mhurhangee/patent-ind-claim-en huggingface dataset:
Magnetic-inductive flowmeter for measuring the flow of a flowing medium, having a measuring tube , having a magnetic field generator for generating a magnetic field at least partially interfusing the measuring tube , and having at least one measuring electrode for tapping a measuring voltage induced in the flowing medium, characterized in that the measuring electrode consists of an outer electrode sheath of electrically non-conductive plastic and of an inner electrode core of electrically conductive plastic, wherein the electrode sheath is produced in a first process step and the electrode core is produced within in the electrode sheath in a second process step following the first process step.
A process for preparing -9,11-hexadecadienal of the following formula : the process comprising: subjecting -2-heptenal of the following formula : to a Wittig reaction with a triarylphosphonium 9,9-dialkoxynonylide compound of the following general formula : Ar 3 P + C - H(CH 2 ) 7 CH(OR 1 )(OR 2 ) wherein Ar represents an aryl group that may be same with or different from each other, and R 1 and R 2 represent, independently of each other, a monovalent hydrocarbon group having 1 to 15 carbon atoms, or R 1 and R 2 may form together a divalent hydrocarbon group, R 1 -R 2 , having 2 to 10 carbon atoms to form a -16,16-dialkoxy-5,7-hexadecadiene compound of the following general formula : wherein R 1 and R 2 are as defined above; and hydrolyzing the -16,16-dialkoxy-5,7-hexadecadiene compound to form -9,11-hexadecadienal . the process comprising: subjecting -2-heptenal of the following formula : to a Wittig reaction with a triarylphosphonium 9,9-dialkoxynonylide compound of the following general formula : Ar 3 P + C - H(CH 2 ) 7 CH(OR 1 )(OR 2 ) wherein Ar represents an aryl group that may be same with or different from each other, and R 1 and R 2 represent, independently of each other, a monovalent hydrocarbon group having 1 to 15 carbon atoms, or R 1 and R 2 may form together a divalent hydrocarbon group, R 1 -R 2 , having 2 to 10 carbon atoms to form a -16,16-dialkoxy-5,7-hexadecadiene compound of the following general formula : wherein R 1 and R 2 are as defined above; and hydrolyzing the -16,16-dialkoxy-5,7-hexadecadiene compound to form -9,11-hexadecadienal .
A method of sealing a nozzle guide vane to a housing for flow checking the nozzle guide vane within the housing, the method comprising: placing the nozzle guide vane into the housing ; applying a thermoplastic material in a molten phase into a gap between the nozzle guide vane and the housing; and cooling the thermoplastic material to set the thermoplastic material and form a seal between the nozzle guide vane and the housing. placing the nozzle guide vane into the housing ; applying a thermoplastic material in a molten phase into a gap between the nozzle guide vane and the housing; and cooling the thermoplastic material to set the thermoplastic material and form a seal between the nozzle guide vane and the housing.
An elevator car lining panel (81-90) configured to be attached to at least one structural panel (41-49) of an elevator car , wherein the elevator car lining panel (81-90) comprises at least one first connection portion , which is configured for connecting with at least one corresponding second connection portion of an adjacent elevator car lining panel (81-90) in order to fix two adjacent elevator car lining panels (81-90) with each other; and characterized in that the at least one first connection portion comprises a fixing structure allowing to fix the elevator car lining panel (81-90) to an adjacent structural panel (41-49) of the elevator car .
A method for manufacturing a secondary battery, the method comprising: a formation step of charging an assembled secondary battery to state of charge(SOC) 45% to 65%; an aging step of aging the formed secondary battery; and a low voltage test step of measuring a change in a voltage value, wherein in the low voltage test step, the voltage value is measured in a section of SOC 30% or less. a formation step of charging an assembled secondary battery to state of charge(SOC) 45% to 65%; an aging step of aging the formed secondary battery; and a low voltage test step of measuring a change in a voltage value, wherein in the low voltage test step, the voltage value is measured in a section of SOC 30% or less.
A radio frequency transmission arrangement comprising a ground plate having first and second opposite sides and a projection protruding from said second side of the ground plate , a first signal track provided on the first side of the ground plate , a first transmission line comprising a first elongate conductor passing from the first side of the ground plate through an aperture in the ground plate and the projection, and a second transmission line comprising a second signal track and a ground plane , the projection protruding towards the ground plane , the first elongate conductor being connected to the first signal track and passing through the ground plane to connect to the second signal track , wherein the projection has an end surface disposed in a substantially parallel relationship with the ground plane of the second transmission line, and there is a gap between the end surface of the projection and the ground plane .
A transport mechanism that is disposed in a measuring device used for dispensing biological samples from sample containers configured to contain the biological samples to cuvettes, so as to perform a predetermined measurement, and transports a sample rack configured to hold the sample containers, the transport mechanism comprising: a table on which the sample rack is provided in plurality and sequentially placed; a container sensor unit configured to identify the sample containers held on the sample rack ; and a transport device configured to transport the sample rack holding the sample containers identified by the container sensor unit by moving the sample rack to a dispensing position at which the biological samples are dispensed, wherein the container sensor unit is connected to the transport device , wherein the transport device and the container sensor unit move in tandem as one unit, and the transport device transports a preceding sample rack while the container sensor unit identifies the sample containers held on a subsequent sample rack . a table on which the sample rack is provided in plurality and sequentially placed; a container sensor unit configured to identify the sample containers held on the sample rack ; and a transport device configured to transport the sample rack holding the sample containers identified by the container sensor unit by moving the sample rack to a dispensing position at which the biological samples are dispensed, wherein the container sensor unit is connected to the transport device , wherein the transport device and the container sensor unit move in tandem as one unit, and the transport device transports a preceding sample rack while the container sensor unit identifies the sample containers held on a subsequent sample rack .
A photocurable sealant composition comprising: (A) a liquid rubber, being in a liquid state at 23°C; (B) a (meth)acryloyl group-containing compound; (C) an aromatic sensitization aid capable of absorbing light having a wavelength of 300 nm or higher; and (D) a photopolymerization initiator, wherein the component (D) comprises two or more photopolymerization initiators differing in absorption wavelength; wherein the component (A) is a liquid polymer having a cyclic olefin structure or a liquid saturated elastomer; and wherein the liquid saturated elastomer is at least one member selected from the group consisting of hydrogenated polybutadiene, hydrogenated polyisoprene, a hydrogenated butadiene-isoprene copolymer and polyisobutylene. (A) a liquid rubber, being in a liquid state at 23°C; (B) a (meth)acryloyl group-containing compound; (C) an aromatic sensitization aid capable of absorbing light having a wavelength of 300 nm or higher; and (D) a photopolymerization initiator, wherein the component (D) comprises two or more photopolymerization initiators differing in absorption wavelength; wherein the component (A) is a liquid polymer having a cyclic olefin structure or a liquid saturated elastomer; and wherein the liquid saturated elastomer is at least one member selected from the group consisting of hydrogenated polybutadiene, hydrogenated polyisoprene, a hydrogenated butadiene-isoprene copolymer and polyisobutylene. wherein the component (D) comprises two or more photopolymerization initiators differing in absorption wavelength; wherein the component (A) is a liquid polymer having a cyclic olefin structure or a liquid saturated elastomer; and wherein the liquid saturated elastomer is at least one member selected from the group consisting of hydrogenated polybutadiene, hydrogenated polyisoprene, a hydrogenated butadiene-isoprene copolymer and polyisobutylene.
A method comprising: receiving , by a system including an image capture device and a processor , data including an image of an input object captured by the image capture device , the input object having a first retroreflective pattern and a second, different retroreflective pattern on a surface of the input object , wherein the data captured by the image capture device further includes depth information , and wherein the system determines a position of the input object in three dimensions based on the received data characterized by : processing the image to a processed image that highlights the input object ; converting the depth information to a depth image which highlights the input object ; combining the processed image and the depth image to produce an output image ; and determining said position of the input object using the output image . receiving , by a system including an image capture device and a processor , data including an image of an input object captured by the image capture device , the input object having a first retroreflective pattern and a second, different retroreflective pattern on a surface of the input object , wherein the data captured by the image capture device further includes depth information , and wherein the system determines a position of the input object in three dimensions based on the received data characterized by : processing the image to a processed image that highlights the input object ; converting the depth information to a depth image which highlights the input object ; combining the processed image and the depth image to produce an output image ; and determining said position of the input object using the output image . processing the image to a processed image that highlights the input object ; converting the depth information to a depth image which highlights the input object ; combining the processed image and the depth image to produce an output image ; and determining said position of the input object using the output image .
A conjugate for use in a vaccine, said conjugate comprising a fragmented Vi polysaccharide and a carrier protein selected from CRM 197 or diphtheria toxoid, wherein the fragmented polysaccharide has an average molecular weight of between 40 and 55 kDa.
Method for the synchronised channelling of piece goods items (30.1, 30.2) onto a respective receptacle of a sorting conveyor , wherein the sorting conveyor has conveyor units with, in each case, at least one receptacle for piece goods items (30.1, 30.2) which run past a synchronisation conveyor system at a predetermined speed of conveyance, wherein the synchronisation conveyor system has a synchronisation conveyor , a channelling conveyor adjoining the synchronisation conveyor , and means for detecting a piece goods item (30.1, 30.2) that is to be channelled on the synchronisation conveyor system , and wherein whenever an error status of a piece goods item (30.1) on the synchronisation conveyor system is detected, the conveyor, synchronisation conveyor or channelling conveyor on which the piece goods item is located is halted and then the conveyor on which the piece goods item is located is reversed for a specific distance that is controlled via a distance-tracking system, characterised in that the reverse movement over a specific distance is controlled independently of time, i.e. exclusively via the tracking of the distance covered by the conveyor and/or piece goods item, until the piece goods item (30.1) that has been detected as being faulty is located in a predetermined starting in position that is predetermined individually for each individually occurring error event, and the synchronisation conveyor and the channelling conveyor are moved forwards in order to channel the piece goods item (30.1) to a specific receptacle of the sorting conveyor , wherein the specific distance is controlled via distance-based pulses from an incremental encoder (24.2) of the synchronisation conveyor and/or via distance-based pulses from an incremental encoder of the channelling conveyor 18) and/or via distance-based pulses from an incremental encoder (24.1) of a feed conveyor upstream of the synchronisation conveyor .
A negative electrode for a lithium-ion secondary battery, having the following cross-sectional configuration, wherein: the cross-sectional configuration comprises a negative electrode current collector, a plurality of first layers, and a second layer; each of the first layers comprises a first negative electrode active material and a first conductive material; the first negative electrode active material comprises at least one of elemental silicon, a silicon alloy, and a silicon oxide; the second layer comprises a second negative electrode active material; the second negative electrode active material comprises graphite; the second layer does not comprise silicon; in the cross-sectional configuration, a surface of one side of the negative electrode current collector has a plurality of first regions and a second region between the first regions; in the cross-sectional configuration, the first layers are in contact with the respective first regions; and in the cross-sectional configuration, the second layer is in contact with both the second region and surfaces of one side of the first layers. the cross-sectional configuration comprises a negative electrode current collector, a plurality of first layers, and a second layer; each of the first layers comprises a first negative electrode active material and a first conductive material; the first negative electrode active material comprises at least one of elemental silicon, a silicon alloy, and a silicon oxide; the second layer comprises a second negative electrode active material; the second negative electrode active material comprises graphite; the second layer does not comprise silicon; each of the first layers comprises a first negative electrode active material and a first conductive material; the first negative electrode active material comprises at least one of elemental silicon, a silicon alloy, and a silicon oxide; the second layer comprises a second negative electrode active material; the second negative electrode active material comprises graphite; the second layer does not comprise silicon; in the cross-sectional configuration, a surface of one side of the negative electrode current collector has a plurality of first regions and a second region between the first regions; in the cross-sectional configuration, the first layers are in contact with the respective first regions; and in the cross-sectional configuration, the second layer is in contact with both the second region and surfaces of one side of the first layers.
A vehicular lamp comprising: an optical system including an LED serving as a light source and an inner lens for performing light distribution control of light emitted from the LED , the vehicular lamp being characterized in that the LED is composed of a plurality of types of LEDs having different emission colors, the inner lens is composed of an even number of lenses which have the same shape and size and are formed of the same material, and which are integrally formed side by side in a lateral direction, in a front view of the optical system , the LEDs of different emission colors from each other are positioned at respective line symmetric positions with a symmetric axis (Y 10 , Y 20 ) being a bisector of each of the even-numbered lenses constituting the inner lens in the lateral direction, and the LEDs (3a, 3b, and 4a, 4b) of the same emission color are positioned at respective symmetric positions with a symmetry axis (Y) being a bisector of the inner lens in the lateral direction. the LED is composed of a plurality of types of LEDs having different emission colors, the inner lens is composed of an even number of lenses which have the same shape and size and are formed of the same material, and which are integrally formed side by side in a lateral direction, in a front view of the optical system , the LEDs of different emission colors from each other are positioned at respective line symmetric positions with a symmetric axis (Y 10 , Y 20 ) being a bisector of each of the even-numbered lenses constituting the inner lens in the lateral direction, and the LEDs (3a, 3b, and 4a, 4b) of the same emission color are positioned at respective symmetric positions with a symmetry axis (Y) being a bisector of the inner lens in the lateral direction.
A method of measuring at least one geometrico-physionomic parameter (H, TETA) concerning the positioning on the face of a wearer of a frame for vision-correcting eyeglasses, the method comprising capturing at least one digital image of the wearer's face wearing the frame by means of an image sensor of an image capture appliance , and processing the captured image to determine the geometrico-physionomic parameter (H, TETA), the method being characterized in that : - the image capture appliance being of the portable type held in the hand by an operator, one delivers information to the operator for compensating the tilt angle (ALPHA) formed between an optical axis (AO) of the image capture appliance and its projection onto a horizontal plane (PF) and prior to capturing an image, the operator manually positions the image capture appliance in a first configuration in which a line of observation (DO) connecting the pupil of the image capture appliance to a predetermined remarkable point (RC) directly or indirectly associated with the wearer's face or with the frame is substantially horizontal; - the image is captured in a second configuration of the image capture appliance identical to or distinct from the first configuration, such that the altitude of said image capture appliance is identical to its altitude in the first configuration; and - the calculation of the geometrico-physionomic parameter (H, TETA) includes identifying, in this image, the image of the predetermined remarkable point (RC). - the image capture appliance being of the portable type held in the hand by an operator, one delivers information to the operator for compensating the tilt angle (ALPHA) formed between an optical axis (AO) of the image capture appliance and its projection onto a horizontal plane (PF) and prior to capturing an image, the operator manually positions the image capture appliance in a first configuration in which a line of observation (DO) connecting the pupil of the image capture appliance to a predetermined remarkable point (RC) directly or indirectly associated with the wearer's face or with the frame is substantially horizontal; - the image is captured in a second configuration of the image capture appliance identical to or distinct from the first configuration, such that the altitude of said image capture appliance is identical to its altitude in the first configuration; and - the calculation of the geometrico-physionomic parameter (H, TETA) includes identifying, in this image, the image of the predetermined remarkable point (RC).
A composition for use in a method of treating a subject with cancer comprising administering to the subject an effective amount of an isolated microRNA (miRNA) nucleic acid comprising an miR-30-5p nucleic acid, or a miR-30-5p mimic or mimetic nucleic acid, wherein the mimic or mimetic nucleic acid comprises one or more modified nucleic acids, a 5'-end modification, and/or a 3'-end modification, wherein the mimic or mimetic nucleic acid comprises one or more of 2'-O-methyl-, 2'-methoxyethoxy-, 2'-dimethylaminooxyethoxy-, 2'-aminopropoxy-, and 2'-fluoro-modified nucleotides, and/or wherein the mimic or mimetic nucleic acid comprises a 5'-amino C3 modification, a 5'-amino C6 modification, or a 5'-amino C12 modification, or an expression vector comprising the miR-30-5p nucleic acid or the miR-30-5p mimic or mimetic nucleic acid, thereby treating the subject with cancer, wherein the cancer comprises head and neck squamous cell carcinoma or cervical squamous cell carcinoma.
A device for producing and treating a gas stream (F), said device including an enclosure , of which the lower part is submerged in a liquid (L) supply and includes at least one liquid intake opening , which makes it possible to place the lower part of the enclosure in communication with the liquid supply, such that the submerged lower part of the enclosure contains a volume (V) of this liquid, and on the one hand which includes at least one opening for discharging a gas stream, positioned above the surface (S) of the volume (V) of liquid contained in the enclosure, the device further including means for producing and injecting a gas stream (F) including at least one injection conduit , of which a lower part is submerged in the volume (V) of liquid contained in the submerged lower part of the enclosure, and extends in the upper part inside the enclosure outside said volume (V) of liquid, said injection conduit including, in its submerged lower part, at least one discharge opening positioned below the surface (S) of said volume (V) of liquid, said means for producing and injecting a gas stream (F) make it possible, during operation, to create and introduce an incoming gas stream (F), coming from outside the enclosure , in the non-submerged part of the injection conduit , such that said incoming gas stream (F) passes through the discharge opening of the submerged lower part of the injection conduit , and is introduced into said volume (V) of liquid contained in the submerged lower part of the enclosure, below the surface (S) of said volume (V) of liquid, and such that an outgoing gas stream (F'), treated by direct contact with said volume (V) of liquid, rises inside the enclosure outside the injection conduit and is discharged outside said enclosure , passing through the discharge opening of the enclosure characterized in that the submersion depth (H1) of the injection conduit is comprised between 20 mm and 200 mm and in that said means for producing and injecting a gas stream (F) make it possible, during operation, to create and introduce said incoming gas stream (F), with a flow rate of at least 1000m 3 /h and without modifying the outside pressure above the liquid (L) of the supply outside the enclosure .
Method for providing a bio-active layer on a surface, comprising the steps of: a) ionizing a plasma gas at low temperature of 150°C or lower, and at atmospheric pressure, thereby creating a plasma; b) introducing a precursor into said plasma; c) exposing the surface to said plasma comprising said precursor, thereby forming a coating onto said surface, characterised in that the precursor comprises a biological pathogen transfer inhibiting compound which is a virucidal compound, wherein the precursor is citric acid. a) ionizing a plasma gas at low temperature of 150°C or lower, and at atmospheric pressure, thereby creating a plasma; b) introducing a precursor into said plasma; c) exposing the surface to said plasma comprising said precursor, thereby forming a coating onto said surface,