mhurhangee/ep-ind-claims huggingface dataset:
Milk frother for frothing milk for a hot beverage preparation device, in particular for a fully automatic coffee machine having a jet pump comprising a propulsion nozzle, wherein during operation of the milk frother steam can be released by means of the propulsion nozzle as a propellant of the jet pump in the form of a propulsion jet which can be discharged along a jet direction; wherein the jet pump has a collection nozzle, which tapers along the jet direction, for collecting the propulsion jet, wherein the collection nozzle at least partially delimits a mixing chamber of the milk frother; wherein a suction connection of the jet pump, in particular transversely to the jet direction, opens into the mixing chamber, so that the steam of the propulsion jet and a mixture of milk and air which can taken in by means of the jet pump can be mixed in the mixing chamber, in turn generating the milk froth; wherein an air duct and a milk container for receiving milk and/or a milk duct is fluidically connected to the suction connection of the jet pump, and wherein the milk frother has an adjustment facility which can be adjusted in particular manually or mechanically or hydromechanically in order to vary a consistency of the milk froth.
A computer-implemented index generating method comprising: an image input step of inputting an image obtained by imaging a linear subject; a intensity profile acquiring step of acquiring, from the input image, a plurality of intensity profiles along a travelling direction orthogonal to a width direction of the linear subject, which are intensity profiles in the width direction of the linear subject and around the linear subject; a center estimating step of estimating a center in a width direction of an intensity profile for each of the plurality of intensity profiles, the center corresponding to a peak of a curve to which the intensity profile has been approximated; an aligning step of aligning the centers by moving the plurality of intensity profiles in the width direction based on the estimated center; a function calculating step of calculating a function corresponding to the acquired plurality of intensity profiles having the aligned centers; an integrating step of integrating the calculated function after subtraction therefrom of a parameter indicating a brightness around the linear subject; and an index generating step of generating an index indicating a width of the subject based on the calculated function, wherein the index is generated based on a result of the integration. an image input step of inputting an image obtained by imaging a linear subject; a intensity profile acquiring step of acquiring, from the input image, a plurality of intensity profiles along a travelling direction orthogonal to a width direction of the linear subject, which are intensity profiles in the width direction of the linear subject and around the linear subject; a center estimating step of estimating a center in a width direction of an intensity profile for each of the plurality of intensity profiles, the center corresponding to a peak of a curve to which the intensity profile has been approximated; an aligning step of aligning the centers by moving the plurality of intensity profiles in the width direction based on the estimated center; a function calculating step of calculating a function corresponding to the acquired plurality of intensity profiles having the aligned centers; an integrating step of integrating the calculated function after subtraction therefrom of a parameter indicating a brightness around the linear subject; and an index generating step of generating an index indicating a width of the subject based on the calculated function, wherein the index is generated based on a result of the integration.
A method of detecting ice or other foreign matter on a wind turbine blade or damage to a wind turbine blade, the wind turbine blade mounted to a hub and having a longitudinal axis extending away from the hub, comprising: measuring twisting torque on the blade about its longitudinal axis to provide a detected torque signal; comparing a value based on the detected torque signal with a comparison value, the comparison value derived from one or more measured parameters having a predetermined relationship with the twisting torque about the longitudinal axis of the blade when the blade is operating under normal operating conditions; and determining that ice or other foreign matter is on the blade or that the blade is damaged if the value based on the detected torque signal differs from the comparison value by more than a predetermined amount. measuring twisting torque on the blade about its longitudinal axis to provide a detected torque signal; comparing a value based on the detected torque signal with a comparison value, the comparison value derived from one or more measured parameters having a predetermined relationship with the twisting torque about the longitudinal axis of the blade when the blade is operating under normal operating conditions; and determining that ice or other foreign matter is on the blade or that the blade is damaged if the value based on the detected torque signal differs from the comparison value by more than a predetermined amount.
A solder paste inspection equipment, comprising: an information transmitting/receiving unit configured to receive a mounting tolerance information from a component mounting equipment and transmit information on whether mounting is impossible to the component mounting equipment; a measuring unit configured to generate information on the amount of rotation of a flexible array board placed on a jig and on the bending of the flexible array board; and an analyzing unit configured to generate a warp information by using the information on the amount of rotation and on the bending; compare the mounting tolerance information with the warp information to generate a comparison result; and generate the information on whether mounting of components on a region is impossible based on the comparison result, characterised in that the mounting tolerance information includes a maximum mounting angle information of the component mounting equipment. an information transmitting/receiving unit configured to receive a mounting tolerance information from a component mounting equipment and transmit information on whether mounting is impossible to the component mounting equipment; a measuring unit configured to generate information on the amount of rotation of a flexible array board placed on a jig and on the bending of the flexible array board; and an analyzing unit configured to generate a warp information by using the information on the amount of rotation and on the bending; compare the mounting tolerance information with the warp information to generate a comparison result; and generate the information on whether mounting of components on a region is impossible based on the comparison result, characterised in that the mounting tolerance information includes a maximum mounting angle information of the component mounting equipment.
A non-aqueous electrolyte solution, comprising: a cyclic sulfate compound represented by the following formula: wherein, in formula, R 1 represents a group represented by the above formula or a group represented by the above formula; and R 2 represents a hydrogen atom, an alkyl group having from 1 to 6 carbon atoms, a group represented by formula, or a group represented by formula; in formula, R 3 represents a halogen atom, an alkyl group having from 1 to 6 carbon atoms, a halogenated alkyl group having from 1 to 6 carbon atoms, an alkoxy group having from 1 to 6 carbon atoms, or a group represented by the above formula; and the wavy line in formula, formula and formula represents the position of bonding; and in a case in which there are two groups represented by formula in the cyclic sulfate compound represented by formula, the two groups represented by formula may be the same as or different from each other. a cyclic sulfate compound represented by the following formula: wherein, in formula, R 1 represents a group represented by the above formula or a group represented by the above formula; and R 2 represents a hydrogen atom, an alkyl group having from 1 to 6 carbon atoms, a group represented by formula, or a group represented by formula; in formula, R 3 represents a halogen atom, an alkyl group having from 1 to 6 carbon atoms, a halogenated alkyl group having from 1 to 6 carbon atoms, an alkoxy group having from 1 to 6 carbon atoms, or a group represented by the above formula; and the wavy line in formula, formula and formula represents the position of bonding; and in a case in which there are two groups represented by formula in the cyclic sulfate compound represented by formula, the two groups represented by formula may be the same as or different from each other.
An oral care composition comprising: a. from 0.01 to 1 wt % bisabolol, based on the total weight of the composition; b. zinc oxide present in an amount of 0.75 to 1.25 wt % and zinc citrate present in an amount of from 0.25 to 1.0 wt % based on the total weight of the composition; c. from 0.01 to 1 wt % zingerone, based on the total weight of the composition; and d. a source of stannous ions, wherein the source of stannous ions is stannous fluoride in an amount of 0.1 to 2 wt % based on the total weight of the composition. a. from 0.01 to 1 wt % bisabolol, based on the total weight of the composition; b. zinc oxide present in an amount of 0.75 to 1.25 wt % and zinc citrate present in an amount of from 0.25 to 1.0 wt % based on the total weight of the composition; c. from 0.01 to 1 wt % zingerone, based on the total weight of the composition; and d. a source of stannous ions, wherein the source of stannous ions is stannous fluoride in an amount of 0.1 to 2 wt % based on the total weight of the composition.
A method for plasma processing, the method comprising: applying continuous wave power to a plasma processing chamber during a first processing step; applying, during the first processing step, an asymmetric periodic voltage waveform to a substrate support to produce a first plasma sheath voltage between a substrate and a plasma; applying pulsed power to the plasma processing chamber during a second processing step, wherein the second processing step follows the first processing step; and applying, during the second processing step, a different asymmetric periodic voltage waveform to the substrate support to produce a different plasma sheath voltage between the substrate and the plasma that has a magnitude that is different than a magnitude of the first plasma sheath voltage during the first processing step. applying continuous wave power to a plasma processing chamber during a first processing step; applying, during the first processing step, an asymmetric periodic voltage waveform to a substrate support to produce a first plasma sheath voltage between a substrate and a plasma; applying pulsed power to the plasma processing chamber during a second processing step, wherein the second processing step follows the first processing step; and applying, during the second processing step, a different asymmetric periodic voltage waveform to the substrate support to produce a different plasma sheath voltage between the substrate and the plasma that has a magnitude that is different than a magnitude of the first plasma sheath voltage during the first processing step.
Method for increasing plant yield in plants grown under non-stress conditions relative to corresponding wild type plants, comprising introducing and overexpressing in a plant a class I HDZip hox5 nucleic acid encoding a class I homeodomain leucine zipper (HDZip) hox5 polypeptide of SEQ ID NO: 2, and selecting for plants having increased yield, wherein said increased yield is selected from one or more of: increased number of filled seeds, increased total number of seeds, increased total seed yield, increased seed fill rate, increased harvest index, increased thousand kernel weight, increased root biomass, each relative to corresponding wild type plants.
A rotor constituting an interior permanent magnet motor, the rotor comprising: a permanent magnet (2-1 to 2-6) generating a magnetic field; and a rotor core including a magnet insertion pocket (5-1 to 5-6) to which the permanent magnet (2-1 to 2-6) is inserted, wherein outer circumferential faces of the magnet insertion pocket and of the permanent magnet are shaped as an arc that projects toward an outer circumference of the rotor core, wherein, when the permanent magnet (2-1 to 2-6) is inserted, the magnet insertion pocket to is formed so as to provide a space (21, 22) in an area at both ends in a circumferential direction of the permanent magnet, and wherein the magnet (2-1 to 2-6) provided with cut-off portions made by cut surfaces on the end sides on both sides of an outer circumferential side, wherein the cut surfaces of two adjacent magnets (2-1 to 2-6) are defined, in an axial cross-section of the rotor, by a line (b-b') that is perpendicular to the center line (a-a') between adjacent magnets, wherein the space (21, 22) at each circumferential end of the magnet (2-1 to 2-6) is delimited, in an axial cross-section of the rotor, by the cut surface and the arcuate shape of the outer circumferential face of the magnet insertion pocket (5-1 - 5-6). a permanent magnet (2-1 to 2-6) generating a magnetic field; and a rotor core including a magnet insertion pocket (5-1 to 5-6) to which the permanent magnet (2-1 to 2-6) is inserted, wherein outer circumferential faces of the magnet insertion pocket and of the permanent magnet are shaped as an arc that projects toward an outer circumference of the rotor core, wherein, when the permanent magnet (2-1 to 2-6) is inserted, the magnet insertion pocket to is formed so as to provide a space (21, 22) in an area at both ends in a circumferential direction of the permanent magnet, and wherein the magnet (2-1 to 2-6) provided with cut-off portions made by cut surfaces on the end sides on both sides of an outer circumferential side, wherein the cut surfaces of two adjacent magnets (2-1 to 2-6) are defined, in an axial cross-section of the rotor, by a line (b-b') that is perpendicular to the center line (a-a') between adjacent magnets, wherein the space (21, 22) at each circumferential end of the magnet (2-1 to 2-6) is delimited, in an axial cross-section of the rotor, by the cut surface and the arcuate shape of the outer circumferential face of the magnet insertion pocket (5-1 - 5-6).
Electric machine comprising a stator, a stator-switching-device and a rotor, wherein the rotor is adapted to rotate relatively to the stator, and wherein the rotor comprises a rotor-switching-device which is arranged at the rotor, wherein the rotor-switching-device comprises at least one switch which is adapted to electrically connect rotor-coils (r1, r2, r3...), and wherein the stator-switching-device comprises at least one switch which is adapted to electrically connect stator-coils (s1, s2, s3...), characterized in that the stator-switching-device is adapted to vary a number of stator-pole-pairs, and in that the rotor-switching-device is adapted to vary a number of rotor-pole-pairs.
An antibody which specifically binds to the Aβ peptide which does not show cross-reactivity against a Aβ peptide selected from the group consisting of Aβ, Aβ, Aβ, Aβ, Aβ and a combination of one or more of them.
A use of a polypeptide comprising one or more sequences of IgLON5 or a variant thereof for the diagnosis of a disease, wherein the sequence of IgLON5 is the sequence according to SEQ ID NO 1, and wherein the variant thereof binds to an autoantibody to IgLON5, and wherein antibodies from a subject are contacted with said polypeptide or said variant thereof to form a complex comprising said polypeptide and an autoantibody binding to IgLON5 or the variant thereof, and wherein the disease is a neurodegenerative disease associated with the emergence of autoantibodies binding to IgLON5 or the variant thereof.
A method, comprising: sending a message to an application executing on an application virtual machine to prepare for a save operation; processing an internal state of an application memory to determine at least one or more of data pages or graphics pages in use for the application; instructing the processing of the application memory to determine at least one or more of code pages or signature pages in use for the application and converting the at least one or more of the code pages or the signature pages into a known memory alias (202, 204, 206, 208), wherein the code pages include pages that contain executable instructions, wherein the signatures pages are used to verify the validity of the code pages, wherein the memory alias is a memory region that uses an encryption key, wherein the application memory includes a plurality of memory aliases (202, 204, 206, 208), and wherein each of the plurality of memory aliases (202, 204, 206, 208) uses a different encryption key for encrypting application content; and saving an application memory state for the application, wherein the application memory state includes the at least one or more of the data pages or the graphics pages and the known memory alias (202, 204, 206, 208) with the at least one or more of the code pages or the signature pages. sending a message to an application executing on an application virtual machine to prepare for a save operation; processing an internal state of an application memory to determine at least one or more of data pages or graphics pages in use for the application; instructing the processing of the application memory to determine at least one or more of code pages or signature pages in use for the application and converting the at least one or more of the code pages or the signature pages into a known memory alias (202, 204, 206, 208), wherein the code pages include pages that contain executable instructions, wherein the signatures pages are used to verify the validity of the code pages, wherein the memory alias is a memory region that uses an encryption key, wherein the application memory includes a plurality of memory aliases (202, 204, 206, 208), and wherein each of the plurality of memory aliases (202, 204, 206, 208) uses a different encryption key for encrypting application content; and saving an application memory state for the application, wherein the application memory state includes the at least one or more of the data pages or the graphics pages and the known memory alias (202, 204, 206, 208) with the at least one or more of the code pages or the signature pages.
A method for compensating for attenuation of carrier power by a transmission path, the method comprising; defining a path from a gateway to a measurement tap, wherein the path comprises an output port of the gateway and path components used to reach the measurement tap; sweeping, in bands, an RF spectrum served by a radio frequency transmitter, RFT, by sending a signal at a respective band and a band power from the output port over the path; measuring, at the measurement tap, a power metric for each of the bands; capturing, for each of the bands, Power Level, PL, data comprising a frequency start of the respective band, a frequency end of the respective band, the respective band power and the respective power metric at the measurement tap; and setting a Carrier Power Level, CPL, of a carrier having a frequency start and a frequency end, wherein the CPL is based on the PL data associated with one more of the bands included in the frequency start and the frequency end, wherein the path components comprise one or more connecting cables, one or more switches, and one or more equipment in the path. defining a path from a gateway to a measurement tap, wherein the path comprises an output port of the gateway and path components used to reach the measurement tap; sweeping, in bands, an RF spectrum served by a radio frequency transmitter, RFT, by sending a signal at a respective band and a band power from the output port over the path; measuring, at the measurement tap, a power metric for each of the bands; capturing, for each of the bands, Power Level, PL, data comprising a frequency start of the respective band, a frequency end of the respective band, the respective band power and the respective power metric at the measurement tap; and setting a Carrier Power Level, CPL, of a carrier having a frequency start and a frequency end, wherein the CPL is based on the PL data associated with one more of the bands included in the frequency start and the frequency end, wherein the path components comprise one or more connecting cables, one or more switches, and one or more equipment in the path.
Plug-in connector comprising a housing which has an accommodation space, a connecting piece and a channel that connects the accommodation space and the connecting piece, a heating zone being provided in the interior of the channel, a heat-conducting element being arranged between the heating zone and the accommodation space, the heat-conducting element having a heat output portion designed as a cylinder sleeve that surrounds an inner space, characterised in that the cylinder sleeve has an elongate slit.
An electrosurgical generator, comprising at least two HF generator units (12.1; 12.2) and at least two output transformers (14; 14.2), each having a primary winding (16.1; 16.2) and a secondary winding (18.1; 18.2), of which one of the primary windings (16.1; 16.2) is in each case connected to one of the HF generator units (12.1; 12.2) and one of the secondary windings (18.1; 18.2) (14.1; 14.2) is in each case connected to two output terminals (20.1, 22.1; 20.2, 22.2) for connecting an electrosurgical instrument, wherein one of the two output terminals (20.1; 20.2) is in each case provided for connecting a working electrode and the respective other one of the two output terminals (22.1; 22.2) is provided for connecting a neutral electrode, wherein, together with the associated output transformer (14.1; 14.2) and the corresponding output terminals (20.1, 22.1; 20.2, 22.2), one HF generator unit (12.1; 12.2) respectively forms an HF generator module (24.1; 24.2), wherein the HF generator modules (24.1; 24.2) are connected to a control unit, that is configured to at least provide the following operating modes: - a parallel mode in which the at least two output transformers (14.1, 14.2) are connected in parallel so that, via the output terminals (20.1, 22.1; 20.2, 22.2), an electrosurgical instrument can be operated with a higher output current than the current that would be able to be provided by one HF generator module (24.1; 24.2) alone, - a series mode in which the at least two output transformers (14.1, 14.2) are connected in series so that, via the output terminals (20.1, 22.1), an electrosurgical instrument can be operated with a higher output voltage than the voltage that would be able to be provided by one HF generator module (24.1; 24.2) alone, and - a multi instrument mode in which the output transformers (14.1, 14.2) are each connected independently of each other to output terminals for respectively one electrosurgical instrument. - a parallel mode in which the at least two output transformers (14.1, 14.2) are connected in parallel so that, via the output terminals (20.1, 22.1; 20.2, 22.2), an electrosurgical instrument can be operated with a higher output current than the current that would be able to be provided by one HF generator module (24.1; 24.2) alone, - a series mode in which the at least two output transformers (14.1, 14.2) are connected in series so that, via the output terminals (20.1, 22.1), an electrosurgical instrument can be operated with a higher output voltage than the voltage that would be able to be provided by one HF generator module (24.1; 24.2) alone, and - a multi instrument mode in which the output transformers (14.1, 14.2) are each connected independently of each other to output terminals for respectively one electrosurgical instrument.