging a part freely on a support surface wherein the part is a composite part and has a tubular body and is configured as a skin of an acoustic panel for an aircraft propulsion system wherein the freely arranged composite part is unattached to the support surface ; scanning the freely arranged composite part using a scanning system to provide command data; and machining the freely arranged part based on the command data; wherein the freely arranged part is machined using a laser in the machining step and the machining comprises perforating the skin. arranging a part freely on a support surface wherein the part is a composite part and has a tubular body and is configured as a skin of an acoustic panel for an aircraft propulsion system wherein the freely arranged composite part is unattached to the support surface ; scanning the freely arranged composite part using a scanning system to provide command data; and machining the freely arranged part based on the command data; wherein the freely arranged part is machined using a laser in the machining step and the machining comprises perforating the skin.
Flow rate regulator for an outlet of a liquid container, in particular for an outlet of a basin, wherein the flow rate regulator has a base element with a main plate , a bearing pin , which is connected to the main plate and extends perpendicularly thereto, and with a pipe attachment piece through which the liquid passes and which is connected to the main plate , and the flow rate regulator has a screen , which is mounted pivotably in the bearing pin and is arranged perpendicularly to the latter, and a float which is connected to the screen , wherein an opening of the pipe attachment piece , directed away from the main plate , can be screened off by the screen , according to the pivoting position of the latter, the arrangement of screen and float , with respect to a vertical plane passing through the bearing pin , can be changed around from a first position to a second position that is mirror-inverted relative to the vertical plane, characterized in that the float , in the region of one end thereof, is connected directly to the screen, or a float arm connects the screen and the float , wherein the float can be dismounted from the screen and can be mounted in a position rotated through 180° relative to a lever arm between the float and the rotation axis of the screen .
A controlling node for a cellular communications system , the controlling node being arranged to determine and transmit commands for Transmit Power Control, TPC, to one or more Mobile Terminals, MTs , in at least one cell in the system, wherein the controlling node is arranged to classify an MT as being in one of a number of states, in which the states that an MT can be classified as being in comprise an active state in which the MT is allowed to transmit payload data and control data, and a passive state in which the MT is allowed to transmit control data or to not make any transmissions at all, and to adapt its method for determining an MT's TPC commands depending on which state the MT is in, so that one TPC method is used for determining TPC commands to an MT in the active state and another TPC method is used for determining TPC commands to an MT in the passive state, wherein the controlling node is arranged to use one of the following as TPC method for MTs in the active state and another of the following as TPC method for MTs in the passive state: a TPC method which determines TPC commands based only on a comparison between the received Signal to Interference Ratio of transmissions from the MT and a Signal to Interference Ratio target value, a TPC method which determines TPC commands based only on a comparison between the Signal to Interference and Noise Ratio of transmissions from the MT which is classified as being in the active state for determining TPC commands to the MT and a Signal to Interference and Noise Ratio target value, a TPC method which determines TPC commands based only on a comparison between the Received Signal Code Power of transmissions from the MT and a Received Signal Code Power target value, and a TPC method which determines TPC commands based only on a comparison between the Rise over Thermal of transmissions from the MT and a Rise over Thermal target value.
A cryostat, comprising a plurality of cooling levels (2-i) having different temperature levels, having cooling devices associated therewith, a plurality of experimentation places (4-i) at the temperature levels of the cooling levels (2-i), a plurality of heat shields (32-i) for the cooling levels (2-i) enclosing the experimentation places (4-i), and a vacuum chamber in which the plurality of cooling levels (2-i) are arranged, characterized in that the experimentation places (4-i) are arranged side by side when viewed from above, and in that the experimentation places (4-i) are arranged side by side in such a way that they are each accessible from above and from the side. a plurality of cooling levels (2-i) having different temperature levels, having cooling devices associated therewith, a plurality of experimentation places (4-i) at the temperature levels of the cooling levels (2-i), a plurality of heat shields (32-i) for the cooling levels (2-i) enclosing the experimentation places (4-i), and a vacuum chamber in which the plurality of cooling levels (2-i) are arranged, characterized in that the experimentation places (4-i) are arranged side by side when viewed from above, and in that the experimentation places (4-i) are arranged side by side in such a way that they are each accessible from above and from the side.
A surgical instrument , comprising: a motor ; a shaft defining a shaft axis; an end effector extending from the shaft; a rotary drive member operably responsive to the motor, wherein the rotary drive member is operably engaged with the end effector and configured to selectively perform a first end effector function and a second end effector function that is different than the first end effector function; a lock member operably engaged with the rotary drive member, wherein the lock member is movable between a first position where the end effector is locked to the shaft and a second position where the end effector is unlocked from the shaft, wherein the rotary drive member is configured to perform the first end effector function when the lock member is in the first position, and wherein the rotary drive member is configured to perform the second end effector function when the lock member is in the second position. a motor ; a shaft defining a shaft axis; an end effector extending from the shaft; a rotary drive member operably responsive to the motor, wherein the rotary drive member is operably engaged with the end effector and configured to selectively perform a first end effector function and a second end effector function that is different than the first end effector function; a lock member operably engaged with the rotary drive member, wherein the lock member is movable between a first position where the end effector is locked to the shaft and a second position where the end effector is unlocked from the shaft, wherein the rotary drive member is configured to perform the first end effector function when the lock member is in the first position, and wherein the rotary drive member is configured to perform the second end effector function when the lock member is in the second position.
A work vehicle , comprising: an articulated vehicle chassis including a front frame portion and a rear frame portion pivotally coupled together at a generally vertical pivot axis , the front frame portion carrying a front axle and the rear frame portion carrying a rear axle ; a steering system including at least one steering cylinder connected between the front frame portion and the rear frame portion ; a power plant providing motive power to the work vehicle ; a transmission receiving power from the power plant and providing power to each of the front axle and the rear axle ; a clutch interconnected between the transmission and the rear axle ; wherein the steering system is configured to disengage the clutch to provide the work vehicle with reactive steering, whereby the front frame portion tows the rear frame portion and the rear frame portion is generally free to pivot relative to the front frame portion about the pivot axis ; the work vehicle being characterized by including a steering valve which is fluidly coupled with the at least one steering cylinder and has a selective reactive steering mode and non-reactive steering mode. an articulated vehicle chassis including a front frame portion and a rear frame portion pivotally coupled together at a generally vertical pivot axis , the front frame portion carrying a front axle and the rear frame portion carrying a rear axle ; a steering system including at least one steering cylinder connected between the front frame portion and the rear frame portion ; a power plant providing motive power to the work vehicle ; a transmission receiving power from the power plant and providing power to each of the front axle and the rear axle ; a clutch interconnected between the transmission and the rear axle ; wherein the steering system is configured to disengage the clutch to provide the work vehicle with reactive steering, whereby the front frame portion tows the rear frame portion and the rear frame portion is generally free to pivot relative to the front frame portion about the pivot axis ;
A non-addressable alarm notification device comprising: current control circuitry arranged to adaptively draw current from a supply line ; an output device that is selectively activatable to draw power from the current control circuitry to generate an alert signal; and an controller configured to: obtain an input indicative of voltage on the supply line; compare the input indicative of voltage on the supply line to a predetermined threshold; and enter an under voltage prevention mode if a result of the comparison indicates that the voltage on the supply line falls below the threshold, wherein, in the under voltage prevention mode, the current drawn by the current control circuitry is clamped. current control circuitry arranged to adaptively draw current from a supply line ; an output device that is selectively activatable to draw power from the current control circuitry to generate an alert signal; and an controller configured to: obtain an input indicative of voltage on the supply line; compare the input indicative of voltage on the supply line to a predetermined threshold; and enter an under voltage prevention mode if a result of the comparison indicates that the voltage on the supply line falls below the threshold, obtain an input indicative of voltage on the supply line; compare the input indicative of voltage on the supply line to a predetermined threshold; and enter an under voltage prevention mode if a result of the comparison indicates that the voltage on the supply line falls below the threshold, wherein, in the under voltage prevention mode, the current drawn by the current control circuitry is clamped.
A method (100; 200) for radar signal processing resource allocation, the method comprising: - receiving (S10; S210) streaming radar signal data, - at a first computational resource, processing the streaming radar signal data and determining (S20; S220) a first data subset of the streaming radar signal data based on a selection criterion, the selection criterion having a contextual relationship with a radar detection scenario, - determining (S25; S225) a second data subset of the received streaming radar signal data based on the first data subset and the contextual relationship, - at a second computational resource, analysing (S30; S230) the second data subset using an algorithm based on the contextual relationship, - wherein the first data subset is determined based on an algorithm arranged to require less computational resources than the algorithm used to analyse the second data subset, - forming (S40; S240) aggregated signal data based on the processed streaming radar signal data and the analysed second data subset, and - outputting (S50; S250) data comprising information arranged to provide a graphical representation of an object on a radar screen and/or information relating to properties of an object detected by radar based on the aggregated signal data. - receiving (S10; S210) streaming radar signal data, - at a first computational resource, processing the streaming radar signal data and determining (S20; S220) a first data subset of the streaming radar signal data based on a selection criterion, the selection criterion having a contextual relationship with a radar detection scenario, - determining (S25; S225) a second data subset of the received streaming radar signal data based on the first data subset and the contextual relationship, - at a second computational resource, analysing (S30; S230) the second data subset using an algorithm based on the contextual relationship, - wherein the first data subset is determined based on an algorithm arranged to require less computational resources than the algorithm used to analyse the second data subset, - forming (S40; S240) aggregated signal data based on the processed streaming radar signal data and the analysed second data subset, and - outputting (S50; S250) data comprising information arranged to provide a graphical representation of an object on a radar screen and/or information relating to properties of an object detected by radar based on the aggregated signal data.
A decorative molding sheet comprising: an artificial leather substrate that includes a non-woven fabric containing ultrafine fibers with an average fineness of 0.001 to 1 dtex and an elastic polymer applied in the non-woven fabric, and that has a leather-like finished surface; and a resin layer that is formed on a back surface of the artificial leather substrate relative to the leather-like finished surface, and that contains a vinyl chloride-vinyl acetate copolymer. an artificial leather substrate that includes a non-woven fabric containing ultrafine fibers with an average fineness of 0.001 to 1 dtex and an elastic polymer applied in the non-woven fabric, and that has a leather-like finished surface; and a resin layer that is formed on a back surface of the artificial leather substrate relative to the leather-like finished surface, and that contains a vinyl chloride-vinyl acetate copolymer.
A method for a second Base Station, BS, to transmit a discovery signal, DS, in a mobile communication system that includes a first BS , to which a component carrier, CC, of a predetermined frequency band is assigned, and at least one second BS to which N CCs are assigned, and wherein a frequency band of the NCCs is different from a frequency band of the CC assigned to the first BS , the method comprising: transmitting , to the first BS , a first message indicating that the second BS enters a dormant mode; receiving , from the first BS , a second message including a dormant BS index of the second BS ; generating the DS corresponding to the dormant BS index of the second BS ; transmitting the generated DS through a discovery channel, DCH, that is formed of transmission resources of the first BS ; receiving , from the first BS , a third message instructing the second BS to enter an active mode; entering the active mode in response to receiving the third message; and transmitting , to the first BS , a fourth message including the dormant BS index and CC information indicating a CC selected by the second BS . transmitting , to the first BS , a first message indicating that the second BS enters a dormant mode; receiving , from the first BS , a second message including a dormant BS index of the second BS ; generating the DS corresponding to the dormant BS index of the second BS ; transmitting the generated DS through a discovery channel, DCH, that is formed of transmission resources of the first BS ; receiving , from the first BS , a third message instructing the second BS to enter an active mode; entering the active mode in response to receiving the third message; and transmitting , to the first BS , a fourth message including the dormant BS index and CC information indicating a CC selected by the second BS .
An airfoil for use in a gas turbine engine, the airfoil having a first side and a second side that are separated by a leading edge , the leading edge passing through a stagnation point of the airfoil , the airfoil comprising: a cover sheet ; and a spar having an outer surface, the spar comprising a plurality of standoffs configured to receive the cover sheet , wherein two of the standoffs define a cooling channel that extends across the leading edge on the outer surface of the spar , from a first side of the spar to a second side of the spar, the cooling channel having a first portion defined by the two of the standoffs and a second portion defined by the two of the standoffs , the first portion offset from the second portion in a spanwise direction, wherein the cooling channel continuously curves in the spanwise direction from the first side of the airfoil to the second side of the airfoil, the spar further comprising an inlet on the first side, the inlet configured to convey a cooling fluid from a passageway located inside of the spar to the cooling channel , wherein the cooling channel is configured to convey the cooling fluid from the inlet , across the leading edge , and toward an outlet on the second side, wherein the outlet is at least partially defined by the cover sheet . a cover sheet ; and a spar having an outer surface, the spar comprising a plurality of standoffs configured to receive the cover sheet , wherein two of the standoffs define a cooling channel that extends across the leading edge on the outer surface of the spar , from a first side of the spar to a second side of the spar, the cooling channel having a first portion defined by the two of the standoffs and a second portion defined by the two of the standoffs , the first portion offset from the second portion in a spanwise direction, wherein the cooling channel continuously curves in the spanwise direction from the first side of the airfoil to the second side of the airfoil, the spar further comprising an inlet on the first side, the inlet configured to convey a cooling fluid from a passageway located inside of the spar to the cooling channel , wherein the cooling channel is configured to convey the cooling fluid from the inlet , across the leading edge , and toward an outlet on the second side, wherein the outlet is at least partially defined by the cover sheet .