mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the identification of structural parts (B) to be exchanged of a medical device (D) comprising in each case a plurality of structural parts, in particular an MR device, with the following method steps: - reading-in of an error message (fm) from the device (D) ; - execution of an identification algorithm for calculating and outputting an exchange data set (ad) identifying a structural part to be exchanged (B) for the read-in error message (fm), wherein the identification algorithm with the read-in error message (fm) accesses a database system (DB) in which error patterns (fmu) with exchange data sets are stored which have been calculated from a simulation model in order to calculate as the result the exchange data set (ad) associated with the read-in error message (fm), wherein in the database system (DB) error patterns (fmu) are stored which are generated automatically by means of an error pattern generation unit (FME), wherein the error pattern generation unit (FME) is embodied to execute a machine-learning method based on a simulation model that enables the continuous learning and storage of error patterns (fmu) by the correlation of input variables (e), wherein in each case an error pattern (fmu) comprises an association between an error type or a combination of error types and an exchange data set (ad) indicating a structural part (B) to be exchanged and wherein the database system (DB) or the error pattern generation unit (FME) comprises a processor (P) to generate the error pattern (fmu) or interacts therewith, wherein the processor (P) is embodied for generating the error pattern (fmu) for applying Markov processes. - reading-in of an error message (fm) from the device (D) ; - execution of an identification algorithm for calculating and outputting an exchange data set (ad) identifying a structural part to be exchanged (B) for the read-in error message (fm), wherein the identification algorithm with the read-in error message (fm) accesses a database system (DB) in which error patterns (fmu) with exchange data sets are stored which have been calculated from a simulation model in order to calculate as the result the exchange data set (ad) associated with the read-in error message (fm), wherein in the database system (DB) error patterns (fmu) are stored which are generated automatically by means of an error pattern generation unit (FME), wherein the error pattern generation unit (FME) is embodied to execute a machine-learning method based on a simulation model that enables the continuous learning and storage of error patterns (fmu) by the correlation of input variables (e), wherein in each case an error pattern (fmu) comprises an association between an error type or a combination of error types and an exchange data set (ad) indicating a structural part (B) to be exchanged and wherein the database system (DB) or the error pattern generation unit (FME) comprises a processor (P) to generate the error pattern (fmu) or interacts therewith, wherein the processor (P) is embodied for generating the error pattern (fmu) for applying Markov processes.
A walnut oligopeptide powder, characterized by : having a peptide content of more than 80 wt% determined by Methods GB/T 22492-2008, Appendix A and Appendix B as defined in paragraph of the description, wherein more than 95% of the walnut oligopeptide has a molecular weight of less than 1500 Dalton, and a molecular weight distribution of the walnut peptide is as follows, when determined according to GB/T 22492-2008 Appendix A : Molecular Weight Dalton Distribution Range of Molecular Weight Peak Area Percentage %, λ 220 nm > 1500 < 1 1500 - 1300 7-8 1300 - 500 20 - 25 500 - 200 50 - 55 < 200 < 20 Range of Number-Average Molar Mass: 170-3000 Range of Weight-Average Molar Mass: 180-4000, preferably, the peptide content is 81 wt% or more, and more than 97% of the oligopeptide has a molecular weight of less than 1500 Dalton; more preferably, the peptide content is 81.3 wt% or more, and more than 96% of the oligopeptide has a molecular weight of less than 1500 Dalton; preferably, the peptide content is 85 wt% or more, and more than 97% of the oligopeptide has a molecular weight of less than 1500 Dalton; most preferably, the peptide content is 85 wt% or more, and more than 96% of the oligopeptide has a molecular weight of less than 1500 Dalton.
A method for controlling a wind farm comprising a plurality of wind turbines, the method comprising: computing an error between a farm-level base point power forecast and a measured farm-level active power; generating an aggregated farm-level active power set point for the wind farm based on the error and a frequency response set point; generating aggregated turbine-level active power set points for the plurality of wind turbines based on the aggregated farm-level active power set point; transmitting the aggregated turbine-level active power set points to the respective wind turbines; using the aggregated turbine-level active power set points for determining aero power set points and storage power set points for the plurality of wind turbines and energy storage elements coupled to the plurality of wind turbines respectively; and using the aero power set points for controlling the respective wind turbines and the storage power set points for controlling the respective energy storage elements. computing an error between a farm-level base point power forecast and a measured farm-level active power; generating an aggregated farm-level active power set point for the wind farm based on the error and a frequency response set point; generating aggregated turbine-level active power set points for the plurality of wind turbines based on the aggregated farm-level active power set point; transmitting the aggregated turbine-level active power set points to the respective wind turbines; using the aggregated turbine-level active power set points for determining aero power set points and storage power set points for the plurality of wind turbines and energy storage elements coupled to the plurality of wind turbines respectively; and using the aero power set points for controlling the respective wind turbines and the storage power set points for controlling the respective energy storage elements.
A gastrectomy device , comprising: an elongated member having a proximal end and a distal end , the elongated member defining: a first longitudinal channel having a tube extending therethrough, the tube having a proximal end and a distal end; a longitudinal side window disposed adjacent the distal end of the elongated member and being in communication with the first longitudinal channel, the window being large enough to allow passage of a portion of the tube therethrough; a plurality of side apertures ; a second longitudinal channel fluidly isolated from the first longitudinal channel and being in communication with the plurality of side apertures and configured for coupling to a source of pressure; and an array of lights associated with the tube to provide illumination; wherein the tube is movable through the elongated member between a first state, in which the tube is disposed within the first longitudinal channel contained within the elongated member, and a second state, in which a portion of the tube extends through the longitudinal side window outside of the elongated member. an elongated member having a proximal end and a distal end , the elongated member defining: a first longitudinal channel having a tube extending therethrough, the tube having a proximal end and a distal end; a longitudinal side window disposed adjacent the distal end of the elongated member and being in communication with the first longitudinal channel, the window being large enough to allow passage of a portion of the tube therethrough; a plurality of side apertures ; a second longitudinal channel fluidly isolated from the first longitudinal channel and being in communication with the plurality of side apertures and configured for coupling to a source of pressure; and an array of lights associated with the tube to provide illumination; a first longitudinal channel having a tube extending therethrough, the tube having a proximal end and a distal end; a longitudinal side window disposed adjacent the distal end of the elongated member and being in communication with the first longitudinal channel, the window being large enough to allow passage of a portion of the tube therethrough; a plurality of side apertures ; a second longitudinal channel fluidly isolated from the first longitudinal channel and being in communication with the plurality of side apertures and configured for coupling to a source of pressure; and an array of lights associated with the tube to provide illumination; wherein the tube is movable through the elongated member between a first state, in which the tube is disposed within the first longitudinal channel contained within the elongated member, and a second state, in which a portion of the tube extends through the longitudinal side window outside of the elongated member.
A process for preparing a peroxide-modified polyethylene comprising the steps of: (A) preparing a first Ziegler-Natta-catalyzed polyethylene in a first reactor; (B) transferring the first Ziegler-Natta-catalyzed polyethylene from the first reactor to a second reactor; (C) admixing a first amount of an organic peroxide to the second reactor; (D) reacting the organic peroxide with a polyethylene composition made from or containing the first Ziegler-Natta-catalyzed polyethylene, thereby coupling the polyethylene components and forming the peroxide-modified polyethylene; and (E) collecting the peroxide-modified polyethylene. wherein the process further comprises the steps of: (A2) preparing a high density polyethylene in a third reactor; and (B2) transferring the high density polyethylene from the third reactor to the second reactor, And wherein the polyethylene composition further comprises the high density polyethylene. (A) preparing a first Ziegler-Natta-catalyzed polyethylene in a first reactor; (B) transferring the first Ziegler-Natta-catalyzed polyethylene from the first reactor to a second reactor; (C) admixing a first amount of an organic peroxide to the second reactor; (D) reacting the organic peroxide with a polyethylene composition made from or containing the first Ziegler-Natta-catalyzed polyethylene, thereby coupling the polyethylene components and forming the peroxide-modified polyethylene; and (E) collecting the peroxide-modified polyethylene. (A2) preparing a high density polyethylene in a third reactor; and (B2) transferring the high density polyethylene from the third reactor to the second reactor, And wherein the polyethylene composition further comprises the high density polyethylene.
A table with a tilting tabletop and a pair of ground support legs , comprising means adapted to cause, upon a tilting of said tabletop , also a rotation of said ground support legs with respect to the ground, and wherein each leg of said pair of ground support legs is composed of a vertical post which is connected at a lower end to a longitudinal member with pairs of wheels associated in a lower region with the ends, a tubular frame being associated below said tabletop and being composed of two crossmembers , which are shorter than said tabletop and are connected at the ends by two mutually mirror-symmetrical first box-like plates , which have a C-shaped cross-section a base of which is rectangular and is rendered integral in a lower region with said tabletop and first wings of which are directed toward the ground, characterized in that said means adapted to cause, upon the tilting of said tabletop to the vertical, also the rotation of said legs with respect to the ground comprises two mutually identical handles , which are rotatably associated proximate to an end of said first wings and are keyed to a shaft which is adapted to transmit the rotary motion imparted to said handles by the user, between each of said first wings there being, in axial alignment with said shaft , a block which rotates integrally with said shaft and which has a first tooth which protrudes axially therefrom substantially parallel to said bases and in the opposite direction with respect to said handles , and in that a second plate is associated at each one of said bases , is also C-shaped, is shorter than said first box-like plates , and extends substantially from a region underneath said first teeth in the opposite direction with respect to said handles , each one of said second plates having a pair of second wings which protrude at the opposite end with respect to said handles and between which a rotation pivot is arranged for said second wings of said second plates with which the free ends of said vertical posts are rendered integral.
A computing device , comprising: a first portion (102 ) of the computing device that is moveable relative to a second portion (102 ) of the computing device ; multiple nested leaf springs positioned to receive forces between the first portion (102 ) and the second portion (102 ), individual leaf springs extending from a first end associated with a first loop to a second end associated with a second loop , and the first and second ends not being secured to either the first portion (102 ) or the second portion (102 ) to receive the forces; and a contact structure linked to the second portion (102 ), the contact structure configured to move along a stroke (S) between the first loop and the second loop to transfer the forces, wherein the multiple nested leaf springs are positioned in the first portion (102 ). a first portion (102 ) of the computing device that is moveable relative to a second portion (102 ) of the computing device ; multiple nested leaf springs positioned to receive forces between the first portion (102 ) and the second portion (102 ), individual leaf springs extending from a first end associated with a first loop to a second end associated with a second loop , and the first and second ends not being secured to either the first portion (102 ) or the second portion (102 ) to receive the forces; and a contact structure linked to the second portion (102 ), the contact structure configured to move along a stroke (S) between the first loop and the second loop to transfer the forces, wherein the multiple nested leaf springs are positioned in the first portion (102 ).
An AFX zeolite having a molar ratio of silica to alumina being not less than 10 and not higher than 32, and a lattice spacing d according to the following table: [Table 1] Lattice spacing d [Å] 11.81 ± 0.13 10.13 ± 0.08 7.59 ± 0.08 6.80 ± 0.06 4.96 ± 0.035 4.34 ± 0.02 4.06 ± 0.02
A liquid adsorption system , comprising: a vapor barrier container having a sealable internal volume; a liquid dispensing device located in the internal volume, wherein the liquid dispensing device includes liquid in a liquid flow path extending through at least a portion of the liquid dispensing device to an opening in communication with the internal volume; and a liquid adsorbing material located in the internal volume; wherein the liquid adsorbing material is separate and distinct from the liquid dispensing device ; wherein the liquid dispensing device is a printhead or printhead assembly; wherein the printhead or printhead assembly includes nozzles; and wherein the opening comprises at least one nozzle of the nozzles. a vapor barrier container having a sealable internal volume; a liquid dispensing device located in the internal volume, wherein the liquid dispensing device includes liquid in a liquid flow path extending through at least a portion of the liquid dispensing device to an opening in communication with the internal volume; and a liquid adsorbing material located in the internal volume; wherein the liquid adsorbing material is separate and distinct from the liquid dispensing device ; wherein the liquid dispensing device is a printhead or printhead assembly; wherein the printhead or printhead assembly includes nozzles; and wherein the opening comprises at least one nozzle of the nozzles.
Device for soldering, in particular for reflow soldering, at least one assembly , comprising a process chamber device , comprising at least two process chambers (6, 6', 6", 6′′′) for preparing a soldering process and/or for carrying out a soldering process and/or for post-processing a soldering process, wherein the at least two process chambers (6, 6', 6", 6"'), in particular stack-like, are arranged on top of each other, wherein the device comprises a handling unit comprising a transfer device and which comprises at least one transfer means comprising transfer means for carrying out a transfer movement , wherein at least one soldered and/or soldered assembly is provided by means of the transfer means - from a non-working position, in particular a transfer position , to a first working position located in the interior of a first process chamber and/or - from a first working position lying in the interior of a first process chamber to a non-working position, in particular a transfer position and/or - from a first working position located in the interior of a first process chamber to a second working position It is relocated, where the transfer means can be protruded at least in sections and temporarily into the interior of the process chamber (6, 6', 6", 6′′′), characterized in that - the process chamber device are arranged on a first side portion and the handling unit on a second side portion of the device , wherein the device is arranged that an introduction of soldered or soldered assemblies from a location outside the device into the handling unit and an execution of soldered assemblies from the handling unit to a destination outside the device takes place exclusively via the second side portion of the device . - from a non-working position, in particular a transfer position , to a first working position located in the interior of a first process chamber and/or - from a first working position lying in the interior of a first process chamber to a non-working position, in particular a transfer position and/or - from a first working position located in the interior of a first process chamber to a second working position It is relocated, where the transfer means can be protruded at least in sections and temporarily into the interior of the process chamber (6, 6', 6", 6′′′), characterized in that It is relocated, where the transfer means can be protruded at least in sections and temporarily into the interior of the process chamber (6, 6', 6", 6′′′), characterized in that - the process chamber device are arranged on a first side portion and the handling unit on a second side portion of the device , wherein the device is arranged that an introduction of soldered or soldered assemblies from a location outside the device into the handling unit and an execution of soldered assemblies from the handling unit to a destination outside the device takes place exclusively via the second side portion of the device .
Light module, for lighting and/or signalling of a motor vehicle, comprising: - at least first emission means (2; 102) of a light of a first colour, the first emission means (2; 102) being capable of emitting a light of amber colour to produce the direction indicator function; - at least second emission means (4; 104) of a light of a second colour, the second emission means (4; 104) being capable of emitting a light of a blue and/or green and/or blue-green colour complementing the amber colour, characterized in that it comprises at least one optical element (8; 108) arranged to receive said lights of different colours and to combine them, the colours being complementary to one another such that the combination of said lights produces white light necessary to the production of daytime running lights by the combination of light rays emitted by the first and second emission means. - at least first emission means (2; 102) of a light of a first colour, the first emission means (2; 102) being capable of emitting a light of amber colour to produce the direction indicator function; - at least second emission means (4; 104) of a light of a second colour, the second emission means (4; 104) being capable of emitting a light of a blue and/or green and/or blue-green colour complementing the amber colour, characterized in that it comprises at least one optical element (8; 108) arranged to receive said lights of different colours and to combine them, the colours being complementary to one another such that the combination of said lights produces white light necessary to the production of daytime running lights by the combination of light rays emitted by the first and second emission means.
Method for fitting a bar of a warp knitting machine with knitting tools , in which the knitting tools are inserted into grooves of a needle bed of the bar, wherein the grooves having a predetermined pitch, wherein knitting tools being used which are held in receptacles of an insertion tool which have the predetermined pitch, wherein the insertion tool having a body which is formed from a plastic material and the receptacles being designed as slots, the insertion tool being positioned on the needle bed and the knitting tools being inserted into the grooves , which is formed from a plastic material and the receptacles are designed as slots, the insertion tool being positioned on the needle bed and the knitting tools being transferred into the grooves with the aid of the insertion tool , characterized in that an insertion tool is used from which the knitting tools project out of the receptacles with a longitudinal side transverse to the longitudinal side.
An electrically driven compressor assembly comprising: a shaft ; a compressor wheel that is supported on the shaft ; an electric motor with a stator and a rotor , the electric motor configured to rotate the shaft and the compressor wheel ; a housing assembly configured to house the stator , the rotor , and at least part of the shaft , the housing assembly including a first member and a second member , the second member being radially overlapped and received within an open first end of the first member of the housing assembly ; a bearing configured to support rotation of the shaft relative to the second member of the housing assembly about an axis of rotation ; characterized in that a dampener is disposed between the first member and the second member of the housing assembly , the dampener configured to elastically deform to provide dampening of a force transferred between the first member and the second member of the housing assembly . a shaft ; a compressor wheel that is supported on the shaft ; an electric motor with a stator and a rotor , the electric motor configured to rotate the shaft and the compressor wheel ; a housing assembly configured to house the stator , the rotor , and at least part of the shaft , the housing assembly including a first member and a second member , the second member being radially overlapped and received within an open first end of the first member of the housing assembly ; a bearing configured to support rotation of the shaft relative to the second member of the housing assembly about an axis of rotation ; characterized in that a dampener is disposed between the first member and the second member of the housing assembly , the dampener configured to elastically deform to provide dampening of a force transferred between the first member and the second member of the housing assembly .