mhurhangee/patent-ind-claim-en huggingface dataset:
A method supporting query just-in-time, JIT, compilation and execution in a database management system, the method comprising: a) identifying a central processing unit ,CPU, intensive function in a query; b) identifying , in the CPU intensive function, one or more variables of the function which are invariant for a specific query, the variables used as parameters for the query and having values changeable at different query instances; c1) statically compiling the CPU intensive function to a parameterized intermediate representation, IR, including the identified variables set as the one or more parameters; c2) wherein the CPU intensive function is compiled to the parameterized IR prior to executing an incoming query at run-time with the values for the variables; d) saving the parameterized IR with the parameters of the CPU intensive function in a catalog of parameterized IRs; and comprising: e1) loading , at run-time, during preparation for execution of an incoming query, the parameterized IR from the catalog; e2) replacing , in the parameterized IR, the one or more parameters with constant values for the variables of an incoming query to obtain a modified IR; and e3) JIT compiling , using the JIT compilation, the modified parameterized IR with the constant values replacing the one or more parameters, to generate a machine code for the execution of the incoming query. a) identifying a central processing unit ,CPU, intensive function in a query; b) identifying , in the CPU intensive function, one or more variables of the function which are invariant for a specific query, the variables used as parameters for the query and having values changeable at different query instances; c1) statically compiling the CPU intensive function to a parameterized intermediate representation, IR, including the identified variables set as the one or more parameters; c2) wherein the CPU intensive function is compiled to the parameterized IR prior to executing an incoming query at run-time with the values for the variables; d) saving the parameterized IR with the parameters of the CPU intensive function in a catalog of parameterized IRs; and comprising: e1) loading , at run-time, during preparation for execution of an incoming query, the parameterized IR from the catalog; e2) replacing , in the parameterized IR, the one or more parameters with constant values for the variables of an incoming query to obtain a modified IR; and e3) JIT compiling , using the JIT compilation, the modified parameterized IR with the constant values replacing the one or more parameters, to generate a machine code for the execution of the incoming query. e1) loading , at run-time, during preparation for execution of an incoming query, the parameterized IR from the catalog; e2) replacing , in the parameterized IR, the one or more parameters with constant values for the variables of an incoming query to obtain a modified IR; and e3) JIT compiling , using the JIT compilation, the modified parameterized IR with the constant values replacing the one or more parameters, to generate a machine code for the execution of the incoming query.
A composition comprising medium chain triglycerides for use in a method of preventing and/or treating degenerative mitral valve disease (DMVD) in a companion animal, wherein the medium chain triglyceride is a lipid in which three fatty acids are bound by ester linkages to a glycerol backbone, and at least two of the fatty acids are each between six and twelve carbons in length.
An in vitro method for altering the distribution of a cell surface antigen for increased cellular internalization or for increasing co-localization of a cell surface antigen for increased cellular internalization, comprising: contacting a cell with a plurality of meditope enabled antibodies or antigen binding fragments thereof capable of binding to a cell surface antigen; contacting a meditope binding site of a first meditope enabled antibody or antigen binding fragment thereof of the plurality of meditope enabled antibodies with a first meditope from a multivalent meditope; contacting a meditope binding site of a second meditope enabled antibody or antigen binding fragment thereof of the plurality of meditope enabled antibodies with a second meditope from the multivalent meditope, resulting in crosslinking of the first and second meditope-enabled antibodies, whereby crosslinking the first and second meditope enabled antibodies with the multivalent meditope alters the distribution of the cell surface antigen or increases the co-localization of the cell surface antigen or receptor; wherein the meditope is a peptide or peptides that bind to a central cavity of a meditope-enabled antibody or antigen binding fragment thereof; wherein the multivalent meditope comprises a plurality of meditopes and one or more linkers or linking means; wherein the multivalent meditope includes a first meditope and a second meditope coupled to a first linker; wherein the first linker comprises a PASylation sequence, an Ssp Ic intein sequence, an Ssp IN intein sequence, and/or an aldehyde tag. contacting a cell with a plurality of meditope enabled antibodies or antigen binding fragments thereof capable of binding to a cell surface antigen; contacting a meditope binding site of a first meditope enabled antibody or antigen binding fragment thereof of the plurality of meditope enabled antibodies with a first meditope from a multivalent meditope; contacting a meditope binding site of a second meditope enabled antibody or antigen binding fragment thereof of the plurality of meditope enabled antibodies with a second meditope from the multivalent meditope, resulting in crosslinking of the first and second meditope-enabled antibodies, whereby crosslinking the first and second meditope enabled antibodies with the multivalent meditope alters the distribution of the cell surface antigen or increases the co-localization of the cell surface antigen or receptor; wherein the meditope is a peptide or peptides that bind to a central cavity of a meditope-enabled antibody or antigen binding fragment thereof; wherein the multivalent meditope comprises a plurality of meditopes and one or more linkers or linking means; wherein the multivalent meditope includes a first meditope and a second meditope coupled to a first linker; wherein the first linker comprises a PASylation sequence, an Ssp Ic intein sequence, an Ssp IN intein sequence, and/or an aldehyde tag.
A device for dispensing a pressurized product (G) axially extending along an axis (X), the device including: - a storage casing including a hollow body filled with a pressurized product (G), an upper mounting opening and a neck connecting said hollow body to said upper mounting opening , and - a dispensing valve including a cup , defining an upper face and a lower face, adapted to be fastened to the storage casing in order to close it and a dispensing member fastened to a radially inner portion of the cup , the cup including a peripheral fastening crown , forming the external radial end of the cup , which is tilted inwards, in an axial cross-section plane, the device being characterized in that the neck includes: - a seat portion , tilted inwards, which has a length between 0.5mm and 5mm in an axial cross-section plane, which form-fit cooperates with a lower face of the fastening crown so as to form a seat and - a locking portion folded up over an upper face of the fastening crown so as to lock its position. - a storage casing including a hollow body filled with a pressurized product (G), an upper mounting opening and a neck connecting said hollow body to said upper mounting opening , and - a dispensing valve including a cup , defining an upper face and a lower face, adapted to be fastened to the storage casing in order to close it and a dispensing member fastened to a radially inner portion of the cup , the cup including a peripheral fastening crown , forming the external radial end of the cup , which is tilted inwards, in an axial cross-section plane, - a seat portion , tilted inwards, which has a length between 0.5mm and 5mm in an axial cross-section plane, which form-fit cooperates with a lower face of the fastening crown so as to form a seat and - a locking portion folded up over an upper face of the fastening crown so as to lock its position.
A bag supply method including the steps of: causing an arrangement device to arrange a bag (B) at a pickup position (Pt); delivering the bag (B) from the pickup position (Pt) to a support device via a bag pickup device ; moving the bag (B) along with the support device in a traveling direction (A2) along a movement path including a detection position (Pd); determining arrival of the bag (B) at the detection position (Pd); stopping the bag (B) along with the support device on the movement path according to a timing when the bag (B) arrives at the detection position (Pd); and delivering the bag (B) stopped in the movement path, from the support device to a bag receiving device via a bag holding conveyance device ; the method characterized in that in the step of delivering the bag (B) from the pickup position (Pt) to the support device , the support device holds both side edges of the bag (B) and supports the bag (B) from below, and the bag pickup device releases holding of the bag (B). causing an arrangement device to arrange a bag (B) at a pickup position (Pt); delivering the bag (B) from the pickup position (Pt) to a support device via a bag pickup device ; moving the bag (B) along with the support device in a traveling direction (A2) along a movement path including a detection position (Pd); determining arrival of the bag (B) at the detection position (Pd); stopping the bag (B) along with the support device on the movement path according to a timing when the bag (B) arrives at the detection position (Pd); and delivering the bag (B) stopped in the movement path, from the support device to a bag receiving device via a bag holding conveyance device ; the method characterized in that in the step of delivering the bag (B) from the pickup position (Pt) to the support device , the support device holds both side edges of the bag (B) and supports the bag (B) from below, and the bag pickup device releases holding of the bag (B).
A coil for an antenna, comprising: a ferrite core ; and a winding conductor comprising a conducting wire wound around the ferrite core as a core bar, wherein the winding conductor includes an inner winding positioned inside when viewed from a plane perpendicular to the core bar, and an outer winding positioned outside of the inner winding , wherein a length of the outer winding when viewed from a plane parallel to the core bar is different from a length of the inner winding , wherein the length of the outer winding is greater than or equal to 50% and less than or equal to 85% of the length of the inner winding , wherein the outer winding is the conducting wire continuous with the inner winding , and wherein the impedance of the coil is 4 kΩ or more in the entire frequency range of an AM band. a ferrite core ; and a winding conductor comprising a conducting wire wound around the ferrite core as a core bar, wherein the winding conductor includes an inner winding positioned inside when viewed from a plane perpendicular to the core bar, and an outer winding positioned outside of the inner winding , wherein a length of the outer winding when viewed from a plane parallel to the core bar is different from a length of the inner winding , wherein the length of the outer winding is greater than or equal to 50% and less than or equal to 85% of the length of the inner winding , wherein the outer winding is the conducting wire continuous with the inner winding , and wherein the impedance of the coil is 4 kΩ or more in the entire frequency range of an AM band.
A process for making a solid acid alkylation catalyst, the process comprising: impregnating a support comprising an ultrastable (USY) zeolite base, with a multimetallic component to form a multimetallic catalyst, wherein the zeolite base comprises 80 wt% zeolite and 20 wt% alumina, the impregnating steps comprising: contacting the support with a platinum tetraamine nitrate salt solution via an incipient wetness technique to form a platinum catalyst; drying and calcining the platinum catalyst; contacting the resulting calcined platinum catalyst with a cobalt nitrate salt solution via an incipient wetness technique to form the multimetallic catalyst; drying and calcining the multimetallic catalyst, wherein the multimetallic catalyst comprises 0.12 wt% platinum and 0.11 wt% cobalt, wherein the drying of the platinum catalyst and the multimetallic catalyst is performed at 110°C in air and the calcining of the platinum catalyst and the multimetallic catalyst is performed at 400°C in air.
An assembly comprising at least one first smart supply meter and a first gateway device , wherein the first smart supply meter transmits the measurement data it collects wirelessly to the first gateway device and the first gateway device has an interface for connection to the internet for transferring the measurement data to a central server, wherein the first smart supply meter and the first gateway device are arranged at a distance from one another, the connection between the first smart supply meter and the first gateway device occurs in a frequency range of less than 1 GHz, and the first gateway device comprises at least one sensor for detecting at least one property of the immediate vicinity of the first gateway device , and wherein the first gateway device is designed to act on the immediate vicinity via at least one actuator of the first gateway device and/or via at least one smart home technology connected to the first gateway device as a function of specifications that can be stored in the first gateway device and the detected properties, characterised in that a second smart supply meter and a second gateway device are provided, wherein the second gateway device and the second smart supply meter are designed analogously to the first gateway device and first smart supply meter respectively, wherein the first gateway device is designed as a repeater for the wireless connection between the second smart supply meter and the second gateway device .
A process for the preparation of a polyoxyalkylene polyol (P) having a functionality of 2 to 8 and an hydroxyl number of from 5 mg KOH/g to 35 mg KOH/g by reaction of H-functional starter substances (S i ), (S c ) and (S x ) with one or more alkylene oxide(s) in the presence of a double metal cyanide catalyst (DMC), comprising (α) forming a starter mixture comprising said H-functional starter substances (S i ) and (S x ), and said double metal cyanide catalyst, and optionally, stripping the starter mixture under vacuum; (y) continuously adding (a) an alkylene oxide to the starter mixture of step (α); and continuously adding said H-functional starter substance (Sc); wherein (i) steps (γ) and either start simultaneously or step (γ) starts before step (δ); (ii) the theoretical functionality of said H-functional starter substance (S i ) is identical to the theoretical functionality of said polyoxyalkylene polyol (P) and the measured hydroxyl number of said H-functional starter substance (S i ) is within 10% of the measured hydroxyl number of said polyoxyalkylene polyol (P); (iii) said H-functional starter substance (S x ) has an equivalent weight greater than or equal to 10 Da and less than or equal to 250 Da; (iv) said H-functional starter substance (S c ) has an equivalent weight of greater than or equal to 10 Da and less than or equal to 70 Da; (v) in step (δ), the continuous addition of the H-functional starter substance (Sc) is stopped when from 30 weight percent to 99 weight percent of the total amount of alkylene oxide added in step (γ) has been added; and (vi) said hydroxyl numbers are determined according to ASTM D4274-11. (α) forming a starter mixture comprising said H-functional starter substances (S i ) and (S x ), and said double metal cyanide catalyst, and optionally, stripping the starter mixture under vacuum; (y) continuously adding (a) an alkylene oxide to the starter mixture of step (α); and continuously adding said H-functional starter substance (Sc); wherein (i) steps (γ) and either start simultaneously or step (γ) starts before step (δ); (ii) the theoretical functionality of said H-functional starter substance (S i ) is identical to the theoretical functionality of said polyoxyalkylene polyol (P) and the measured hydroxyl number of said H-functional starter substance (S i ) is within 10% of the measured hydroxyl number of said polyoxyalkylene polyol (P); (iii) said H-functional starter substance (S x ) has an equivalent weight greater than or equal to 10 Da and less than or equal to 250 Da; (iv) said H-functional starter substance (S c ) has an equivalent weight of greater than or equal to 10 Da and less than or equal to 70 Da; (v) in step (δ), the continuous addition of the H-functional starter substance (Sc) is stopped when from 30 weight percent to 99 weight percent of the total amount of alkylene oxide added in step (γ) has been added; and (vi) said hydroxyl numbers are determined according to ASTM D4274-11.
A selectively operable braking device for an elevator system including a car and a guide rail , comprising: a safety brake disposable on the car and adapted to be wedged against the guide rail when moved from a non-braking state into a braking state; an engagement mechanism having an engaging position and a nonengaging position, the engagement mechanism operably coupled to the safety brake and configured to move the safety brake between the non-braking state and braking state when the engagement mechanism moves between the nonengaging position and the engaging position; and characterised in that a first magnetic brake pad and a second magnetic brake pad , the first magnetic brake pad and the second magnetic brake pad disposed in opposing directions adjacent to the guide rail and configured to move between the non-engaging position and the engaging position, the first magnetic brake pad and the second magnetic brake pad operably coupled to the engagement mechanism , wherein the engagement mechanism is configured such that: movement of the first magnetic brake pad into the engaging position causes movement of the second magnetic brake pad into the engaging position; and such that the first and second magnetic brake pad, when in the engaging position, causes the engagement mechanism to move the safety brake from the non-braking state into the braking state. a safety brake disposable on the car and adapted to be wedged against the guide rail when moved from a non-braking state into a braking state; an engagement mechanism having an engaging position and a nonengaging position, the engagement mechanism operably coupled to the safety brake and configured to move the safety brake between the non-braking state and braking state when the engagement mechanism moves between the nonengaging position and the engaging position; and characterised in that a first magnetic brake pad and a second magnetic brake pad , the first magnetic brake pad and the second magnetic brake pad disposed in opposing directions adjacent to the guide rail and configured to move between the non-engaging position and the engaging position, the first magnetic brake pad and the second magnetic brake pad operably coupled to the engagement mechanism , wherein the engagement mechanism is configured such that: movement of the first magnetic brake pad into the engaging position causes movement of the second magnetic brake pad into the engaging position; and such that the first and second magnetic brake pad, when in the engaging position, causes the engagement mechanism to move the safety brake from the non-braking state into the braking state.
Apparatus for the manufacture of an article, the article to comprise a number of elements to be bonded together including at least one resilient element , the apparatus comprising : a guide track which defines a path along which the elements travel during manufacture; a flight for urging the elements along the guide track ; a conveyor belt operable to move the elements along the guide track ; and characterised in that the apparatus further comprises: a compression frame provided along at least part of the length of the track configured such that the elements are compressed by the compression frame as the elements are moved by the conveyor along the path defined by the guide track , wherein the compression frame comprises a first section and a second section , each section comprising two parallel rods arranged side by side to define a gap dimensioned such that the flight may extend into the gap. a guide track which defines a path along which the elements travel during manufacture; a flight for urging the elements along the guide track ; a conveyor belt operable to move the elements along the guide track ; and characterised in that the apparatus further comprises: a compression frame provided along at least part of the length of the track configured such that the elements are compressed by the compression frame as the elements are moved by the conveyor along the path defined by the guide track , wherein the compression frame comprises a first section and a second section , each section comprising two parallel rods arranged side by side to define a gap dimensioned such that the flight may extend into the gap. a compression frame provided along at least part of the length of the track configured such that the elements are compressed by the compression frame as the elements are moved by the conveyor along the path defined by the guide track , wherein the compression frame comprises a first section and a second section , each section comprising two parallel rods arranged side by side to define a gap dimensioned such that the flight may extend into the gap.
A dosing system having a dosage-dispensing unit and a dosage-dispensing device , wherein the dosage-dispensing device comprises a holder device for holding the dosage-dispensing unit , and wherein the dosage-dispensing unit comprises an interior space that is delimited by a sidewall and a bottom portion , and further comprises an outlet orifice that is formed in the bottom portion , wherein the dosage-dispensing unit can be connected to the holder device of the dosage-dispensing device and the holder device is supported so as to be movable in a prescribed direction of movement (V), and the internal surface of the bottom portion facing towards the interior space includes an at least linear surface domain that starts at the outlet orifice , which linear surface domain extends from the central lengthwise axis (X) of the outlet orifice up to the sidewall , wherein a predetermined angle ( α ) as measured between the linear surface domain and the central lengthwise axis (X) is smaller than 90°, characterized in that the prescribed direction of movement (V) occurs at a predetermined angle ( α ) relative to the central longitudinal axis (X) of the outlet orifice and along the at least linear surface domain of the internal surface of the bottom portion facing towards the interior space .