mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing complex geometric structures from a plurality of moulded parts , having the steps: lay-up of the moulded parts , wherein at least one moulded part is created from a plurality of plies of unidirectional tapes made of long-fibre-reinforced thermoplastics; preparation of the moulded parts for shaping; wherein, prior to the preparation of the moulded parts for shaping, at least one of the moulded parts is trimmed or tailored to a final shape or a near-final shape, wherein, prior to the preparation of the moulded parts for shaping, at least the one moulded part made of long-fibre-reinforced thermoplastics is subjected to consolidation; and shaping of the prepared moulded parts . lay-up of the moulded parts , wherein at least one moulded part is created from a plurality of plies of unidirectional tapes made of long-fibre-reinforced thermoplastics; preparation of the moulded parts for shaping; wherein, prior to the preparation of the moulded parts for shaping, at least one of the moulded parts is trimmed or tailored to a final shape or a near-final shape, wherein, prior to the preparation of the moulded parts for shaping, at least the one moulded part made of long-fibre-reinforced thermoplastics is subjected to consolidation; and shaping of the prepared moulded parts .
A photochromic material comprising: a photochromic dye which exhibits a reduction in light transmission responsive to being exposed to ultraviolet light, up-conversion nanoparticles for absorbing visible light or near infrared light and re- emitting ultraviolet light to be directed to the photochromic dye to reduce the transparency of the photochromic material, and a matrix material for hosting the up-conversion nanoparticles and the photochromic dye. a photochromic dye which exhibits a reduction in light transmission responsive to being exposed to ultraviolet light, up-conversion nanoparticles for absorbing visible light or near infrared light and re- emitting ultraviolet light to be directed to the photochromic dye to reduce the transparency of the photochromic material, and a matrix material for hosting the up-conversion nanoparticles and the photochromic dye.
An aqueous foaming composition comprising at least one betaine, at least one anionic surfactant, at least one dialkyl carbonate, at least one fatty alcohol with a linear or branched, saturated or unsaturated alkyl chain containing at least 4 carbon atoms, and at least one fatty acid ester with a linear or branched, saturated or unsaturated alkyl chain containing at least 4 carbon atoms.
Process for the production of a starch betainate comprising the following steps: a) esterification of betaine hydrochloride by the addition of an equimolar amount of thionyl chloride to methanol followed by the addition of betaine hydrochloride until a solution of methyl betainate chloride is produced; b) reflux of the methyl betainate chloride solution obtained in step a) followed by evaporation of methanol, trituration with an ethyl ether, vacuum drying and washing with an ethyl ether until the yellow color disappears and storage under vacuum of the methyl betainate chloride solid obtained; c) transesterification of a starch with the betainate chloride obtained in step b) in solution with an aprotic solvent or in a dry medium; d) removal of unreacted methyl betainate by dissolving the product resulting from step c) in distilled water, with stirring and heating, and reprecipitating in ethanol. a) esterification of betaine hydrochloride by the addition of an equimolar amount of thionyl chloride to methanol followed by the addition of betaine hydrochloride until a solution of methyl betainate chloride is produced; b) reflux of the methyl betainate chloride solution obtained in step a) followed by evaporation of methanol, trituration with an ethyl ether, vacuum drying and washing with an ethyl ether until the yellow color disappears and storage under vacuum of the methyl betainate chloride solid obtained; c) transesterification of a starch with the betainate chloride obtained in step b) in solution with an aprotic solvent or in a dry medium; d) removal of unreacted methyl betainate by dissolving the product resulting from step c) in distilled water, with stirring and heating, and reprecipitating in ethanol.
Liquid mixture constituted of 4-(3-ethoxy-4-hydroxyphenyl)butan-2-one and of xanthine compound (I): wherein: R1, R2 and R3, independently of one another, denote a hydrogen atom or a methyl or ethyl radical.
A needle tip storage and removal device comprising a storage compartment for receiving in use an unused needle tip of a given drive configuration comprising a cylindrical skirt, the device further including adjacent the storage compartment, a removal compartment for receiving in use a used needle tip of said given configuration, wherein each of the storage and removal compartments comprises walls defining a generally cylindrical socket for receiving the skirt of the needle tip , and extending away therefrom an elongate narrower passage to receive the needle of the needle tip, with the storage compartment and the removal compartment being oppositely directed, and wherein the respective passages lie alongside each other and project towards the socket of the other compartment; characterised in that said respective passages are inversely aligned such that the leading end of one passage is level with the trailing end of the other passage .
Exhaust gas line having a flow channel with a channel wall and a channel interior for discharging a particle-containing exhaust gas (P) from a power generation plant , characterized in that it comprises at least one particle rejection means , which is formed as a thermally induced movement element which deforms during a temperature change and at least partly prevents deposition of particles of the exhaust gas (P) on the channel wall and/or at least partly detaches adhering particles (S) from the channel wall , wherein the movement element is at least partly formed helically in the manner of a spiral spring .
A conductive paste comprising: a silver-coated resin; and an organic vehicle that includes a thermosetting resin composition, a curing agent, and a solvent, wherein the silver-coated resin is a silver-coated spherical resin having a surface coated with silver, the thermosetting resin composition is an epoxy resin composition which is solid at room temperature and has a melt viscosity of 0.5 Pa·s or lower at 150°C, a mass ratio of a content of the thermosetting resin composition to a content of the silver-coated resin is 20 to 30:70 to 85, an aspect ratio of the silver-coated resin is 0.9 to 1.1, and a resin material constituting the silver-coated resin having a surface coated with silver is one resin or two resins selected from a group consisting of silicone and polytetrafluoroethylene a silver-coated resin; and an organic vehicle that includes a thermosetting resin composition, a curing agent, and a solvent, wherein the silver-coated resin is a silver-coated spherical resin having a surface coated with silver, the thermosetting resin composition is an epoxy resin composition which is solid at room temperature and has a melt viscosity of 0.5 Pa·s or lower at 150°C, a mass ratio of a content of the thermosetting resin composition to a content of the silver-coated resin is 20 to 30:70 to 85, an aspect ratio of the silver-coated resin is 0.9 to 1.1, and a resin material constituting the silver-coated resin having a surface coated with silver is one resin or two resins selected from a group consisting of silicone and polytetrafluoroethylene
An adaptor assembly for coupling a blade root of a turbine blade to a root slot of a rotor disk , the adaptor assembly comprising: an adaptor body including a forward face , a retaining wall and first and second sides extending between said forward face and said retaining wall, said adaptor body further including a root configured to be received within the root slot and defining a slot between said first and second sides that extends from said forward face to said retaining wall , said slot having an open end at said forward face configured to receive the blade root , said adaptor body further defining a channel extending both forward and aft of said forward face of said adapter body ; and a plate including an outwardly extending foot , said foot being configured to be received within said channel , wherein said plate covers at least a portion of said open end when said foot is received within said channel . an adaptor body including a forward face , a retaining wall and first and second sides extending between said forward face and said retaining wall, said adaptor body further including a root configured to be received within the root slot and defining a slot between said first and second sides that extends from said forward face to said retaining wall , said slot having an open end at said forward face configured to receive the blade root , said adaptor body further defining a channel extending both forward and aft of said forward face of said adapter body ; and a plate including an outwardly extending foot , said foot being configured to be received within said channel , wherein said plate covers at least a portion of said open end when said foot is received within said channel .
Power tool , in particular reciprocating saw, having an output spindle that moves back and forth and a drive motor , which are coupled to one another via a transmission , wherein a longitudinal side of the output spindle and a longitudinal side of the drive motor extend along side one another such that the drive motor is arranged next to the output spindle , characterized in that the output spindle is mounted in a front plain bearing arranged above the drive motor and a plain bearing arranged in a housing , wherein the front plain bearing is supported via a spring .
A method for training an image segmentation model, performed by a computer device, the method comprising: training an initial image segmentation model by using source domain samples, to obtain a pre-trained image segmentation model, the source domain samples comprising a source domain image to be trained and a standard segmentation result of the source domain image; extracting , by using the pre-trained image segmentation model, a predicted segmentation result of the source domain image and a predicted segmentation result of a target domain image to be tested; training a first discriminator by using the predicted segmentation result of the source domain image and the predicted segmentation result of the target domain image, the first discriminator being used for discriminating whether an inputted segmentation result is from a source domain or a target domain; training a second discriminator by using the predicted segmentation result of the source domain image and the standard segmentation result of the source domain image, the second discriminator being used for discriminating whether an inputted segmentation result is the predicted segmentation result or the standard segmentation result; and iteratively training the pre-trained image segmentation model according to a loss function of the pre-trained image segmentation model, an adversarial loss function of the first discriminator, and an adversarial loss function of the second discriminator, until convergence, to obtain a trained image segmentation model. training an initial image segmentation model by using source domain samples, to obtain a pre-trained image segmentation model, the source domain samples comprising a source domain image to be trained and a standard segmentation result of the source domain image; extracting , by using the pre-trained image segmentation model, a predicted segmentation result of the source domain image and a predicted segmentation result of a target domain image to be tested; training a first discriminator by using the predicted segmentation result of the source domain image and the predicted segmentation result of the target domain image, the first discriminator being used for discriminating whether an inputted segmentation result is from a source domain or a target domain; training a second discriminator by using the predicted segmentation result of the source domain image and the standard segmentation result of the source domain image, the second discriminator being used for discriminating whether an inputted segmentation result is the predicted segmentation result or the standard segmentation result; and iteratively training the pre-trained image segmentation model according to a loss function of the pre-trained image segmentation model, an adversarial loss function of the first discriminator, and an adversarial loss function of the second discriminator, until convergence, to obtain a trained image segmentation model.
Milking system with a teatcup liner with a teatcup liner head , that has a teat admission , and with an outlet opening, that is arranged opposite to the teat admission via a shaft, wherein at least in direct proximity to the teatcup liner head the teatcup liner has at least one further opening for the flow of a fluid, characterized in that a mean value of the milking vacuum is at least in a range between about 20 kPa and about 45 kPa variably adjustable.
An asphalt composition, comprising: an asphalt having a T10 boiling point of at least 900°F (482°C); and from 0.25 wt% to 2.0 wt% of a cracking resistance additive, the cracking resistance additive comprising at least one of a polyalphaolefin, an alkylated aromatic based on an aromatic having two or more fused aromatic rings and an average alkyl chain length of at least 10 carbons, and an organic ester, the boiling point of the cracking resistance additive being at least 140°C.
A catheter, comprising an elongate shaft (107; 134; 154; 389; 495; 702; 780) including a proximal end and a distal end, the elongate shaft defining a shaft longitudinal axis, a coupler (324; 364; 462; 560; 720; 760; 802) disposed within the distal end of the elongate shaft, the coupler defining a first sensor groove (330-1; 450-1; 480-1; 732-1; 768-1; 806-1; 884-1) and a second sensor groove (330-2; 450-2; 732-2; 768-2; 884-2) in an exterior surface of the coupler and a coupler longitudinal axis, a first five degree of freedom magnetic position sensor (328-1; 382-1; 499-1; 714-1; 801-1) disposed in the first sensor groove and a second five degree of freedom magnetic position sensor (328-2; 382-2; 499-2; 714-2) disposed in the second sensor groove, the first five degree of freedom magnetic position sensor defining a first sensor longitudinal axis and the second five degree of freedom magnetic position sensor defining a second sensor longitudinal axis, and a flexible tip portion (110; 122; 156; 202; 228; 248; 282; 322; 362; 491) located adjacent to the distal end of the catheter shaft, wherein the first sensor longitudinal axis and the second sensor longitudinal axis are divergent with respect to each other and the coupler longitudinal axis, and a first sensor magnetic axis and a second sensor magnetic axis are divergent with respect to each other and the coupler longitudinal axis such that the first five degree of freedom magnetic position sensor and second five degree of freedom magnetic position sensor form a six degree of freedom sensor assembly, and the coupler is configured to connect the flexible tip portion with the catheter shaft. a flexible tip portion (110; 122; 156; 202; 228; 248; 282; 322; 362; 491) located adjacent to the distal end of the catheter shaft, wherein the first sensor longitudinal axis and the second sensor longitudinal axis are divergent with respect to each other and the coupler longitudinal axis, and a first sensor magnetic axis and a second sensor magnetic axis are divergent with respect to each other and the coupler longitudinal axis such that the first five degree of freedom magnetic position sensor and second five degree of freedom magnetic position sensor form a six degree of freedom sensor assembly, and the coupler is configured to connect the flexible tip portion with the catheter shaft.
A control system , comprising: a control apparatus functioning as a master; and a plurality of slaves which are network-connected to the control apparatus, wherein the control apparatus comprises an identification information set means configured to execute a first instruction to set specified identification information to a specified slave, characterized in that : in response to whether the specified identification information is successfully written, the identification information set means is configured to output information indicating whether a reboot of the specified slave is required, and wherein each slave, among the plurality of slaves, comprises a nonvolatile memory configured to hold identification information , and a volatile memory configured to hold the identification information set to the slave, and the identification information set means further comprises a means configured to write the specified identification information to the nonvolatile memory and the volatile memory of the specified slave. a control apparatus functioning as a master; and a plurality of slaves which are network-connected to the control apparatus, wherein the control apparatus comprises an identification information set means configured to execute a first instruction to set specified identification information to a specified slave, characterized in that : in response to whether the specified identification information is successfully written, the identification information set means is configured to output information indicating whether a reboot of the specified slave is required, and wherein each slave, among the plurality of slaves, comprises a nonvolatile memory configured to hold identification information , and a volatile memory configured to hold the identification information set to the slave, and the identification information set means further comprises a means configured to write the specified identification information to the nonvolatile memory and the volatile memory of the specified slave. in response to whether the specified identification information is successfully written, the identification information set means is configured to output information indicating whether a reboot of the specified slave is required, and wherein each slave, among the plurality of slaves, comprises a nonvolatile memory configured to hold identification information , and a volatile memory configured to hold the identification information set to the slave, and the identification information set means further comprises a means configured to write the specified identification information to the nonvolatile memory and the volatile memory of the specified slave.
Thermal pattern sensor configured to measure a thermal pattern of an element arranged against the sensor and in direct thermal contact with the sensor, comprising a plurality of pixels , each pixel comprising at least one pyroelectric capacitance formed by at least one portion of pyroelectric material arranged between a lower electrode and an upper electrode , in which one of the lower and upper electrodes corresponds to an electrode for reading the pixel , characterized in that a heating element that can heat the portion of pyroelectric material of the pyroelectric capacitance of said pixel by Joule effect during a measurement of the thermal pattern by the pyroelectric capacitance of said pixel is formed by the other of the lower and upper electrodes, and in that it further comprises means for applying a constant heating voltage to the ends of said other of the lower and upper electrodes, thus creating a non-zero difference in electrical potentials between these ends.
Portion capsule for producing a beverage, with a basic element which has a cavity , in which a raw beverage material is provided, and said portion capsule has a peripheral region (2.4) which is provided on the basic element and the cavity is closed by a membrane which is fastened to the peripheral region (2.4) of the basic element, wherein said portion capsule has an identifier which makes it possible to individualize the respective portion capsule, consequently wherein the identifier is a barcode, wherein the basic element has, facing away from the bottom region, a flange for fastening the membrane to the basic element, wherein the basic element has a wall region and a bottom region, wherein the wall region extends between the flange and the bottom region, characterized in that a plurality of channels are introduced into the wall region, and in that the barcode is provided on that side of the peripheral region (2.4) of the basic element which faces away from the membrane.
A connection box for a gas tungsten arc weld (GTAW) training system , comprising: a remote control input device configured to receive a remote control signal from a remote control ; a remote control output device configured to provide the remote control signal to a welding-type power supply ; a torch connection device configured for electrical connection to a GTAW welding torch ; a switch configured to selectively couple the remote control input device to the remote control output device; and control circuitry configured to: provide a training signal representative of the remote control signal to a weld training controller ; in a live arc mode, control the switch to selectively couple the remote control input device to the remote control output device to enable communication of the remote control signal to the welding-type power supply; and in a simulation mode, control the switch to selectively decouple the remote control input device from the remote control output device to prevent communication of the remote control signal to the welding-type power supply; provide one or more torch output signals to the GTAW welding torch via the torch connection device . a remote control input device configured to receive a remote control signal from a remote control ; a remote control output device configured to provide the remote control signal to a welding-type power supply ; a torch connection device configured for electrical connection to a GTAW welding torch ; a switch configured to selectively couple the remote control input device to the remote control output device; and control circuitry configured to: provide a training signal representative of the remote control signal to a weld training controller ; in a live arc mode, control the switch to selectively couple the remote control input device to the remote control output device to enable communication of the remote control signal to the welding-type power supply; and in a simulation mode, control the switch to selectively decouple the remote control input device from the remote control output device to prevent communication of the remote control signal to the welding-type power supply; provide one or more torch output signals to the GTAW welding torch via the torch connection device . provide a training signal representative of the remote control signal to a weld training controller ; in a live arc mode, control the switch to selectively couple the remote control input device to the remote control output device to enable communication of the remote control signal to the welding-type power supply; and in a simulation mode, control the switch to selectively decouple the remote control input device from the remote control output device to prevent communication of the remote control signal to the welding-type power supply; provide one or more torch output signals to the GTAW welding torch via the torch connection device .