mhurhangee/patent-ind-claim-en huggingface dataset:
A brewing unit for a beverage preparation device, in particular a coffee and/or espresso machine, the brewing unit comprising: a brewing chamber adjustable between different operating positions by means of a drive or adjustment mechanism and configured to receive a beverage substrate , in particular ground coffee powder, via an opening of the brewing chamber and having a brewing chamber bottom (2.3), which is preferably located opposite the opening , and a preferably cylindrical brewing chamber wall (2.1), which is adjacent to the brewing chamber bottom (2.3) and is connected to the brewing chamber bottom (2.3) and in particular defines the opening ; and a brew head , at least part of which, preferably a protruding brewing piston , is inserted into the opening of the brewing chamber at least when the brewing chamber is in a brewing position, characterized in that the brewing chamber is connected to a brewing chamber support via elastic deformation means , preferably multiple springs, in particular helical wound springs, and spaced apart therefrom in a movable manner, and the deformation means are dimensioned and designed in such a manner that when a minimum amount of beverage substrate is present in the brewing chamber and when the brewing chamber is moved in the direction of the brewing position, a pressing surface of the brew head , in particular of the brewing piston , comes into contact with the beverage substrate before the brewing position is reached, and when the brewing chamber is moved further in the direction of the brewing position, the pressing surface effects an elastic deformation of the deformation means and a movement of the brewing chamber toward the brewing chamber support in addition to a compaction of the beverage substrate . a brew head , at least part of which, preferably a protruding brewing piston , is inserted into the opening of the brewing chamber at least when the brewing chamber is in a brewing position, characterized in that the brewing chamber is connected to a brewing chamber support via elastic deformation means , preferably multiple springs, in particular helical wound springs, and spaced apart therefrom in a movable manner, and the deformation means are dimensioned and designed in such a manner that when a minimum amount of beverage substrate is present in the brewing chamber and when the brewing chamber is moved in the direction of the brewing position, a pressing surface of the brew head , in particular of the brewing piston , comes into contact with the beverage substrate before the brewing position is reached, and when the brewing chamber is moved further in the direction of the brewing position, the pressing surface effects an elastic deformation of the deformation means and a movement of the brewing chamber toward the brewing chamber support in addition to a compaction of the beverage substrate .
A wireless power transmission system, including a wireless power repeater , a power supply apparatus and a wireless power transmitter , wherein the repeater is configured to repeat power between the wireless power transmitter and an electronic device, wherein the wireless power repeater comprises: a controller; a charging container having a bottom and at least two sides, wherein the charging container has a form for receiving the electronic device; and a repeating coil placed at least at one side of the charging container to repeat the power between the wireless power transmitter and the electronic device by using resonance, wherein the charging container has a hexahedral shape, wherein the repeating coil includes a first repeating coil , a second repeating coil , and a third repeating coil , characterized in that the first to third repeating coils comprise a conduction line wound repeatedly to have a spiral form, wherein the first repeating coil is disposed at the bottom of the container to repeat the power between the wireless power transmitter and the electronic device, wherein the second and third repeating coils are respectively disposed at the at least two sides of the charging container to repeat the power between the wireless power transmitter and the electronic device, wherein the bottom and the two sides of the charging container are arranged at an angle of 90 degrees each other, wherein the controller is configured to control current to flow through the first to third repeating coils at predetermined time intervals, wherein the controller is configured to generate a magnetic field by alternately sequentially applying current to the first to third repeating coils at the predetermined time intervals. a controller; a charging container having a bottom and at least two sides, wherein the charging container has a form for receiving the electronic device; and a repeating coil placed at least at one side of the charging container to repeat the power between the wireless power transmitter and the electronic device by using resonance, wherein the charging container has a hexahedral shape, wherein the repeating coil includes a first repeating coil , a second repeating coil , and a third repeating coil , characterized in that the first to third repeating coils comprise a conduction line wound repeatedly to have a spiral form, wherein the first repeating coil is disposed at the bottom of the container to repeat the power between the wireless power transmitter and the electronic device, wherein the second and third repeating coils are respectively disposed at the at least two sides of the charging container to repeat the power between the wireless power transmitter and the electronic device, wherein the bottom and the two sides of the charging container are arranged at an angle of 90 degrees each other, wherein the controller is configured to control current to flow through the first to third repeating coils at predetermined time intervals, wherein the controller is configured to generate a magnetic field by alternately sequentially applying current to the first to third repeating coils at the predetermined time intervals.
A method of making compound Ia): comprising the steps of: converting compound 11a into compound 3a: wherein X is selected from fluorine, chlorine, bromine and iodine; Z is -CO 2 R; and R is C 1 -C 6 alkyl; and converting compound 3a into compound (Ia). converting compound 11a into compound 3a: wherein X is selected from fluorine, chlorine, bromine and iodine; Z is -CO 2 R; and R is C 1 -C 6 alkyl; and wherein X is selected from fluorine, chlorine, bromine and iodine; Z is -CO 2 R; and R is C 1 -C 6 alkyl; and converting compound 3a into compound (Ia).
An information processing apparatus comprising: a lexical analysis unit configured to conduct lexical analysis that divides a source code on a per word basis; a compression unit configured to compress respectively an internal code related to each divided word in the source code by assigning a compression code to the internal code, on which the lexical analysis unit has conducted lexical analysis, by using a compression dictionary that associates the internal code and the compression code, the internal code being related to a character string of a word, the compression code being set by encoding as entropy coding with the appearance frequency of the word; a conversion unit configured to, when an execution command of an interpreter is received for the source code compressed by the compression unit , convert respectively the each compressed internal code in the source code into an internal code in accordance with the compression dictionary; and an execution unit configured to sequentially execute processing in accordance with the internal code converted by the conversion unit . a lexical analysis unit configured to conduct lexical analysis that divides a source code on a per word basis; a compression unit configured to compress respectively an internal code related to each divided word in the source code by assigning a compression code to the internal code, on which the lexical analysis unit has conducted lexical analysis, by using a compression dictionary that associates the internal code and the compression code, the internal code being related to a character string of a word, the compression code being set by encoding as entropy coding with the appearance frequency of the word; a conversion unit configured to, when an execution command of an interpreter is received for the source code compressed by the compression unit , convert respectively the each compressed internal code in the source code into an internal code in accordance with the compression dictionary; and an execution unit configured to sequentially execute processing in accordance with the internal code converted by the conversion unit .
A bispecific antibody that comprises a variable domain that binds an extracellular part of a membrane associated member of the epidermal growth factor (EGF) receptor family and a variable domain that binds an extracellular part of a membrane associated member of a WNT-signaling pathway, wherein the bispecific antibody comprises variable domains that bind EGFR and Leucine-Rich Repeat Containing G Protein-Coupled Receptor 5 (LGR5).
A power capacitor comprising: - a casing , - a first bushing , - a second bushing or an earthing stud having the same electric potential as the casing , wherein the first bushing and the second bushing extend through the casing , - a dielectric liquid, and - a plurality of wound capacitor elements , each wound capacitor element comprising: a first electrode comprising two first layers of electrically conducting material connected to the first bushing , the two first layers being arranged movable towards and from each other, a second electrode comprising two second layers of electrically conducting material connected to the second bushing or to the earthing stud, the two second layers being arranged movable towards and from each other, and a dielectric layer arranged between the first electrode and the second electrode , wherein the two first layers , the two second layers and the dielectric layer are together wound in a plurality of turns to obtain a plurality of layers of the first electrode , of the second electrode and of the dielectric layer , wherein the wound capacitor elements are arranged in a stacked manner in the casing , adjacent wound capacitor elements being in direct contact with each other, wherein the capacitor elements are submerged in the dielectric liquid. - a casing , - a first bushing , - a second bushing or an earthing stud having the same electric potential as the casing , wherein the first bushing and the second bushing extend through the casing , - a dielectric liquid, and - a plurality of wound capacitor elements , each wound capacitor element comprising: a first electrode comprising two first layers of electrically conducting material connected to the first bushing , the two first layers being arranged movable towards and from each other, a second electrode comprising two second layers of electrically conducting material connected to the second bushing or to the earthing stud, the two second layers being arranged movable towards and from each other, and a dielectric layer arranged between the first electrode and the second electrode , wherein the two first layers , the two second layers and the dielectric layer are together wound in a plurality of turns to obtain a plurality of layers of the first electrode , of the second electrode and of the dielectric layer , a first electrode comprising two first layers of electrically conducting material connected to the first bushing , the two first layers being arranged movable towards and from each other, a second electrode comprising two second layers of electrically conducting material connected to the second bushing or to the earthing stud, the two second layers being arranged movable towards and from each other, and a dielectric layer arranged between the first electrode and the second electrode , wherein the two first layers , the two second layers and the dielectric layer are together wound in a plurality of turns to obtain a plurality of layers of the first electrode , of the second electrode and of the dielectric layer ,
A polymeric composition comprising: i) from about 0.1 to about 20 weight percent of a grafted polyolefin, wherein the grafted polyolefin has a polyolefin backbone including about 80 weight percent or more ethylene, based on the total weight of the polyolefin backbone, and a functional graft including one or more oxygen atoms; ii) from about 5 to about 34 weight percent of a propylene based elastomer, wherein the propylene based elastomer is a random copolymer having a propylene concentration of about 75 weight percent or more, and a crystallinity of 25 percent or less; iii) from about 40 to about 90 weight percent of one or more polyethylene resins; and iv) optionally up to about 35 weight percent of one or more polypropylene resins having a crystallinity of about 30 percent or more; wherein the functional graft is present in an amount from about 0.02 to about 1.2 weight percent based on the total weight of the polymeric composition; the total amount of the grafted polyolefin, the propylene based elastomer, the polyethylene resins, and the polypropylene resins is from about 95 to about 100 weight percent, based on the total weight of the polymeric composition. i) from about 0.1 to about 20 weight percent of a grafted polyolefin, wherein the grafted polyolefin has a polyolefin backbone including about 80 weight percent or more ethylene, based on the total weight of the polyolefin backbone, and a functional graft including one or more oxygen atoms; ii) from about 5 to about 34 weight percent of a propylene based elastomer, wherein the propylene based elastomer is a random copolymer having a propylene concentration of about 75 weight percent or more, and a crystallinity of 25 percent or less; iii) from about 40 to about 90 weight percent of one or more polyethylene resins; and iv) optionally up to about 35 weight percent of one or more polypropylene resins having a crystallinity of about 30 percent or more;
Multi beam charged particle system, comprising a manipulator device (113;201) for manipulation of one or more of a plurality of charged particle beams, wherein the manipulator device comprises: - a planar substrate comprising an array of manipulators each comprising a through opening in the plane of the planar substrate, wherein each through opening is arranged for passing at least one charged particle beam there through and each through opening is provided with electrodes (204;301-320) arranged around the through opening, said electrodes are arranged in a first set of multiple first electrodes along a first part of a perimeter of said through opening and in a second set of multiple second electrodes along a second part of said perimeter, and - electronic control circuits integrated with the planar substrate and arranged for providing voltage differences to pairs of electrodes, each pair consisting of a first electrode from the first set and a second electrode from the second set, in dependence of a position of the first and second electrode along the perimeter of the through opening, in order to provide an electrical field that is homogeneous across the through opening, wherein the planar substrate at each through opening is provided with multiple metal layers (701-706) with an electrical insulating layer in between, wherein each one of said metal layers provides a set of electrodes around said through opening, and wherein the individual electrodes in the multiple metal layers that are arranged above each other are interconnected by vias. - a planar substrate comprising an array of manipulators each comprising a through opening in the plane of the planar substrate, wherein each through opening is arranged for passing at least one charged particle beam there through and each through opening is provided with electrodes (204;301-320) arranged around the through opening, said electrodes are arranged in a first set of multiple first electrodes along a first part of a perimeter of said through opening and in a second set of multiple second electrodes along a second part of said perimeter, and - electronic control circuits integrated with the planar substrate and arranged for providing voltage differences to pairs of electrodes, each pair consisting of a first electrode from the first set and a second electrode from the second set, in dependence of a position of the first and second electrode along the perimeter of the through opening, in order to provide an electrical field that is homogeneous across the through opening,
An application control method, comprising: detecting (S101), by a terminal, a user operation on an application icon; wherein an application represented by the application icon has at least one associated function; determining (S 102), by the terminal, at least one associated function corresponding to the detected user operation, wherein each of the associated function(s) corresponds to the detected user operation on the application icon that is used to start the associated function; and starting (S103), by the terminal in response to the detected user operation, said at least one associated function corresponding to the detected user operation; wherein starting the associated function corresponding to the user operation includes displaying at least one interface associated with the associated function corresponding to the detected user operation; and if the user operation is a sliding operation of an arc sliding track, detecting, by the terminal, a ratio R of a sliding arc length of the sliding operation to an entire circumference, determining, based on the ratio R, a quantity N of associated applications to be started, and finally starting the N associated applications, wherein N is directly proportional to R such that closer proximity between the user sliding arc and the entire circumference indicates a larger quantity of associated applications that will be started. detecting (S101), by a terminal, a user operation on an application icon; wherein an application represented by the application icon has at least one associated function; determining (S 102), by the terminal, at least one associated function corresponding to the detected user operation, wherein each of the associated function(s) corresponds to the detected user operation on the application icon that is used to start the associated function; and starting (S103), by the terminal in response to the detected user operation, said at least one associated function corresponding to the detected user operation; wherein starting the associated function corresponding to the user operation includes displaying at least one interface associated with the associated function corresponding to the detected user operation; and if the user operation is a sliding operation of an arc sliding track, detecting, by the terminal, a ratio R of a sliding arc length of the sliding operation to an entire circumference, determining, based on the ratio R, a quantity N of associated applications to be started, and finally starting the N associated applications, wherein N is directly proportional to R such that closer proximity between the user sliding arc and the entire circumference indicates a larger quantity of associated applications that will be started.
A beverage dispensing machine comprising a first hydraulic circuit (C1) including a water source , a pump , a water heating means , a brewing means , said brewing means having inlet and outlet means, beverage collecting means for collecting brewed beverage leaving said brewing means and for dispensing said beverage to a container, a second hydraulic circuit (C2) that includes a second pump and second water heating means , said second water heating means being different and separate from the water heating means of the first circuit (C1), and wherein the outlet of said water heating means being connected to said first circuit (C1) at a location that is downstream to the said brewing means with respect to the water flow in said first circuit (C1), characterized in further comprising control means to operate said second circuit (C2) to provide a second circuit flow rate (fr 2 ) as a function (fr 2 = f fr 1 ) of said first circuit flow-rate (fr 1 ) according to the desired type of drink to be prepared.
A smoking article incorporating an additive delivery system, the additive delivery system comprising: a frangible capsule comprising a breakable shell containing a liquid core comprising a first additive, wherein the shell can be broken by means of a pressure to release a single burst of the liquid core; and a sustained-release liquid delivery material comprising a liquid composition containing a second additive, wherein the liquid composition is releasable in discrete amounts from the liquid delivery material upon compression of the liquid delivery material so as to selectively combine the first and the second additive, wherein the frangible capsule and the sustained-release liquid delivery material are spaced at least 10 mm apart in the longitudinal direction, such that a consumer can separately and selectively activate the release of additive from either component of the frangible capsule and the sustained-release liquid delivery material . a frangible capsule comprising a breakable shell containing a liquid core comprising a first additive, wherein the shell can be broken by means of a pressure to release a single burst of the liquid core; and a sustained-release liquid delivery material comprising a liquid composition containing a second additive, wherein the liquid composition is releasable in discrete amounts from the liquid delivery material upon compression of the liquid delivery material so as to selectively combine the first and the second additive, wherein the frangible capsule and the sustained-release liquid delivery material are spaced at least 10 mm apart in the longitudinal direction, such that a consumer can separately and selectively activate the release of additive from either component of the frangible capsule and the sustained-release liquid delivery material .
A fertilizer composition, comprising (a) a priming carbon source comprising at least 5% by weight of plant or animal derived fat or mono- or disaccharides or any mixture thereof (pC); and (b) a source of nitrogen, wherein the carbon of plant or animal derived fat or mono- or disaccharides or any mixture thereof (pC) to nitrogen (N) ratio of the fertilizer is from 7:1 to 2:1 (a) a priming carbon source comprising at least 5% by weight of plant or animal derived fat or mono- or disaccharides or any mixture thereof (pC); and (b) a source of nitrogen,