mhurhangee/patent-ind-claim-en huggingface dataset:
A composition for cobalt electroplating comprising (a) metal ions consisting essentially of cobalt ions, and (b) a leveling agent comprising the compound of formula L1 [B] n [A] p (L1) or comprising the compound of formula L3a or L3b and their salts, wherein R 1 is X 1 -CO-O-R 11 ; R 2 , R 3 , R 4 are independently selected from R 1 and (i) H, (ii) aryl, (iii) C 1 to C 10 alkyl (iv) arylalkyl, (v) alkylaryl, and (vi) -(O-C 2 H 3 R 12 ) m -OH, with the proviso that if one of R 2 , R 3 or R 4 are selected from R 1 , the other groups R 2 , R 3 or R 4 are different from R 1 ; R 31 is selected from R 1 , H, OR 32 and R 32 ; R 32 is selected from (i) H and (ii) C 1 to C 6 alkyl; X 1 is a divalent group selected from (i) a chemical bond (ii) aryl, (iii) C 1 to C 12 alkanediyl, which may be interrupted by O atoms, (iv) arylalkyl group -X 11 -X 12 -, (v) alkylaryl group -X 12 -X 11 -, and (vi) -(O-C 2 H 3 R 12 ) m O-; X 2 is (i) a chemical bond or (ii) methanediyl; R 11 is selected from H and C 1 to C 4 alkyl; R 12 is selected from H and C 1 to C 4 alkyl; X 12 is a divalent aryl group; X 11 is a divalent C 1 to C 15 alkandiyl group; A is a co-monomer selected from vinyl alcohol, which may optionally be (poly)ethyoxylated, and acrylamide; B is selected from formula L1a n is an integer from 2 to 10 000; m is an integer from 2 to 50; o is an integer from 2 to 1 000; and p is 0 or an integer from 1 to 10 000; wherein the composition is free of any dispersed particles, characterized in that the composition is free of any metal ions except cobalt ions. (a) metal ions consisting essentially of cobalt ions, and (b) a leveling agent comprising the compound of formula L1 [B] n [A] p (L1) or comprising the compound of formula L3a or L3b and their salts, or comprising the compound of formula L3a or L3b and their salts, R 1 is X 1 -CO-O-R 11 ; R 2 , R 3 , R 4 are independently selected from R 1 and (i) H, (ii) aryl, (iii) C 1 to C 10 alkyl (iv) arylalkyl, (v) alkylaryl, and (vi) -(O-C 2 H 3 R 12 ) m -OH, with the proviso that if one of R 2 , R 3 or R 4 are selected from R 1 , the other groups R 2 , R 3 or R 4 are different from R 1 ; R 31 is selected from R 1 , H, OR 32 and R 32 ; R 32 is selected from (i) H and (ii) C 1 to C 6 alkyl; X 1 is a divalent group selected from (i) a chemical bond (ii) aryl, (iii) C 1 to C 12 alkanediyl, which may be interrupted by O atoms, (iv) arylalkyl group -X 11 -X 12 -, (v) alkylaryl group -X 12 -X 11 -, and (vi) -(O-C 2 H 3 R 12 ) m O-; X 2 is (i) a chemical bond or (ii) methanediyl; R 11 is selected from H and C 1 to C 4 alkyl; R 12 is selected from H and C 1 to C 4 alkyl; X 12 is a divalent aryl group; X 11 is a divalent C 1 to C 15 alkandiyl group; A is a co-monomer selected from vinyl alcohol, which may optionally be (poly)ethyoxylated, and acrylamide; B is selected from formula L1a n is an integer from 2 to 10 000; m is an integer from 2 to 50; o is an integer from 2 to 1 000; and p is 0 or an integer from 1 to 10 000;
A driving operation determination table data creation unit configured to provide, for a train system that determines a driving operation of a train based on predetermined input information, driving operation determination table data information that constitutes one of the predetermined input information and provides a determination criterion for the driving operation, the driving operation determination table data creation unit , comprising: an overall table creation unit configured to create constant speed table information and coasting table information with information on a combination of position, speed and table value relating to an entire target section on which the train travels as overall table information ; and a table region limiting unit configured to limit, from the overall table information , constant speed table information and coasting table information of a region where switching of the driving operation is performed within a fluctuation range of an external factor representing a physical quantity that affects operation of the train and that may change every time the train travels, and configured to output the limited constant speed table information and coasting table information as the driving operation determination table data information . an overall table creation unit configured to create constant speed table information and coasting table information with information on a combination of position, speed and table value relating to an entire target section on which the train travels as overall table information ; and a table region limiting unit configured to limit, from the overall table information , constant speed table information and coasting table information of a region where switching of the driving operation is performed within a fluctuation range of an external factor representing a physical quantity that affects operation of the train and that may change every time the train travels, and configured to output the limited constant speed table information and coasting table information as the driving operation determination table data information .
Method for controlling a technical system (TS) on the basis of a control model (H), wherein a) provision is made of a transformation function (G) for reducing and/or obfuscating operating data (BD1, BD2) of the technical system (TS) to form transformed operating data (TBD1, TBD2) within a first access domain (AC1), b) in a second access domain (AC2) outside of the first access domain (AC1), the control model (H) is generated by a model generator (MG) as a function of first operating data (BD1) of the technical system (TS), c) second operating data (BD2) of the technical system (TS) are captured in the first access domain (AC1) that is separated from the control model (H) and said second operating data are transformed into transformed second operating data (TBD2) by the transformation function (G), d) the transformed second operating data (TBD2) are received by a model execution system (MES) situated in a separated access domain (AC2) outside of the first access domain (AC1) , e) the control model (H) is executed by the model execution system (MES) with a supply of the transformed second operating data (TBD2) in an access domain (AC2) that is separated from the second operating data (BD2), with control data (CD) being derived from the transformed second operating data (TBD2), and f) the control data (CD) are transmitted for the purposes of controlling the technical system (TS). a) provision is made of a transformation function (G) for reducing and/or obfuscating operating data (BD1, BD2) of the technical system (TS) to form transformed operating data (TBD1, TBD2) within a first access domain (AC1), b) in a second access domain (AC2) outside of the first access domain (AC1), the control model (H) is generated by a model generator (MG) as a function of first operating data (BD1) of the technical system (TS), c) second operating data (BD2) of the technical system (TS) are captured in the first access domain (AC1) that is separated from the control model (H) and said second operating data are transformed into transformed second operating data (TBD2) by the transformation function (G), d) the transformed second operating data (TBD2) are received by a model execution system (MES) situated in a separated access domain (AC2) outside of the first access domain (AC1) , e) the control model (H) is executed by the model execution system (MES) with a supply of the transformed second operating data (TBD2) in an access domain (AC2) that is separated from the second operating data (BD2), with control data (CD) being derived from the transformed second operating data (TBD2), and f) the control data (CD) are transmitted for the purposes of controlling the technical system (TS).
A pump comprising a stator which defines an internal chamber in which a rotor is rotationally mounted, a sensor mounted to the stator and having an output connected to a processing circuit , said circuit being arranged to: analyse the output of the sensor to determine the absolute distance between a point on the surface of the rotor and the sensor ; and characterised by being further arranged to: store a value representative of a said distance for successive cycles of the rotor and to analyse the stored values; analyse the stored values over time to determine if either: i) the distance has started to deviate at an unexpected rate; or ii) the distance is fluctuating or cycling; and outputting a warning that the rate, fluctuating or cycling of the distance has exceeded a predetermined level. store a value representative of a said distance for successive cycles of the rotor and to analyse the stored values; analyse the stored values over time to determine if either: i) the distance has started to deviate at an unexpected rate; or ii) the distance is fluctuating or cycling; and i) the distance has started to deviate at an unexpected rate; or ii) the distance is fluctuating or cycling; and outputting a warning that the rate, fluctuating or cycling of the distance has exceeded a predetermined level.
Nacelle for an aircraft , comprising a structure , a cap attached to the structure and a seal system comprising: - an arch forming a channel which extends beneath a rear edge of the cap and which has a bottom, the arch being attached to the structure , - a seal in the form of a solid block accommodated in the channel and positioned beneath the rear edge of the cap , characterized in that the nacelle further comprises - a spring system arranged to move the seal away from the bottom, and - retaining means arranged to prevent the seal from leaving the channel under the action of the spring system . - an arch forming a channel which extends beneath a rear edge of the cap and which has a bottom, the arch being attached to the structure , - a seal in the form of a solid block accommodated in the channel and positioned beneath the rear edge of the cap , characterized in that the nacelle further comprises - a spring system arranged to move the seal away from the bottom, and - retaining means arranged to prevent the seal from leaving the channel under the action of the spring system .
A digital video management (DVM) system including: a plurality of camera servers, wherein each camera server is configured to utilise video data from an assigned one or more video streaming units; and a plurality of video streaming units, wherein each streaming unit is configured to stream, onto a network, video data for a respective camera, wherein at least one video streaming unit is a multi-stream unit configured to provide video data for its respective camera concurrently via at least a first and second stream, wherein the first and second stream have respective video parameters; characterised in that the system includes a configuration tool for allowing a user to define a protocol for the utilisation of discrete streams provided by a multi-stream unit, thereby to allow the creation of stream-related rules in a DVM object model, including a rule that causes a camera server that utilises the first stream for recording video data by default to, responsive to a signal indicative of an event in the DVM system, utilise the second stream for recording video for a predetermined period of time. a plurality of camera servers, wherein each camera server is configured to utilise video data from an assigned one or more video streaming units; and a plurality of video streaming units, wherein each streaming unit is configured to stream, onto a network, video data for a respective camera, wherein at least one video streaming unit is a multi-stream unit configured to provide video data for its respective camera concurrently via at least a first and second stream, wherein the first and second stream have respective video parameters; characterised in that the system includes a configuration tool for allowing a user to define a protocol for the utilisation of discrete streams provided by a multi-stream unit, thereby to allow the creation of stream-related rules in a DVM object model, including a rule that causes a camera server that utilises the first stream for recording video data by default to, responsive to a signal indicative of an event in the DVM system, utilise the second stream for recording video for a predetermined period of time.
A method for producing a solid-state battery comprising a positive electrode, a solid electrolyte, and a negative electrode, the method comprising the steps of: preparing a negative electrode that is free of a negative-electrode active material; and forming, on at least one surface of the negative electrode, a solid electrolyte interface layer comprising a lithium-containing organic compound and a lithium-containing inorganic compound by immersing the negative electrode in a layer-forming solution comprising a lithium salt and a precursor and thereafter causing a reduction reaction on the surface of the negative electrode. preparing a negative electrode that is free of a negative-electrode active material; and forming, on at least one surface of the negative electrode, a solid electrolyte interface layer comprising a lithium-containing organic compound and a lithium-containing inorganic compound by immersing the negative electrode in a layer-forming solution comprising a lithium salt and a precursor and thereafter causing a reduction reaction on the surface of the negative electrode.
A composition for preparing a foam, comprising: 3-30 parts by weight of a first polymer, wherein the first polymer is cyclic olefin polymer (COP), cyclic olefin copolymer (COC), metallocene based cyclic olefin copolymer (mCOC), fully hydrogenated conjugated diene-vinyl aromatic copolymer, or a combination thereof, wherein the fully hydrogenated conjugated diene-vinyl aromatic copolymer is defined as hydrogenation conversion of both of non-aromatic double bonds and aromatic double bonds of a conjugated diene-vinyl aromatic copolymer is greater than or equal to 90%; and at least one of a second polymer and a third polymer, wherein the total weight of the second polymer and the third polymer is 70-97 parts by weight, the second polymer is polyolefin, olefin copolymer, or a combination thereof, the third polymer is conjugated diene-vinyl aromatic copolymer, partially hydrogenated conjugated diene-vinyl aromatic copolymer, or a combination thereof, and the total weight of the first polymer and at least one of the second polymer and the third polymer is 100 parts by weight, wherein the partially hydrogenated conjugated diene-vinyl aromatic copolymer is defined as hydrogenation conversion of non-aromatic double bonds of a conjugated diene-vinyl aromatic copolymer is greater than or equal to 70%. 3-30 parts by weight of a first polymer, wherein the first polymer is cyclic olefin polymer (COP), cyclic olefin copolymer (COC), metallocene based cyclic olefin copolymer (mCOC), fully hydrogenated conjugated diene-vinyl aromatic copolymer, or a combination thereof, wherein the fully hydrogenated conjugated diene-vinyl aromatic copolymer is defined as hydrogenation conversion of both of non-aromatic double bonds and aromatic double bonds of a conjugated diene-vinyl aromatic copolymer is greater than or equal to 90%; and at least one of a second polymer and a third polymer, wherein the total weight of the second polymer and the third polymer is 70-97 parts by weight, the second polymer is polyolefin, olefin copolymer, or a combination thereof, the third polymer is conjugated diene-vinyl aromatic copolymer, partially hydrogenated conjugated diene-vinyl aromatic copolymer, or a combination thereof, and the total weight of the first polymer and at least one of the second polymer and the third polymer is 100 parts by weight, wherein the partially hydrogenated conjugated diene-vinyl aromatic copolymer is defined as hydrogenation conversion of non-aromatic double bonds of a conjugated diene-vinyl aromatic copolymer is greater than or equal to 70%.
A smart susceptor assembly , comprising: an electromagnetic flux field source configured to generate a magnetic flux field; a plurality of susceptor elements positioned adjacent to the electromagnetic flux field source , wherein each susceptor element of the plurality of susceptor elements comprises a leveling temperature and a Curie temperature; and a plurality of conductor elements , wherein each conductor element of the plurality of conductor elements is electrically coupled to, and in thermal communication with, one of the susceptor elements of the plurality of susceptor elements ; the smart susceptor assembly comprises a plurality of susceptor tabs , with each susceptor tab being provided by one of the susceptor elements paired with one of the conductor elements ; and the susceptor element of each susceptor tab is coextensive with the conductor element paired therewith; wherein the electromagnetic flux field source is at least partly provided by a conductor wire that overlies the plurality of susceptor elements , wherein the conductor wire is electrically insulated from the susceptor tabs ; and the smart susceptor assembly further comprises an alternating current power supply electrically coupled to the conductor wire . an electromagnetic flux field source configured to generate a magnetic flux field; a plurality of susceptor elements positioned adjacent to the electromagnetic flux field source , wherein each susceptor element of the plurality of susceptor elements comprises a leveling temperature and a Curie temperature; and a plurality of conductor elements , wherein each conductor element of the plurality of conductor elements is electrically coupled to, and in thermal communication with, one of the susceptor elements of the plurality of susceptor elements ; the smart susceptor assembly comprises a plurality of susceptor tabs , with each susceptor tab being provided by one of the susceptor elements paired with one of the conductor elements ; and the susceptor element of each susceptor tab is coextensive with the conductor element paired therewith; wherein the electromagnetic flux field source is at least partly provided by a conductor wire that overlies the plurality of susceptor elements , wherein the conductor wire is electrically insulated from the susceptor tabs ; and the smart susceptor assembly further comprises an alternating current power supply electrically coupled to the conductor wire .
Device for supporting an endoscopic tool , comprising: opposite first and second arms extending along a first axis from a proximal end to a distal end , attachment means for attachment of the first arm and the second arm to an endoscope at the proximal end, deploying means operable to translate the first and second arms relative to each other in a direction cross to the first axis to adjust a spacing between the first and second arms, a guide for the endoscopic tool coupled to the first arm, the guide comprising an outlet for launching the endoscopic tool, a tissue support surface provided on the second arm, facing the outlet, and a recess adjacent the tissue support surface, wherein the tissue support surface projects from the second arm in a direction transverse to the first axis, characterised in that the outlet is fixable or fixed in a working orientation relative to the first axis, and in the working orientation, the recess is configured for accepting the endoscopic tool when launched from the outlet , in that in the working orientation, a centreline of the guide is curved between the proximal end and the outlet with a radius of curvature being at least 12.5 mm in a direction towards the tissue support surface, and in that the tissue support surface is oriented at one or more second angles (β) between 35° and 120° relative to the first axis . opposite first and second arms extending along a first axis from a proximal end to a distal end , attachment means for attachment of the first arm and the second arm to an endoscope at the proximal end, deploying means operable to translate the first and second arms relative to each other in a direction cross to the first axis to adjust a spacing between the first and second arms, a guide for the endoscopic tool coupled to the first arm, the guide comprising an outlet for launching the endoscopic tool, a tissue support surface provided on the second arm, facing the outlet, and a recess adjacent the tissue support surface, wherein the tissue support surface projects from the second arm in a direction transverse to the first axis, characterised in that the outlet is fixable or fixed in a working orientation relative to the first axis, and in the working orientation, the recess is configured for accepting the endoscopic tool when launched from the outlet , in that in the working orientation, a centreline of the guide is curved between the proximal end and the outlet with a radius of curvature being at least 12.5 mm in a direction towards the tissue support surface, and in that the tissue support surface is oriented at one or more second angles (β) between 35° and 120° relative to the first axis .
An error correction method, comprising: obtaining an output signal and an amplitude value of a feed forward equalizer FFE, wherein the amplitude value is a channel response amplitude value corresponding to an equivalent channel of the FFE; performing level decision on the output signal based on the amplitude value to obtain a first decision signal, wherein the first decision signal comprises 2M-1 decision symbols, and M is an integer not less than 2; performing 1/(1+D) decoding on the first decision signal to obtain a first decoded signal; determining the first decoded signal as a second decision signal, wherein the second decision signal comprises M decision symbols, characterized in that the method further comprises: if an absolute value of the second decision signal is greater than M-1, determining that a burst error occurs in the second decision signal; and correcting the burst error in the second decision signal. obtaining an output signal and an amplitude value of a feed forward equalizer FFE, wherein the amplitude value is a channel response amplitude value corresponding to an equivalent channel of the FFE; performing level decision on the output signal based on the amplitude value to obtain a first decision signal, wherein the first decision signal comprises 2M-1 decision symbols, and M is an integer not less than 2; performing 1/(1+D) decoding on the first decision signal to obtain a first decoded signal; determining the first decoded signal as a second decision signal, wherein the second decision signal comprises M decision symbols, characterized in that the method further comprises: if an absolute value of the second decision signal is greater than M-1, determining that a burst error occurs in the second decision signal; and correcting the burst error in the second decision signal. if an absolute value of the second decision signal is greater than M-1, determining that a burst error occurs in the second decision signal; and correcting the burst error in the second decision signal.
An ammonia production plant, comprising: a feed gas compression section ; a process air compression section ; a syngas compression section ; and a refrigerant compression section ; wherein at least two of said compression sections are combined to form a combined compression train (61; 71; 81; 91; 101; 111; 121; 131; 141) driven by a single driver (63; 73; 83; 93; 103; 113; 123; 133; 143); and wherein at least one of the compression sections (8; 22; 34; 46) of the combined compression train (61; 71; 81; 91; 101; 111; 121; 131; 141) comprises an integrally geared compressor. a feed gas compression section ; a process air compression section ; a syngas compression section ; and a refrigerant compression section ; wherein at least two of said compression sections are combined to form a combined compression train (61; 71; 81; 91; 101; 111; 121; 131; 141) driven by a single driver (63; 73; 83; 93; 103; 113; 123; 133; 143); and wherein at least one of the compression sections (8; 22; 34; 46) of the combined compression train (61; 71; 81; 91; 101; 111; 121; 131; 141) comprises an integrally geared compressor.