mhurhangee/patent-ind-claim-en huggingface dataset:
A mixed-signal integrated circuit , comprising: an analog circuit comprising at least one digital block embedded in the analog circuit , the at least one digital block comprising a plurality of functional bits and a plurality of configuration bits , the plurality of functional bits providing for a functionality of the analog circuit according to a designed functionality and the plurality of configuration bits being usable for configuring a plurality of operational modes of the analog circuit ; and a digital circuit comprising a scan chain configured to scan at least part of the functional bits of the digital block embedded in the analog circuit with respect to the designed functionality, wherein the scan chain is further configured to set at least part of the configuration bits of the digital block embedded in the analog circuit according to a selected operational mode of the plurality of operational modes of the analog circuit ; wherein the scan chain is configured to scan the at least part of the functional bits of the digital block when the scan chain is in a Design-for-Test mode and to set the at least part of the configuration bits of the digital block when the scan chain is in a Functional-Scan mode; characterized in that in the Functional-Scan mode only the configuration bits are scanned and in the Design-for-Test mode both the functional bits and the configuration bits are scanned. an analog circuit comprising at least one digital block embedded in the analog circuit , the at least one digital block comprising a plurality of functional bits and a plurality of configuration bits , the plurality of functional bits providing for a functionality of the analog circuit according to a designed functionality and the plurality of configuration bits being usable for configuring a plurality of operational modes of the analog circuit ; and a digital circuit comprising a scan chain configured to scan at least part of the functional bits of the digital block embedded in the analog circuit with respect to the designed functionality, wherein the scan chain is further configured to set at least part of the configuration bits of the digital block embedded in the analog circuit according to a selected operational mode of the plurality of operational modes of the analog circuit ; wherein the scan chain is configured to scan the at least part of the functional bits of the digital block when the scan chain is in a Design-for-Test mode and to set the at least part of the configuration bits of the digital block when the scan chain is in a Functional-Scan mode; characterized in that in the Functional-Scan mode only the configuration bits are scanned and in the Design-for-Test mode both the functional bits and the configuration bits are scanned.
A method for refolding a denatured protein, comprising combining a composition comprising denatured proteins with a solubilization buffer having a pH in the range of 10.5 to 13 to thereby obtain a composition comprising solubilized denatured proteins; and combining the composition comprising solubilized denatured proteins with a refold buffer having a pH in the range of 9 to 11 to thereby obtain a composition comprising refolded proteins; wherein the method does not include the use of a denaturing agent. combining a composition comprising denatured proteins with a solubilization buffer having a pH in the range of 10.5 to 13 to thereby obtain a composition comprising solubilized denatured proteins; and combining the composition comprising solubilized denatured proteins with a refold buffer having a pH in the range of 9 to 11 to thereby obtain a composition comprising refolded proteins; wherein the method does not include the use of a denaturing agent.
A sealant composition , comprising sealant and a light converting material uniformly distributed in the sealant, wherein the light converting material comprises a particulate quantum dot material and is capable of converting incident light entering into the sealant to light for curing the sealant.
A curable composition, comprising: 100 parts by weight of a reactive silyl group-containing organic polymer (A) that has a number average molecular weight of 2,000 to 6,000 and contains 2 to 5 reactive silyl groups per molecule, wherein the backbone structure of the reactive silyl group-containing organic polymer (A) has at least one branch and the backbone skeleton of the reactive silyl group-containing organic polymer (A) is a polyoxyalkylene polymer; 50 to 200 parts by weight of a reactive silyl group-containing organic polymer (B) per 100 parts by weight of the reactive silyl group-containing organic polymer (A), wherein the reactive silyl group-containing organic polymer (B) has a number average molecular weight of 8,000 to 50,000 and contains 1.3 to 5 reactive silyl groups per molecule, wherein the backbone skeleton of the reactive silyl group-containing organic polymer (B) is a polyoxyalkylene polymer, and wherein the reactive silyl group-containing organic polymer (B) has a reactive silyl group represented by formula : -SiR 1 X 2 wherein each R 1 is independently a C 1 to C 20 alkyl group, a C 6 to C 20 aryl group, a C 7 to C 20 aralkyl group, or a triorganosiloxy group represented by -OSi(R') 3 where each R' is independently a C 1 to C 20 hydrocarbon group; each X is independently a hydroxy group or a hydrolyzable group; and 0 to 40 parts by weight of a plasticizer (C) for each 100 parts by weight in total of the reactive silyl group-containing organic polymer (A) and the reactive silyl group-containing organic polymer (B). 100 parts by weight of a reactive silyl group-containing organic polymer (A) that has a number average molecular weight of 2,000 to 6,000 and contains 2 to 5 reactive silyl groups per molecule, wherein the backbone structure of the reactive silyl group-containing organic polymer (A) has at least one branch and the backbone skeleton of the reactive silyl group-containing organic polymer (A) is a polyoxyalkylene polymer; 50 to 200 parts by weight of a reactive silyl group-containing organic polymer (B) per 100 parts by weight of the reactive silyl group-containing organic polymer (A), wherein the reactive silyl group-containing organic polymer (B) has a number average molecular weight of 8,000 to 50,000 and contains 1.3 to 5 reactive silyl groups per molecule, wherein the backbone skeleton of the reactive silyl group-containing organic polymer (B) is a polyoxyalkylene polymer, and wherein the reactive silyl group-containing organic polymer (B) has a reactive silyl group represented by formula : -SiR 1 X 2 wherein each R 1 is independently a C 1 to C 20 alkyl group, a C 6 to C 20 aryl group, a C 7 to C 20 aralkyl group, or a triorganosiloxy group represented by -OSi(R') 3 where each R' is independently a C 1 to C 20 hydrocarbon group; each X is independently a hydroxy group or a hydrolyzable group; and 0 to 40 parts by weight of a plasticizer (C) for each 100 parts by weight in total of the reactive silyl group-containing organic polymer (A) and the reactive silyl group-containing organic polymer (B).
A method performed by a base station for communicating with a user equipment in a communication network , the base station being configured to communicate with the user equipment according to a user equipment category selected from at least two user equipment categories, wherein the at least two user equipment categories comprise a first user equipment category and a second user equipment category, the method comprising: receiving , from the user equipment , information about the at least two user equipment categories and at least a first number of maximum DL MIMO transmission layers associated with the first user equipment category, wherein at least a second number of maximum DL MIMO transmission layers is associated with the second user equipment category; and transmitting an indication to the user equipment of a supported number of maximum DL MIMO transmission layers, when the base station supports the first user equipment category. receiving , from the user equipment , information about the at least two user equipment categories and at least a first number of maximum DL MIMO transmission layers associated with the first user equipment category, wherein at least a second number of maximum DL MIMO transmission layers is associated with the second user equipment category; and transmitting an indication to the user equipment of a supported number of maximum DL MIMO transmission layers, when the base station supports the first user equipment category.
A pocketed spring assembly for a bedding or seating product, said pocketed spring assembly comprising: interior and exterior parallel strings of pocketed springs of approximately the same height, each of the strings being joined to at least one adjacent string, each of the strings comprising a plurality of interconnected pockets , each of the pockets containing at least one spring encased in fabric, the fabric being joined to itself along a longitudinal seam and having first and second opposed plies of fabric on opposite sides of the springs , the fabric of said first and second plies being joined by transverse seams , characterized in that at least some of the pockets of the interior strings have different sizes (H p , H pp ) when empty due to different locations of the longitudinal seams of the pockets of the interior strings , the pockets of the interior strings being approximately the same height (H) with springs therein but of different firmness due, at least in part, to different properties of the pocketed springs. interior and exterior parallel strings of pocketed springs of approximately the same height, each of the strings being joined to at least one adjacent string, each of the strings comprising a plurality of interconnected pockets , each of the pockets containing at least one spring encased in fabric, the fabric being joined to itself along a longitudinal seam and having first and second opposed plies of fabric on opposite sides of the springs , the fabric of said first and second plies being joined by transverse seams , characterized in that at least some of the pockets of the interior strings have different sizes (H p , H pp ) when empty due to different locations of the longitudinal seams of the pockets of the interior strings , the pockets of the interior strings being approximately the same height (H) with springs therein but of different firmness due, at least in part, to different properties of the pocketed springs.
A vehicle comprising: a front wheel ; a rear wheel provided at a more rearward position than the front wheel ; a floor panel provided between the front wheel and the rear wheel ; an engine including a cylinder body , and provided at a rearward position of the floor panel ; and a shroud covering the cylinder body ; wherein the floor panel includes: a panel main body ; an opening provided at a front portion of the panel main body ; characterized in that a groove portion provided in an upper surface of the panel main body so as to communicate with the opening and extend in a fore-aft direction of the panel main body for supplying external air from the opening into the shroud ; wherein the groove portion is made by forming the floor panel so that the panel main body has a downward recess in its upper surface, so that the recess opens in the upper surface of the panel main body , not in the lower surface. a front wheel ; a rear wheel provided at a more rearward position than the front wheel ; a floor panel provided between the front wheel and the rear wheel ; an engine including a cylinder body , and provided at a rearward position of the floor panel ; and a shroud covering the cylinder body ; wherein the floor panel includes: a panel main body ; an opening provided at a front portion of the panel main body ; characterized in that a groove portion provided in an upper surface of the panel main body so as to communicate with the opening and extend in a fore-aft direction of the panel main body for supplying external air from the opening into the shroud ; wherein the groove portion is made by forming the floor panel so that the panel main body has a downward recess in its upper surface, so that the recess opens in the upper surface of the panel main body , not in the lower surface.
Method for an autonomous automation and robotics unit for analysing a cause of at least one deviation, having the steps of: a. receiving a state data record which is to be analysed and comprises data relating to the autonomous unit having the at least one deviation (S1); b. determining at least one preceding state data record (20, S2) ; characterized by c. determining a plurality of alternative preceding state data records on the basis of the at least one preceding state data record (20, S3); d. determining a simulated data record by simulating the state of the autonomous unit up to the present time starting from each of the plurality of alternative preceding state data records (30, S4); e. comparing the simulated data records with the state data record to be analysed (S5); f. determining a similarity value between the each of the simulated data records and the state data record to be analysed (S6); and g. outputting the simulated data record , which is most similar to the state data record to be analysed, of the alternative preceding state data record of the plurality of alternative preceding state data records , from which the output simulated data record emerges, as the cause of the at least one deviation or at least one error message on the basis of the similarity value (S7). a. receiving a state data record which is to be analysed and comprises data relating to the autonomous unit having the at least one deviation (S1); b. determining at least one preceding state data record (20, S2) ; characterized by c. determining a plurality of alternative preceding state data records on the basis of the at least one preceding state data record (20, S3); d. determining a simulated data record by simulating the state of the autonomous unit up to the present time starting from each of the plurality of alternative preceding state data records (30, S4); e. comparing the simulated data records with the state data record to be analysed (S5); f. determining a similarity value between the each of the simulated data records and the state data record to be analysed (S6); and g. outputting the simulated data record , which is most similar to the state data record to be analysed, of the alternative preceding state data record of the plurality of alternative preceding state data records , from which the output simulated data record emerges, as the cause of the at least one deviation or at least one error message on the basis of the similarity value (S7).
A vehicle control device , comprising: a target bearing calculating module configured to calculate a target bearing of a vehicle based on a direction of a disturbance; a stern bearing calculating module configured to calculate a stern bearing; and a rudder mechanism drive signal determining module configured to determine a rudder angle command so that the stern bearing approaches the target bearing, and determine a rudder mechanism drive signal based on the rudder angle command; wherein the rudder mechanism drive signal determining module determines the rudder mechanism drive signal based on a current rudder angle command, and an amount of change in the rudder angle command calculated based on a previous rudder angle command and the current rudder angle command. a target bearing calculating module configured to calculate a target bearing of a vehicle based on a direction of a disturbance; a stern bearing calculating module configured to calculate a stern bearing; and a rudder mechanism drive signal determining module configured to determine a rudder angle command so that the stern bearing approaches the target bearing, and determine a rudder mechanism drive signal based on the rudder angle command; wherein the rudder mechanism drive signal determining module determines the rudder mechanism drive signal based on a current rudder angle command, and an amount of change in the rudder angle command calculated based on a previous rudder angle command and the current rudder angle command.
Device for the comminution of feedstock with a housing extending along a rotation axis and in which a rotor rotatably driven around the rotation axis is arranged, the rotor showing over its circumference a plurality of axially parallel comminution tools (20; 20.1, 20.2, 20.3) surrounded by a stator with stator tools , the effective edges of the comminution tools (20; 20.1, 20.2, 20.3) being arranged radially spaced apart from the stator tools thus forming a grinding gap and extending along the axial length of the grinding gap , the feedstock being fed on the inlet side of the grinding gap and exiting on the outlet side of the grinding gap , the axially extending effective edges of the comminution tools (20; 20.1, 20.2, 20.3) are respectively subdivided in axial direction into at least two first partial sections L 1 with respectively a first radial clearance R 1 from the rotation axis and in at least one second partial section L 2 with a second radial clearance R 2 from the rotation axis , the second partial section L 2 being located between the at least two first partial sections L 1 and the first radial clearance R 1 being larger than the second radial clearance R 2 , the axially extending effective edges of the at least two first partial sections L 1 and the axially extending effective edge (25") of the at least one second partial section L 2 are connected together via the cross or essentially radial extending effective edges , characterized in that the second partial sections L 2 of a comminution tool (20; 20.1, 20.2, 20.3) shows an axial offset V relative to the second partial section L 2 of an adjacent comminution tool (20; 20.1, 20.2, 20.3) in the rotor .
A method of treating sections of a borehole , the method comprising: deploying an apparatus , which couples to or is part of a tubing string , to one of the sections of the borehole , the apparatus comprising first and second packers (110a-b) and comprising a flow unit disposed between the packers (110a-b), the packers (110a-b) and the flow unit being separate components with housings coupled together on the tubing string or being an integrated assembly coupled to the tubing string ; detecting at least one activation with one or more control units of the apparatus ; closing off communication of pumped fluid through the tubing string by closing an isolation valve of the apparatus in response to the at least one detected activation; setting the first and second packers (110a-b) of the apparatus against the borehole by pumping fluid pressure of the pumped fluid down the tubing string and through at least one packer valve of the packers (110a-b) opened uphole of the closed isolation valve on the apparatus ; trapping the fluid pressure in the first and second packers (110a-b) by electronically closing the at least one packer valve in response to the at least one detected activation; electronically opening at least one flow valve of the flow unit in response to the at least one detected activation; and pumping treatment of the pumped fluid from the tubing string to the section of the borehole through the opened flow valve uphole of the closed isolation valve . deploying an apparatus , which couples to or is part of a tubing string , to one of the sections of the borehole , the apparatus comprising first and second packers (110a-b) and comprising a flow unit disposed between the packers (110a-b), the packers (110a-b) and the flow unit being separate components with housings coupled together on the tubing string or being an integrated assembly coupled to the tubing string ; detecting at least one activation with one or more control units of the apparatus ; closing off communication of pumped fluid through the tubing string by closing an isolation valve of the apparatus in response to the at least one detected activation; setting the first and second packers (110a-b) of the apparatus against the borehole by pumping fluid pressure of the pumped fluid down the tubing string and through at least one packer valve of the packers (110a-b) opened uphole of the closed isolation valve on the apparatus ; trapping the fluid pressure in the first and second packers (110a-b) by electronically closing the at least one packer valve in response to the at least one detected activation; electronically opening at least one flow valve of the flow unit in response to the at least one detected activation; and pumping treatment of the pumped fluid from the tubing string to the section of the borehole through the opened flow valve uphole of the closed isolation valve .
A flux characterized in that the flux contains 15 % by mass or more and 35 % by mass or less of polyoxyalkylene ethylenediamine, 2 % by mass or more and 15 % by mass or less of an organic acid, 10 % by mass or more and 30 % by mass or less of a base material, 3 % by mass or more and 30 % by mass or less of another amine and 20 % by mass or more and 40 % by mass or less of a solvent, wherein in the polyoxyalkylene ethylenediamine, two polyoxyalkylene groups are respectively attached to nitrogen atoms at both ends of ethylenediamine.
Apparatus for sinking a vertical bore , in particular a shaft, an extraction bore in a deposit body, or a foundation bore in the ground, with at least one excavating tool for excavating material at a bottom of the bore , with at least one conveying means, which is arranged in the active region of the at least one excavating tool , for discharging material excavated at the bottom out of the bore , with a machine frame on which at least two bracing elements for locking the apparatus in the bore during drilling are arranged, with at least one means for vertically raising and lowering the machine frame in the bore , and with at least one drive for rotating the excavating tool, characterized in that the means for vertically raising and lowering the machine frame in the bore is a strand-jack system with at least one jack unit with at least one cylinder and at least one strand or one strand bundle per jack unit, said strand/strand bundle being connected to the machine frame .