mhurhangee/patent-ind-claim-en huggingface dataset:
Composite graphite particles for a nonaqueous secondary battery negative electrode, comprising graphite (A) and metal particles capable of alloying with Li (B), wherein the composite graphite particles are obtainable by preparing a slurry containing an aggregate of the graphite (A) and the metal particles (B), and drying this aggregate slurry so that 5% by weight or more of solvent, based on the total weight of the graphite (A) and the metal particles (B), remains therein, followed by carrying out spheroidizing treatment with the solvent residue still contained in the slurry; and the degree of dispersion of the metal particles (B) in the composite graphite particles is 0.78 or more and the metal particles capable of alloying with Li (B) are Si and/or Si compounds: -Measurement Method- when a lattice is drawn in the form of a grid having a length of 2 μm per side - however, length per side A/10 μm in the case the length of the long axis < 20 μm-for each of the images of the scanning electron microscope (SEM) of the cross-sections of 10 composite graphite particles satisfying the following condition: 0.5 × A + B − R ≤ 3 wherein, A represents the length of the long axis in μm, B represents the length of the short axis in μm, and R represents the volume mean particle diameter d50 in μm, the number of squares in the lattice that contain composite graphite particles are defined as x, and the number of squares in the lattice containing composite graphite particles that also contain metal particles are defined as y, then the values of y/x for any 5 particles are calculated, and the average value thereof is defined as the degree of dispersion; wherein volume mean particle diameter d50 is to be determined by adding about 20 mg of carbon powder to 1 ml of a 2% aqueous solution of polyoxyethylene sorbitan monolaurate followed by dispersing this in about 200 ml of ion exchange water, and measuring volume particle size distribution of the resulting dispersion using a laser diffraction particle size distribution analyzer. wherein, A represents the length of the long axis in μm, B represents the length of the short axis in μm, and R represents the volume mean particle diameter d50 in μm, the number of squares in the lattice that contain composite graphite particles are defined as x, and the number of squares in the lattice containing composite graphite particles that also contain metal particles are defined as y, then the values of y/x for any 5 particles are calculated, and the average value thereof is defined as the degree of dispersion; wherein volume mean particle diameter d50 is to be determined by adding about 20 mg of carbon powder to 1 ml of a 2% aqueous solution of polyoxyethylene sorbitan monolaurate followed by dispersing this in about 200 ml of ion exchange water, and measuring volume particle size distribution of the resulting dispersion using a laser diffraction particle size distribution analyzer.
A pick , in particular round-shank pick, comprising a pick head and a pick shank , wherein the pick head is formed at least from a base part and a cutting element made of a hard material, in particular of hard metal, connected to the base part , wherein the base part , following the cutting element , has a wear-resistant layer on the outer surface (41.1) thereof, said wear-resistant layer covering at least one section of the outer surface (41.1) of the base part facing the cutting element , wherein an end surface of the wear-resistant layer facing the cutting element is covered by the cutting element , wherein the base part has an axially oriented recess for receiving a fastening section of the cutting element , wherein circumferentially with respect to the recess , the base part has a mating surface facing the cutting element , wherein the mating surface and the end surface of the wear-resistant layer form a continuous planar surface, or the end surface of the wear-resistant layer is brought to the mating surface , and wherein the cutting element , circumferentially with respect to the fastening section thereof, forms a supporting surface , characterised in that the supporting surface covers the mating surface and the end surface at least in regions, and that a first soldered joint (11.1) is configured between the supporting surface and the continuous surface formed by the mating surface and the end surface .
Blow-out preventer BOP test spool system , comprising: a test spool to be mounted between a wellhead and a blow-out preventer ; the test spool having an inner cylindrical hole extending in vertical direction (Z) of the test spool ; the inner cylindrical hole in vertical direction (Z) comprising an upper section and a lower section , wherein the lower section comprises a smaller inner diameter (D14) than the inner diameter (D13) of the upper section ; and a test plug , insertable into the inner cylindrical hole of the test spool , the test plug having a cylindrical outer shape with an outer diameter (D23) that is smaller than the inner diameter (D13) of the upper section and is larger than the inner diameter (D14) of the lower section , such that the plug can abut a loading shoulder between the upper and lower section and the plug is not able to move further down within the test spool . a test spool to be mounted between a wellhead and a blow-out preventer ; the test spool having an inner cylindrical hole extending in vertical direction (Z) of the test spool ; the inner cylindrical hole in vertical direction (Z) comprising an upper section and a lower section , wherein the lower section comprises a smaller inner diameter (D14) than the inner diameter (D13) of the upper section ; and a test plug , insertable into the inner cylindrical hole of the test spool , the test plug having a cylindrical outer shape with an outer diameter (D23) that is smaller than the inner diameter (D13) of the upper section and is larger than the inner diameter (D14) of the lower section , such that the plug can abut a loading shoulder between the upper and lower section and the plug is not able to move further down within the test spool .
A catheter for an electromagnetic tracking system comprising a control unit configured to perform triangulation, the catheter comprising: - an elongated body and a grip portion ; - an electromagnetic tracking sensor arranged at a distal end portion of the elongate body and configured to measure an intensity of an electromagnetic field generated by a field generator; and - a wireless readout unit at least temporarily attached to the grip portion and comprising a data input , a data processor , and a data output ; wherein the data input is configured to receive raw signals from the electromagnetic tracking sensor; wherein the data processor is configured to at least partly pre-process the raw signals provided by the data input by performing identification and/or separation of different signal components induced by different field emitting elements of a field generator and by performing extraction of different signal components that are needed by the control unit to perform triangulation; - wherein the data output is configured to provide a wireless data link to the control unit of the electromagnetic tracking system of the catheter and is configured for data transmission of the at least partly pre-processed data. - an elongated body and a grip portion ; - an electromagnetic tracking sensor arranged at a distal end portion of the elongate body and configured to measure an intensity of an electromagnetic field generated by a field generator; and - a wireless readout unit at least temporarily attached to the grip portion and comprising a data input , a data processor , and a data output ; wherein the data input is configured to receive raw signals from the electromagnetic tracking sensor; wherein the data processor is configured to at least partly pre-process the raw signals provided by the data input by performing identification and/or separation of different signal components induced by different field emitting elements of a field generator and by performing extraction of different signal components that are needed by the control unit to perform triangulation; wherein the data input is configured to receive raw signals from the electromagnetic tracking sensor; wherein the data processor is configured to at least partly pre-process the raw signals provided by the data input by performing identification and/or separation of different signal components induced by different field emitting elements of a field generator and by performing extraction of different signal components that are needed by the control unit to perform triangulation; - wherein the data output is configured to provide a wireless data link to the control unit of the electromagnetic tracking system of the catheter and is configured for data transmission of the at least partly pre-processed data.
Method of installing a subsea system , the method comprising the steps of: - preparing a first foundation comprising at least a first dedicated position for receiving a first subsea station , - providing the first foundation with at least a first guide system , - installing the first foundation at a subsea location, - preparing at least a first subsea station comprising a first flow module for connection with a pipeline , - installing the at least first subsea station with the first flow module at the first dedicated position on the first foundation , - preparing a pipeline and providing the pipeline with at least a first T-connection at a determined calculated position corresponding to the first dedicated position on the first foundation , - installing the pipeline and allowing the pipeline to rest on the first guide system on the first foundation such that the first T-connection is arranged at or in the proximity of the first dedicated position on the first foundation , - preparing a first piece of pipe and connecting the first T-connection of the pipeline with the first flow module on the first subsea station using the first piece of pipe . - preparing a first foundation comprising at least a first dedicated position for receiving a first subsea station , - providing the first foundation with at least a first guide system , - installing the first foundation at a subsea location, - preparing at least a first subsea station comprising a first flow module for connection with a pipeline , - installing the at least first subsea station with the first flow module at the first dedicated position on the first foundation , - preparing a pipeline and providing the pipeline with at least a first T-connection at a determined calculated position corresponding to the first dedicated position on the first foundation , - installing the pipeline and allowing the pipeline to rest on the first guide system on the first foundation such that the first T-connection is arranged at or in the proximity of the first dedicated position on the first foundation , - preparing a first piece of pipe and connecting the first T-connection of the pipeline with the first flow module on the first subsea station using the first piece of pipe .
A depth image generating apparatus comprising: a light source configured to emit light towards an object so that the light is reflected by the object; an optical shutter provided on a path of the light reflected by the object and configured to modulate a waveform of the reflected light by changing a transmissivity of the optical shutter with respect to the reflected light; a driver configured to apply a driving voltage to the light source and a driving voltage to the optical shutter; a depth information obtainer configured to generate an image corresponding to the reflected light that passes through the optical shutter, extract a phase difference between a phase of the light emitted by the light source to the object and a phase of the reflected light, and obtain depth information regarding the object based on the phase difference, characterized by a temperature measurer configured to measure a temperature of the optical shutter; and a controller configured to control a driving voltage (V d1 ) applied to the light source and a driving voltage (V d2 ) applied to the optical shutter based on the temperature measured by the temperature measurer. a light source configured to emit light towards an object so that the light is reflected by the object; an optical shutter provided on a path of the light reflected by the object and configured to modulate a waveform of the reflected light by changing a transmissivity of the optical shutter with respect to the reflected light; a driver configured to apply a driving voltage to the light source and a driving voltage to the optical shutter; a depth information obtainer configured to generate an image corresponding to the reflected light that passes through the optical shutter, extract a phase difference between a phase of the light emitted by the light source to the object and a phase of the reflected light, and obtain depth information regarding the object based on the phase difference, characterized by a temperature measurer configured to measure a temperature of the optical shutter; and a controller configured to control a driving voltage (V d1 ) applied to the light source and a driving voltage (V d2 ) applied to the optical shutter based on the temperature measured by the temperature measurer.
A method performed using one or more processors for securing data in a storage grid, comprising: generating a storage key from key shares of at least two storage clusters of a storage grid having at least three storage clusters; generating a grid key from at least one of the storage key and an external secret; encrypting data with the grid key to yield once encrypted data, wherein the grid key is applied to encrypt the data; encrypting the once encrypted data with the storage key to yield twice encrypted data; storing the twice encrypted data in a first storage cluster of the storage grid; and storing a replicated version of the twice encrypted data in a second storage cluster of the storage grid. generating a storage key from key shares of at least two storage clusters of a storage grid having at least three storage clusters; generating a grid key from at least one of the storage key and an external secret; encrypting data with the grid key to yield once encrypted data, wherein the grid key is applied to encrypt the data; encrypting the once encrypted data with the storage key to yield twice encrypted data; storing the twice encrypted data in a first storage cluster of the storage grid; and storing a replicated version of the twice encrypted data in a second storage cluster of the storage grid.
A method for producing formed textile multilayer-composites from at least two single layers and/or single layer composites, comprising the steps: i. heating the at least two single layer and/or single layer composites ii. concealing the single layers and/or single layer composites to an overall composite iii. forming of the overall composite in a forming press with forming tool arranged therein, characterized in that a) the heating of at least two single layers and/or single layer composites is carried out independently form each other and the heated layers are joined together before concealing, and b) the overall composite is spatially stretched in at least one direction before forming, wherein the extent of the stretching is different over the course of an axis perpendicular to the stretching direction inside the stretching plane, wherein the stretching is carried out with the aid of grippers which are arranged along a side of the overall composite and individually controllable, wherein in this way the extent of the stretching can be determined individually for each gripper, so that over the side on which the grippers are arranged it can be spatially stretched in a direction perpendicular to these side in different extent. i. heating the at least two single layer and/or single layer composites ii. concealing the single layers and/or single layer composites to an overall composite iii. forming of the overall composite in a forming press with forming tool arranged therein, a) the heating of at least two single layers and/or single layer composites is carried out independently form each other and the heated layers are joined together before concealing, and b) the overall composite is spatially stretched in at least one direction before forming, wherein the extent of the stretching is different over the course of an axis perpendicular to the stretching direction inside the stretching plane, wherein the stretching is carried out with the aid of grippers which are arranged along a side of the overall composite and individually controllable, wherein in this way the extent of the stretching can be determined individually for each gripper, so that over the side on which the grippers are arranged it can be spatially stretched in a direction perpendicular to these side in different extent.
A heat removal system for removing heat from a gas turbine, comprising: a casing which encloses a rotor that is rotated by a working fluid; wherein the casing comprises an upper half that covers an upper portion of the rotor , and a lower half that covers a lower portion of the rotor ; a heat removal system that comprises a suction device and a discharge duct , wherein a first end of the discharge duct is connected to the upper half of the casing and a second end of the discharge duct is connected to the suction device ; a flow path located between portions of the casing and the rotor , wherein the working fluid flows within the flow path which engages the discharge duct ; wherein the operation of the discharge system is controlled by a control system ; characterized in that after a combustion process ends and the speed of the rotor is within a desired range, the control system operates the suction device to forcibly draw residual working fluid out of the flow path via the discharge duct . a casing which encloses a rotor that is rotated by a working fluid; wherein the casing comprises an upper half that covers an upper portion of the rotor , and a lower half that covers a lower portion of the rotor ; a heat removal system that comprises a suction device and a discharge duct , wherein a first end of the discharge duct is connected to the upper half of the casing and a second end of the discharge duct is connected to the suction device ; a flow path located between portions of the casing and the rotor , wherein the working fluid flows within the flow path which engages the discharge duct ; wherein the operation of the discharge system is controlled by a control system ; characterized in that after a combustion process ends and the speed of the rotor is within a desired range, the control system operates the suction device to forcibly draw residual working fluid out of the flow path via the discharge duct .
A packaged, multi-meal, unitized cat food product comprising: a plurality of sealed containers, each one of the containers assembled into a single package; each one of the containers including a unit of commercially sterile, complete and balanced cat food having a mass of at least 10 grams and no more than 40 grams; the cat food having a moisture content of at least 15 percent by weight of the food. a plurality of sealed containers, each one of the containers assembled into a single package; each one of the containers including a unit of commercially sterile, complete and balanced cat food having a mass of at least 10 grams and no more than 40 grams; the cat food having a moisture content of at least 15 percent by weight of the food.
A composition comprising Thiostrepton and Vitamin E-TPGS.
A feedthrough assembly , comprising: a ferrule ; an insulating structure ; and a first glass seal fixedly securing the insulating structure within the ferrule , the first glass seal comprising a first glass and first single-phase particulate dispersed therein; wherein the first glass comprises: 25% to 40% B 2 O 3 ; 0 to 25% CaO; 0 to 25% MgO; 0 to 25% SrO; 0 to 10% La 2 O 3 ; 5% to 15% SiO 2 ; and 10% to 20% Al 2 O 3 ; wherein all percentages are mole percentages of the glass. a ferrule ; an insulating structure ; and a first glass seal fixedly securing the insulating structure within the ferrule , the first glass seal comprising a first glass and first single-phase particulate dispersed therein; wherein the first glass comprises: 25% to 40% B 2 O 3 ; 0 to 25% CaO; 0 to 25% MgO; 0 to 25% SrO; 0 to 10% La 2 O 3 ; 5% to 15% SiO 2 ; and 10% to 20% Al 2 O 3 ; wherein all percentages are mole percentages of the glass. 25% to 40% B 2 O 3 ; 0 to 25% CaO; 0 to 25% MgO; 0 to 25% SrO; 0 to 10% La 2 O 3 ; 5% to 15% SiO 2 ; and 10% to 20% Al 2 O 3 ; wherein all percentages are mole percentages of the glass.
A liquid ejection head comprising: a first substrate having an ejection port that allows a liquid to be ejected along a first-axis direction (z), a liquid chamber communicating with the ejection port , and an energy generation element that generates an energy for ejecting the liquid in the liquid chamber through the ejection port ; and a second substrate joined to a second surface of the first substrate , the second surface being on an opposite side to a first surface of the first substrate in which the ejection port is formed, a member having an opening at a position opposed to an area where the ejection port is formed; and a frame to which the support member is fixed; characterized in that the first substrate includes a projecting area projecting from an end portion of the second substrate in a planar direction (x, y) perpendicular to the first-axis direction, and a terminal to be electrically connected to the energy generation element is provided at the second surface of the projecting area ; and the member having an opening is a support member joined to the first surface of the first substrate . a first substrate having an ejection port that allows a liquid to be ejected along a first-axis direction (z), a liquid chamber communicating with the ejection port , and an energy generation element that generates an energy for ejecting the liquid in the liquid chamber through the ejection port ; and an ejection port that allows a liquid to be ejected along a first-axis direction (z), a liquid chamber communicating with the ejection port , and an energy generation element that generates an energy for ejecting the liquid in the liquid chamber through the ejection port ; and a second substrate joined to a second surface of the first substrate , the second surface being on an opposite side to a first surface of the first substrate in which the ejection port is formed, a member having an opening at a position opposed to an area where the ejection port is formed; and a frame to which the support member is fixed; characterized in that the first substrate includes a projecting area projecting from an end portion of the second substrate in a planar direction (x, y) perpendicular to the first-axis direction, and a terminal to be electrically connected to the energy generation element is provided at the second surface of the projecting area ; and the member having an opening is a support member joined to the first surface of the first substrate .