mhurhangee/patent-ind-claim-en huggingface dataset:
A nitrile rubber composition comprising a carboxyl group-containing highly saturated nitrile rubber (a) containing α,β-ethylenically unsaturated nitrile monomer units in a ratio of 5 to 60 wt% and having an iodine value of 120 or less, a filler (b), and a polyamine-based cross-linking agent (c), wherein a content of the filler (b) is 100 parts by weight or more and less than 200 parts by weight with respect to 100 parts by weight of the carboxyl group-containing highly saturated nitrile rubber (a), the nitrile rubber composition contains silica and a non-reinforcing white filler as the filler (b), and a ratio of the silica and the non-reinforcing white filler is, by weight ratio of "silica:non-reinforcing white filler", 1:37 to 10:9, the nitrile rubber composition optionally further comprising an amount of a rubber other than the carboxyl group-containing highly saturated nitrile rubber (a) of 20 parts by weight or less with respect to 100 parts by weight of the carboxyl group-containing highly saturated nitrile rubber (a). a content of the filler (b) is 100 parts by weight or more and less than 200 parts by weight with respect to 100 parts by weight of the carboxyl group-containing highly saturated nitrile rubber (a), the nitrile rubber composition contains silica and a non-reinforcing white filler as the filler (b), and a ratio of the silica and the non-reinforcing white filler is, by weight ratio of "silica:non-reinforcing white filler", 1:37 to 10:9, the nitrile rubber composition optionally further comprising an amount of a rubber other than the carboxyl group-containing highly saturated nitrile rubber (a) of 20 parts by weight or less with respect to 100 parts by weight of the carboxyl group-containing highly saturated nitrile rubber (a).
A method of automatically managing temperature in an engine of a vehicle , the method comprising: obtaining, by a temperature monitoring controller , a current fuel temperature value from measuring a proxy value for the fuel temperature or directly measuring the fuel temperature; determining, by the temperature monitoring controller, an interval time representing a time period after which a fuel temperature is predicted to drop below a low temperature threshold, wherein the determination is based on at least a previous interval time, a previous fuel temperature value, and the current fuel temperature value; in response to determining that the interval time is greater than a threshold interval time, waiting, by the temperature monitoring controller, for the interval time before obtaining a subsequent fuel temperature value from measuring a proxy value for the fuel temperature or directly measuring the fuel temperature; and in response to determining that the interval time is not greater than the threshold interval time, causing, by the temperature monitoring controller, an engine of the vehicle to be started. obtaining, by a temperature monitoring controller , a current fuel temperature value from measuring a proxy value for the fuel temperature or directly measuring the fuel temperature; determining, by the temperature monitoring controller, an interval time representing a time period after which a fuel temperature is predicted to drop below a low temperature threshold, wherein the determination is based on at least a previous interval time, a previous fuel temperature value, and the current fuel temperature value; in response to determining that the interval time is greater than a threshold interval time, waiting, by the temperature monitoring controller, for the interval time before obtaining a subsequent fuel temperature value from measuring a proxy value for the fuel temperature or directly measuring the fuel temperature; and in response to determining that the interval time is not greater than the threshold interval time, causing, by the temperature monitoring controller, an engine of the vehicle to be started.
A biocidal coating of paper for printing, containing titanium oxide nanoparticles, salts of mono-, bi- and trivalent metals, namely sodium chloride, ammonium chloride, calcium chloride and polyaluminium chloride, polyvinyl alcohol, starch, aliphatic polyamine and sodium aluminosilicate characterised in that their proportions are as follows: Ingredient Percentage by mass of each ingredient [%] Tolerance Titanium oxide 3.92% +-40% Salts of metals (I, II and III- valent) 14.69% +-40% Starch + PVOH 68.86% +-40% Aliphatic polyamine 6.27% +-40% Sodium aluminosilicate 6.27% +-40% and biocidal activity of this mixture does not require activation by UV rays.
A semiconductor light emitting device comprising: a semiconductor layer having a first face and a second face opposite to the first face , and including a light emitting layer ; a p-side electrode provided on the semiconductor layer on the second face side ; an n-side electrode provided on the semiconductor layer on the second face side ; and a resin layer provided on the first face side and arranged to transmit light emitted from the light emitting layer , the resin layer including a top surface opposite to the first face and four side faces provided along an outer edge of the first face and connected to the top surface , the resin layer including a scattering substance arranged to scatter the light emitted from the light emitting layer , characterised by : an inorganic film formed on the first face of the semiconductor layer so as to directly contact the surface of the semiconductor layer , a first insulating film covering the semiconductor layer , the p-side electrode , and the n-side electrode , the first insulating film covering a side face of the semiconductor layer connecting the first face to the second face , the first insulating film comprising a portion surrounding the outer edge of the semiconductor layer , the first insulating film contacting the inorganic film . a semiconductor layer having a first face and a second face opposite to the first face , and including a light emitting layer ; a p-side electrode provided on the semiconductor layer on the second face side ; an n-side electrode provided on the semiconductor layer on the second face side ; and a resin layer provided on the first face side and arranged to transmit light emitted from the light emitting layer , the resin layer including a top surface opposite to the first face and four side faces provided along an outer edge of the first face and connected to the top surface , the resin layer including a scattering substance arranged to scatter the light emitted from the light emitting layer , characterised by : an inorganic film formed on the first face of the semiconductor layer so as to directly contact the surface of the semiconductor layer , a first insulating film covering the semiconductor layer , the p-side electrode , and the n-side electrode , the first insulating film covering a side face of the semiconductor layer connecting the first face to the second face , the first insulating film comprising a portion surrounding the outer edge of the semiconductor layer , the first insulating film contacting the inorganic film . an inorganic film formed on the first face of the semiconductor layer so as to directly contact the surface of the semiconductor layer , a first insulating film covering the semiconductor layer , the p-side electrode , and the n-side electrode , the first insulating film covering a side face of the semiconductor layer connecting the first face to the second face , the first insulating film comprising a portion surrounding the outer edge of the semiconductor layer , the first insulating film contacting the inorganic film .
A subsea multiphase fluid separation system , the system comprising: a gas separator for separating gas from a wellstream containing oil; a water separation stage downstream of the gas separator , comprising at least one inclined dual pipe separator for separating water from the oil of the wellstream, which at least one dual pipe separator comprises a perforated inner pipe contained within an outer pipe , an electrocoalescer and at least one second separator in series, downstream of the or each dual pipe separator on an oil outlet path; a water treatment system for cleaning oil from water that is produced by the water separation stage; and a water-in-oil sensor downstream of the water separation stage. a gas separator for separating gas from a wellstream containing oil; a water separation stage downstream of the gas separator , comprising at least one inclined dual pipe separator for separating water from the oil of the wellstream, which at least one dual pipe separator comprises a perforated inner pipe contained within an outer pipe , an electrocoalescer and at least one second separator in series, downstream of the or each dual pipe separator on an oil outlet path; a water treatment system for cleaning oil from water that is produced by the water separation stage; and a water-in-oil sensor downstream of the water separation stage.
A method for decoding a codeword with a decoder of low-density parity-check code, so-called LDPC code, said LDPC code being defined by a binary parity matrix (H) having the size M x N, M and N being positive integers, the parity matrix (H) corresponding to a representation of a bipartite graph (G) comprising connections between M parity check nodes (CN m ) and N variable nodes (VN n ), each line of the parity matrix (H) corresponding to a parity equation associated with a parity check node (CN m ), each column of the parity matrix (H) corresponding to a variable associated with a variable node (VN n ), each non-zero element of the parity matrix (H) corresponding to a connection between a parity check node (CN m ) and a variable node (VN n ), the codeword to be decoded corresponding to a set of values respectively taken by said variables, the parity matrix (H) presenting a layered structure, the method comprising the execution of one or more iterations until a stop criterion is met, each iteration comprising the successive processing of the layers of the parity matrix (H), the processing of one layer comprising: - a calculation of variable messages (α n,m ), for the variable nodes (VN n ) involved in said layer, on the basis of a posteriori estimation variables (γ n ) of the codeword and on the basis of parity check messages (β m,n ) calculated during the previous iteration, - a calculation of parity check messages (β m,n ), for the parity check nodes (CN m ) involved in said layer, on the basis of the variable messages (α n,m ), - a calculation of a posteriori estimation variables (γ n ) on the basis of the parity check messages (β m,n ), - a calculation of a partial syndrome for said layer by applying the parity equations of said layer to the a posteriori estimation variables (γ n ), characterized in that an evaluation of the stop criterion comprises checking, for a plurality of successive iterations, whether the number of iterations for which all the partial syndromes are zero subtracted by the number of iterations for which at least one of the partial syndromes is non-zero is greater than or equal to a predetermined stop threshold. - a calculation of variable messages (α n,m ), for the variable nodes (VN n ) involved in said layer, on the basis of a posteriori estimation variables (γ n ) of the codeword and on the basis of parity check messages (β m,n ) calculated during the previous iteration, - a calculation of parity check messages (β m,n ), for the parity check nodes (CN m ) involved in said layer, on the basis of the variable messages (α n,m ), - a calculation of a posteriori estimation variables (γ n ) on the basis of the parity check messages (β m,n ), - a calculation of a partial syndrome for said layer by applying the parity equations of said layer to the a posteriori estimation variables (γ n ),
An ultrasonic transducer , comprising: a backplate having a plurality of elongated grooves formed on a surface thereof; and a vibrator film positioned proximate to the backplate ; a frame assembly ; and a compliant member configured to apply a spring force to the vibrator film to maintain a uniform tension in the vibrator film in substantially one direction , wherein an end of the vibrator film is fastened between the compliant member and a portion of the frame assembly , wherein an opposite end of the vibrator film is fastened to an opposing portion of the frame assembly to secure the vibrator film across the surface of the backplate , wherein the frame assembly is configured to rigidly hold the backplate , while allowing movement in the vibrator film across the surface of the backplate , wherein the compliant member is configured to apply the spring force to the vibrator film substantially in a direction perpendicular to the surface of the backplate for urging the vibrator film against the backplate , and the compliant member comprises a curved surface portion configured, in response to the spring force , to press into the vibrator film to generate the uniform tension in the vibrator film in substantially one direction along the surface of the backplate and perpendicular to the plurality of elongated grooves ; and wherein the plurality of elongated grooves are parallel to one another. a backplate having a plurality of elongated grooves formed on a surface thereof; and a vibrator film positioned proximate to the backplate ; a frame assembly ; and a compliant member configured to apply a spring force to the vibrator film to maintain a uniform tension in the vibrator film in substantially one direction , wherein an end of the vibrator film is fastened between the compliant member and a portion of the frame assembly , wherein an opposite end of the vibrator film is fastened to an opposing portion of the frame assembly to secure the vibrator film across the surface of the backplate , wherein the frame assembly is configured to rigidly hold the backplate , while allowing movement in the vibrator film across the surface of the backplate , wherein the compliant member is configured to apply the spring force to the vibrator film substantially in a direction perpendicular to the surface of the backplate for urging the vibrator film against the backplate , and the compliant member comprises a curved surface portion configured, in response to the spring force , to press into the vibrator film to generate the uniform tension in the vibrator film in substantially one direction along the surface of the backplate and perpendicular to the plurality of elongated grooves ; and wherein the plurality of elongated grooves are parallel to one another.
A computer implemented method comprising: Determining for each of a plurality of spatially separated regions of a surface, a respective measure of at least one vital sign wherein said measure of at least one vital sign comprises a heart-beat signal and/or a respiration signal for each of the spatially separated regions so as to form a plurality of heart-rate signals and/or a plurality of respiration signals; determining from said respective measures of at least one vital sign, homogeneity information (H1-5) associated with said respective measure, wherein said determining of homogeneity information comprises comparing said heart-beat signals and/or determining a correlation between a heart-beat signal and a respiration signal and using said homogeneity information (H1-5) to determine if said spatially separate regions of said surface are living tissue. Determining for each of a plurality of spatially separated regions of a surface, a respective measure of at least one vital sign wherein said measure of at least one vital sign comprises a heart-beat signal and/or a respiration signal for each of the spatially separated regions so as to form a plurality of heart-rate signals and/or a plurality of respiration signals; determining from said respective measures of at least one vital sign, homogeneity information (H1-5) associated with said respective measure, wherein said determining of homogeneity information comprises comparing said heart-beat signals and/or determining a correlation between a heart-beat signal and a respiration signal and using said homogeneity information (H1-5) to determine if said spatially separate regions of said surface are living tissue.
An assembly for secondary battery, wherein the assembly for secondary battery comprises a first connecting piece and an insulating holding block ; the first connecting piece includes a first electrode terminal connecting portion , a first electrode tab connecting portion and a first fusing portion , the first fusing portion is connected between the first electrode terminal connecting portion and the first electrode tab connecting portion ; characterized in that two ends of the insulating holding block are connected with the first electrode terminal connecting portion and the first electrode tab connecting portion respectively, and the insulating holding block is configured to maintain the first electrode terminal connecting portion and the first electrode tab connecting portion in position relative to each other when the first fusing portion is fused; each of the first electrode terminal connecting portion and the first electrode tab connecting portion is provided with a through fixing hole (H); the insulating holding block comprises a first holding portion and a second holding portion ; the first holding portion is provided on one side of the first connecting piece along a thickness direction (T) and includes fixing posts which respectively correspond to the fixing hole (H) of the first electrode terminal connecting portion and the fixing hole (H) of the first electrode tab connecting portion , and each fixing post passes through the fixing hole (H) and extends to the other side of the first connecting piece along the thickness direction (T); the second holding portion is provided on the other side of the first connecting piece along the thickness direction (T) and is connected with the fixing posts of the first holding portion which respectively pass through the fixing hole (H) of the first electrode terminal connecting portion and the fixing hole (H) of the first electrode tab connecting portion .
A method (S) of assembling a stack of prismatic battery cells wherein the battery cells in the stack are arranged with their longitudinal sides abutting each other; the method (S) is carried out on a production line and comprises the following steps: (i) (S1) providing a first device unit for handling the battery cells ; (ii) (S2) providing a second device unit for supporting a roll of a spacer foil and assembling the spacer foil to the battery cells, the spacer foil being self-adhesive and having a thickness of 300 μm to 550 μm, wherein a width of the spacer foil is predetermined such that a ratio of the width of the spacer foil to the height of the longitudinal side of the battery cell is in the range of 1:4 to 1:12; and (iii) (S3) adhering spacer stripes from the roll of the spacer foil by means of the second device unit on both longitudinal sides of each battery cell , wherein the spacer stripe is adapted such that a central portion of the respective longitudinal side remains uncovered, wherein the spacer stripes adhered to opposing longitudinal sides of neighboring battery cells come into contact with each other when the battery cells are assembled in the stack . (i) (S1) providing a first device unit for handling the battery cells ; (ii) (S2) providing a second device unit for supporting a roll of a spacer foil and assembling the spacer foil to the battery cells, the spacer foil being self-adhesive and having a thickness of 300 μm to 550 μm, wherein a width of the spacer foil is predetermined such that a ratio of the width of the spacer foil to the height of the longitudinal side of the battery cell is in the range of 1:4 to 1:12; and (iii) (S3) adhering spacer stripes from the roll of the spacer foil by means of the second device unit on both longitudinal sides of each battery cell , wherein the spacer stripe is adapted such that a central portion of the respective longitudinal side remains uncovered, wherein the spacer stripes adhered to opposing longitudinal sides of neighboring battery cells come into contact with each other when the battery cells are assembled in the stack .
A fluid cooling system for cooling a microwave antenna , comprising: an energy source configured to supply microwave energy to a microwave antenna for ablating tissue; a fluid source configured to deliver fluid to the microwave antenna for cooling the microwave antenna, the fluid source coupled to the microwave antenna via a tube ; and a centrifugal pump coupled to the energy source and in fluid communication with the fluid source via a first portion of the tube , the centrifugal pump configured to pump fluid to the microwave antenna via a second portion of the tube, the first and second portions of the tube in fluid communication via the centrifugal pump. an energy source configured to supply microwave energy to a microwave antenna for ablating tissue; a fluid source configured to deliver fluid to the microwave antenna for cooling the microwave antenna, the fluid source coupled to the microwave antenna via a tube ; and a centrifugal pump coupled to the energy source and in fluid communication with the fluid source via a first portion of the tube , the centrifugal pump configured to pump fluid to the microwave antenna via a second portion of the tube, the first and second portions of the tube in fluid communication via the centrifugal pump.