mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the additive manufacture of a three-dimensional object comprising or forming a cosmetic composition, the cosmetic composition comprising at least one cosmetic powder and at least one binder, the method comprising the following steps: (a) forming a plane powder layer comprising at least one cosmetic powder; (b) applying a powder binding activator and binding the powder in at least a first region of the powder layer ; (c) forming an additional plane powder layer comprising at least one cosmetic powder, the additional layer at least partially covering the previous layer ; (d) applying a powder binding activator and binding the powder in at least a second region of the additional powder layer ; (e) repeating steps (c) to (d) until the three-dimensional object is formed, wherein, after the three-dimensional object is formed, the cosmetic composition comprised in the three-dimensional object or forming the three-dimensional object is recoverable, in that at least a portion of the cosmetic composition comprised in the three-dimensional object or forming the three-dimensional object can be applied on a body surface of a user, the composition being capable of being at least partially detached from the three-dimensional object in order to remain on the body surface. (a) forming a plane powder layer comprising at least one cosmetic powder; (b) applying a powder binding activator and binding the powder in at least a first region of the powder layer ; (c) forming an additional plane powder layer comprising at least one cosmetic powder, the additional layer at least partially covering the previous layer ; (d) applying a powder binding activator and binding the powder in at least a second region of the additional powder layer ; (e) repeating steps (c) to (d) until the three-dimensional object is formed,
A wheat allergen-binding nucleic acid molecule that binds to a wheat allergen with a dissociation constant of 20 nM or less, comprising the following polynucleotide (a) or (b): (a) a polynucleotide consisting of either of base sequences of SEQ ID NOs: 1 and 2, (b) a polynucleotide that consists of a base sequence with a sequence identity of at least 90% to either of the base sequences of the polynucleotide (a) and binds to the wheat allergen. (a) a polynucleotide consisting of either of base sequences of SEQ ID NOs: 1 and 2, (b) a polynucleotide that consists of a base sequence with a sequence identity of at least 90% to either of the base sequences of the polynucleotide (a) and binds to the wheat allergen.
A data processing apparatus, which is a User Equipment, UE, comprising: a sending module , configured to send updated metadata; an obtaining module , configured to obtain a code word for broadcasting, wherein the code word comprises a metadata index value corresponding to the updated metadata; and a broadcasting module , configured to broadcast the obtained code word. a sending module , configured to send updated metadata; an obtaining module , configured to obtain a code word for broadcasting, wherein the code word comprises a metadata index value corresponding to the updated metadata; and a broadcasting module , configured to broadcast the obtained code word.
A multimedia intelligent cleaning system, comprising: a self-propelled cleaning robot for cleaning a working surface; a safety guard device to connect with the self-propelled cleaning robot , wherein the multimedia intelligent cleaning system is characterized in that the self-propelled cleaning robot and the safety guard device are detachably connected with each other through a securing assembly , and wherein the securing assembly has a first state in which the safety guard device is connected with the self-propelled cleaning robot and a second state in which the safety guard device is separated from the self-propelled cleaning robot ; a detection assembly to detect whether the securing assembly is in the first state or the second state; and a control unit to control whether the self-propelled cleaning robot enters a safe activation state depending on a detection signal from the detection assembly . a self-propelled cleaning robot for cleaning a working surface; a safety guard device to connect with the self-propelled cleaning robot , wherein the multimedia intelligent cleaning system is characterized in that the self-propelled cleaning robot and the safety guard device are detachably connected with each other through a securing assembly , and wherein the securing assembly has a first state in which the safety guard device is connected with the self-propelled cleaning robot and a second state in which the safety guard device is separated from the self-propelled cleaning robot ; a detection assembly to detect whether the securing assembly is in the first state or the second state; and a control unit to control whether the self-propelled cleaning robot enters a safe activation state depending on a detection signal from the detection assembly .
A Power Sourcing Equipment, PSE, characterized in that the PSE comprises: a first port group , comprising a plurality of PSE ports, wherein the PSE ports in the first port group are connected in parallel and connected with a first line pair and a second line pair in an Ethernet cable such that each PSE port in the first port group is connected to both the first line pair and the second line pair; a second port group , comprising a plurality of PSE ports, wherein the PSE ports in the second port group are connected in parallel and connected with a third line pair and a fourth line pair in the Ethernet cable such that each PSE port in the second port group is connected to both the third line pair and the fourth line pair; a detecting and classifying module , configured to perform feature detection for a Power Device, PD, connected with the Ethernet cable, wherein the PD is external to the PSE; and a power sourcing module , configured to output a working voltage from the first port group to supply power for the PD via the first line pair and the second line pair and output the working voltage from the second port group to supply power for the PD via the third line pair and the fourth line pair when the PD passes the feature detection. a first port group , comprising a plurality of PSE ports, wherein the PSE ports in the first port group are connected in parallel and connected with a first line pair and a second line pair in an Ethernet cable such that each PSE port in the first port group is connected to both the first line pair and the second line pair; a second port group , comprising a plurality of PSE ports, wherein the PSE ports in the second port group are connected in parallel and connected with a third line pair and a fourth line pair in the Ethernet cable such that each PSE port in the second port group is connected to both the third line pair and the fourth line pair; a detecting and classifying module , configured to perform feature detection for a Power Device, PD, connected with the Ethernet cable, wherein the PD is external to the PSE; and a power sourcing module , configured to output a working voltage from the first port group to supply power for the PD via the first line pair and the second line pair and output the working voltage from the second port group to supply power for the PD via the third line pair and the fourth line pair when the PD passes the feature detection.
A pipe connection comprising a first pipe element with a first channel for conveying a flowing medium, a connecting element , an anti-rotation element and a second pipe element , which has a second channel for conveying the flowing medium, wherein the connecting element is configured for tightly connecting the second pipe element to the first pipe element by means of a flange provided on the second pipe element such that the flowing medium can flow between the first channel and the second channel , wherein the anti-rotation element can be mounted on the second pipe element and is configured for engaging with the first pipe element in order to prevent a rotation of the first pipe element relative to the second pipe element , and wherein the anti-rotation element is rotatable relative to the second pipe element in a first state, in which the anti-rotation element is disengaged from the first pipe element , characterized in that the first pipe element can be connected to the second pipe element by means of the connecting element via the flange in a second state, in which the anti-rotation element is engaged with the first pipe element , such that the flange and therefore the second pipe element are secured against rotating relative to the anti-rotation element , and in that the anti-rotation element is secured against rotating relative to the first pipe element such that the first pipe element and the second pipe element are secured against rotating relative to one another. wherein the connecting element is configured for tightly connecting the second pipe element to the first pipe element by means of a flange provided on the second pipe element such that the flowing medium can flow between the first channel and the second channel , wherein the anti-rotation element can be mounted on the second pipe element and is configured for engaging with the first pipe element in order to prevent a rotation of the first pipe element relative to the second pipe element , and wherein the anti-rotation element is rotatable relative to the second pipe element in a first state, in which the anti-rotation element is disengaged from the first pipe element , characterized in that the first pipe element can be connected to the second pipe element by means of the connecting element via the flange in a second state, in which the anti-rotation element is engaged with the first pipe element , such that the flange and therefore the second pipe element are secured against rotating relative to the anti-rotation element , and in that the anti-rotation element is secured against rotating relative to the first pipe element such that the first pipe element and the second pipe element are secured against rotating relative to one another.
A method implemented by one or more processors, the method comprising: training an automatic speech recognition (ASR) model, wherein training the ASR model comprises: selecting a training instance which includes training audio data capturing a training utterance and a text representation of the training utterance; processing the training audio data portion of the selected training instance using a shared encoder portion of the ASR model to generate training encoder output; processing the training encoder output using a recurrent neural network transducer (RNN-T) decoder portion of the ASR model to generate training RNN-T output; generating a candidate text representation of the training utterance based on the training RNN-T output; generating a first-pass loss based on comparing the candidate text representation of the training utterance and the text representation portion of the training instance; updating the shared encoder and/or the RNN-T decoder based on the first-pass loss; and using the shared encoder and the RNN-T decoder in training a listen, attend, spell (LAS) decoder portion of the ASR model. selecting a training instance which includes training audio data capturing a training utterance and a text representation of the training utterance; processing the training audio data portion of the selected training instance using a shared encoder portion of the ASR model to generate training encoder output; processing the training encoder output using a recurrent neural network transducer (RNN-T) decoder portion of the ASR model to generate training RNN-T output; generating a candidate text representation of the training utterance based on the training RNN-T output; generating a first-pass loss based on comparing the candidate text representation of the training utterance and the text representation portion of the training instance; updating the shared encoder and/or the RNN-T decoder based on the first-pass loss; and using the shared encoder and the RNN-T decoder in training a listen, attend, spell (LAS) decoder portion of the ASR model.
An anticorrosive coating composition, comprising an epoxy resin (a), a curing agent (b), an amide wax (c), and a liquid acrylic polymer (d) including a structural unit derived from an acrylate having an alkyl group of 4 to 18 carbon atoms, wherein the liquid acrylic polymer (d) is liquid at a temperature of from 15 to 25°C and has a glass transition temperature of 0°C or less, and wherein the glass transition temperature is measured by a differential scanning calorimeter. wherein the liquid acrylic polymer (d) is liquid at a temperature of from 15 to 25°C and has a glass transition temperature of 0°C or less, and wherein the glass transition temperature is measured by a differential scanning calorimeter.
An oil scraper piston ring, comprising a bearing surface area formed by at least two bearing surface webs , an inner circumferential surface as well as upper and lower flank surfaces that extend between the bearing surface area and the inner circumferential surface, furthermore comprising a joint as well as oil passage openings , which extend radially between the bearing surface webs from outside towards inside, if necessary in operative connection with a spring element, wherein the joint is formed by at least two slot areas spaced apart from each other, not being directly connected to each other and having a pre-determinable shape and dimension, characterized in that each slot area formed by a slot extends from the associated flank surface at least until into an oil passage opening provided between at least two bearing surface webs .
An operating mechanism for a dual-power changeover switch, the operating mechanism being configured to drive breaking units of poles of the dual-power changeover switch simultaneously, so that the dual-power changeover switch can be switched between different states, the operating mechanism comprises a manual operating device arranged on a first side of a housing of the dual-power changeover switch and configured to rotate around a rotation axis (A) under the action of a driving force; a synchronizing rod connected to the manual operating device in a transmission way, the synchronizing rod comprising a first end located close to the first side and a second end located close to a second side of the housing opposite to the first side, and the synchronizing rod being configured to be rotatable around an extension direction of the synchronizing rod when the manual operating device rotates; a first driving member arranged on the first end of the synchronizing rod and connected with a first driving disc assembly at a first end of a main shaft shared by the breaking units of the poles; and a second driving member arranged on the second end of the synchronizing rod and connected with a second driving disc assembly at a second end of the main shaft , wherein the first driving member and the second driving member are configured to rotate simultaneously in a same direction, with the synchronizing rod as a rotation shaft, when the synchronizing rod rotates, so as to drive the first driving disc assembly and the second driving disc assembly to rotate, thereby driving the main shaft to perform an opening motion and a closing motion. a manual operating device arranged on a first side of a housing of the dual-power changeover switch and configured to rotate around a rotation axis (A) under the action of a driving force; a synchronizing rod connected to the manual operating device in a transmission way, the synchronizing rod comprising a first end located close to the first side and a second end located close to a second side of the housing opposite to the first side, and the synchronizing rod being configured to be rotatable around an extension direction of the synchronizing rod when the manual operating device rotates; a first driving member arranged on the first end of the synchronizing rod and connected with a first driving disc assembly at a first end of a main shaft shared by the breaking units of the poles; and a second driving member arranged on the second end of the synchronizing rod and connected with a second driving disc assembly at a second end of the main shaft , wherein the first driving member and the second driving member are configured to rotate simultaneously in a same direction, with the synchronizing rod as a rotation shaft, when the synchronizing rod rotates, so as to drive the first driving disc assembly and the second driving disc assembly to rotate, thereby driving the main shaft to perform an opening motion and a closing motion.
A method of determining a downlink transmit power from a base station at a wireless terminal , the base station and the wireless terminal having a plurality of Orthogonal Frequency Division Multiplexing, OFDM, symbols available for transmission, the method comprising: receiving a signaling parameter from the base station ; and determining a first ratio of traffic data energy per resource element, EPRE, to reference signal, RS, EPRE for first OFDM symbols containing reference signal, RS, and a second ratio of traffic data EPRE to RS EPRE for second OFDM symbols not containing RS, wherein a ratio of the first ratio to the second ratio depends on the signalling parameter and the number of antennas configured in the base station, and wherein the ratio of the first ratio to the second ratio for one cell specific antenna is 1, 4/5, 3/5, or 2/5, respectively for the signalling parameter being 0, 1, 2, or 3, and wherein the ratio of the first ratio to the second ratio for 2 or 4 of cell specific antennas is 5/4, 1, 3/4, or 1/2, respectively for the signalling parameter being 0, 1, 2, or 3. receiving a signaling parameter from the base station ; and determining a first ratio of traffic data energy per resource element, EPRE, to reference signal, RS, EPRE for first OFDM symbols containing reference signal, RS, and a second ratio of traffic data EPRE to RS EPRE for second OFDM symbols not containing RS, wherein a ratio of the first ratio to the second ratio depends on the signalling parameter and the number of antennas configured in the base station, and wherein the ratio of the first ratio to the second ratio for one cell specific antenna is 1, 4/5, 3/5, or 2/5, respectively for the signalling parameter being 0, 1, 2, or 3, and wherein the ratio of the first ratio to the second ratio for 2 or 4 of cell specific antennas is 5/4, 1, 3/4, or 1/2, respectively for the signalling parameter being 0, 1, 2, or 3.
A method for detecting leaks on a non-rigid test specimen , comprising the steps of: introducing the test specimen into a film chamber in the form of a test chamber having flexible walls, which changes its form in dependence of the difference between the pressure inside the film chamber and the ambient pressure, forging the flexible walls to the test specimen by lowering the pressure inside the film chamber outside the test specimen , observing the film of the film chamber, detecting a spatial change in the film by a position change of the film or a volume change of the film chamber, and detecting a leak in the test specimen on the basis of a spatial change in the film of the film chamber . introducing the test specimen into a film chamber in the form of a test chamber having flexible walls, which changes its form in dependence of the difference between the pressure inside the film chamber and the ambient pressure, forging the flexible walls to the test specimen by lowering the pressure inside the film chamber outside the test specimen , observing the film of the film chamber, detecting a spatial change in the film by a position change of the film or a volume change of the film chamber, and detecting a leak in the test specimen on the basis of a spatial change in the film of the film chamber .
Method for classifying a driver in a vehicle, in particular in a single-track vehicle , in which a steering input variable specified by the driver is ascertained over a minimum period of time during driving and a driver evaluation signal is determined from the course of the steering input variable, the driver evaluation signal corresponding to a classification of the driver into a specified driver category, characterized in that a driving manoeuvre carried out by the driver is identified from the course of the steering input variable specified by the driver and/or from at least one driving state variable, wherein the driver evaluation signal is determined from the deviation in the actual steering input variable from an ideal steering input variable associated with the driving manoeuvre.
Interior fitting part of a vehicle, having a metallic surface element which is provided with at least one graphic design , such as a logo, symbol, wherein the graphic design is formed as an engraving made by material removal, and that the engraving has at least one partial micro perforation consisting of a plurality of bores , characterised in that the bores of the micro perforation each have a diameter of = 0.05 mm and the bores have a distance from each other of = 0.05 mm.
An antibacterial sol, specifically an antibacterial sol as a starting sol for the preparation of an antibacterial layer containing silver, characterised in that it contains 5.0 to 29.05 wt% of 2-hydroxyethyl methacrylate, 0.05 to 0.25 wt% soluble silver salts, 0.005 to 0.1 wt% of silver nanoparticles (AgNPs), 0.1 to 0.6 wt% of radical polymerisation catalyst, and 70 to 90 wt% alcohol as a solvent.
A method for depositing a layer of semiconducting nanoparticles _onto a substrate under ambient temperature and pressure conditions, comprising: suspending a plurality of ultrapure, dipolar, silicon and/or germanium semiconducting nanoparticles _in a nonaqueous polar solvent to yield a suspension ; connecting an electrically conducting substrate to a first electrode ; placing a second electrode in electric communication with the suspension ; immersing the electricity conducting substrate into the suspension ; imparting a first charge onto the suspended nanoparticles imparting a second, opposite charge onto the substrate ; depositing, by electrophoretic deposition, a uniform layer of the silicon and/or germanium semiconducting nanoparticles from the suspension onto the substrate to define a coated substrate; varying the applied voltage and/or the pH of the suspension to apply multiple layers of nanoparticles to the substrate in a size-specific, graduated order; and removing the coated substrate from the suspension into air at a pressure of about 1 atmosphere; wherein a temperature of the suspension is maintained below about 100 degrees Celsius; and the nanoparticles have dimensions of less than 1000 nanometers. suspending a plurality of ultrapure, dipolar, silicon and/or germanium semiconducting nanoparticles _in a nonaqueous polar solvent to yield a suspension ; connecting an electrically conducting substrate to a first electrode ; placing a second electrode in electric communication with the suspension ; immersing the electricity conducting substrate into the suspension ; imparting a first charge onto the suspended nanoparticles imparting a second, opposite charge onto the substrate ; depositing, by electrophoretic deposition, a uniform layer of the silicon and/or germanium semiconducting nanoparticles from the suspension onto the substrate to define a coated substrate; varying the applied voltage and/or the pH of the suspension to apply multiple layers of nanoparticles to the substrate in a size-specific, graduated order; and removing the coated substrate from the suspension into air at a pressure of about 1 atmosphere; wherein a temperature of the suspension is maintained below about 100 degrees Celsius; and the nanoparticles have dimensions of less than 1000 nanometers. a temperature of the suspension is maintained below about 100 degrees Celsius; and the nanoparticles have dimensions of less than 1000 nanometers.