mhurhangee/patent-ind-claim-en huggingface dataset:
An SOC estimation device for an energy storage device , the SOC estimation device comprising: a storage unit ; and a data processing unit ; wherein the energy storage device has a characteristic including a first deterioration mode in which a capacity drop with respect to time indicates a first transition, and a second deterioration mode in which a capacity drop indicates a second transition, and the storage unit holds: first correlation data indicating a correlation between SOC and OCV of the energy storage device in the first deterioration mode, in which an available capacity is rate-determined by resistance of a negative electrode of the energy storage device, and second correlation data indicating a correlation between SOC and OCV of the energy storage device in the second deterioration mode, in which the available capacity is rate-determined by resistance of a positive electrode of the energy storage device, and the data processing unit executes: a mode determination process of determining a deterioration mode of the energy storage device , and an estimation process of selecting correlation data corresponding to the deterioration mode from the storage unit , to estimate SOC of the energy storage device. a storage unit ; and a data processing unit ; wherein the energy storage device has a characteristic including a first deterioration mode in which a capacity drop with respect to time indicates a first transition, and a second deterioration mode in which a capacity drop indicates a second transition, and the storage unit holds: first correlation data indicating a correlation between SOC and OCV of the energy storage device in the first deterioration mode, in which an available capacity is rate-determined by resistance of a negative electrode of the energy storage device, and second correlation data indicating a correlation between SOC and OCV of the energy storage device in the second deterioration mode, in which the available capacity is rate-determined by resistance of a positive electrode of the energy storage device, first correlation data indicating a correlation between SOC and OCV of the energy storage device in the first deterioration mode, in which an available capacity is rate-determined by resistance of a negative electrode of the energy storage device, and second correlation data indicating a correlation between SOC and OCV of the energy storage device in the second deterioration mode, in which the available capacity is rate-determined by resistance of a positive electrode of the energy storage device, and the data processing unit executes: a mode determination process of determining a deterioration mode of the energy storage device , and an estimation process of selecting correlation data corresponding to the deterioration mode from the storage unit , to estimate SOC of the energy storage device. a mode determination process of determining a deterioration mode of the energy storage device , and an estimation process of selecting correlation data corresponding to the deterioration mode from the storage unit , to estimate SOC of the energy storage device.
A lead frame for an integrated electronic device , comprising: - a die pad structure (110; 29,110; 310,450) of a first metallic material, including a die pad (110;310,450) and delimited by a top structure surface (103; 103,103'; 303, 452); and - a top coating structure (112; 12',112; 312, 512) formed by a second metallic material and arranged, in direct contact, on the top structure surface, the second material having an oxidation rate lower than the first material; wherein the top coating structure covers the whole top structure surface, leaving exposed a number of corner portions (117S; 217S; 457S) of the top structure surface, which are separate from one another; characterized in that the die pad structure (110; 29,110; 310,450) forms a number of edges (11; 111); and wherein each edge is perpendicular to a corresponding corner portion (117S; 217S; 457S), with which it is in direct contact. - a die pad structure (110; 29,110; 310,450) of a first metallic material, including a die pad (110;310,450) and delimited by a top structure surface (103; 103,103'; 303, 452); and - a top coating structure (112; 12',112; 312, 512) formed by a second metallic material and arranged, in direct contact, on the top structure surface, the second material having an oxidation rate lower than the first material; wherein the top coating structure covers the whole top structure surface, leaving exposed a number of corner portions (117S; 217S; 457S) of the top structure surface, which are separate from one another; characterized in that the die pad structure (110; 29,110; 310,450) forms a number of edges (11; 111); and wherein each edge is perpendicular to a corresponding corner portion (117S; 217S; 457S), with which it is in direct contact. wherein the top coating structure covers the whole top structure surface, leaving exposed a number of corner portions (117S; 217S; 457S) of the top structure surface, which are separate from one another; characterized in that the die pad structure (110; 29,110; 310,450) forms a number of edges (11; 111); and wherein each edge is perpendicular to a corresponding corner portion (117S; 217S; 457S), with which it is in direct contact.
Rod network belt comprising - a plurality of first rods of a first length, - a plurality of second rods of a second length that is different from the first length, wherein - a first row (A) is formed from of a plurality of first rods arranged sequentially one after the other or a plurality of first rods arranged sequentially one after the other with at least one second rod inserted therebetween, characterized in that : - a second row (B) is formed from a plurality of first rods arranged sequentially one after the other with at least one second rod inserted therebetween, - the first rods of the first row (A) and the first rods of the second row (B) are offset from one another, - the rods of the first row (A) and the rods of the second row (B) are intertwined with one another. - a plurality of first rods of a first length, - a plurality of second rods of a second length that is different from the first length, - a first row (A) is formed from of a plurality of first rods arranged sequentially one after the other or a plurality of first rods arranged sequentially one after the other with at least one second rod inserted therebetween, characterized in that : - a second row (B) is formed from a plurality of first rods arranged sequentially one after the other with at least one second rod inserted therebetween, - the first rods of the first row (A) and the first rods of the second row (B) are offset from one another, - the rods of the first row (A) and the rods of the second row (B) are intertwined with one another.
An applicator and arrangement of a light source on the applicator for application of a light-curable composite material contained in a reservoir , wherein the applicator has a longitudinal axis (L), and wherein an outlet opening (3.1) for the light-curable material is provided at a front end, wherein the applicator has a manually deformable reservoir for hand-controlled application, wherein a dispensing unit (A) with the outlet opening (3.1) is joined to the reservoir and the light-curable composite material is conveyed into the dispensing unit (A) and is dispensed via the outlet opening (3.1) by manual pressure application to the reservoir , and wherein at least one light source which is formed as an LED lamp having one or more LEDs is arranged on or in the applicator or is connectable to the applicator , characterised in that the at least one light source is arranged in such a way that whilst the light-curable material is being dispensed the light of the light source, when the light source is actuated, impinges on the dispensed light-curable material so as to illuminate it in the direction of the front end of the applicator , and cures it, and in that the at least one light source radiates directly in the direction of the outlet opening (3.1) of the applicator , or in that a light guide is joined to the light source and irradiates the light emitted by the light source onto the material dispensed from the applicator .
A method of cooling a boil off gas stream from a liquefied ethane cargo in a floating transportation vessel, said method comprising at least the steps of: compressing a boil off gas stream from said liquefied ethane cargo in two or more stages of compression comprising at least a first stage and a final stage to provide a compressed BOG discharge stream , wherein said first stage of compression has a first stage discharge pressure and said final stage of compression has a final stage suction pressure, and one or more intermediate, optionally cooled, compressed BOG streams are provided between consecutive stages of compression; cooling the compressed BOG discharge stream against one or more first coolant streams to provide a first cooled compressed BOG stream ; cooling the first cooled compressed BOG stream against at least one second coolant stream to provide a second cooled compressed BOG stream ; cooling the second cooled compressed BOG stream against a third coolant stream to provide a third cooled compressed BOG stream ; characterised in that the method further comprises at least the steps of; expanding a portion of the third cooled compressed BOG stream to a pressure between that of the first stage discharge pressure and the final stage suction pressure to provide a first expanded cooled BOG stream ; using the first expanded cooled BOG stream as the third coolant stream to provide a first expanded heated BOG stream ; and using the first expanded heated BOG stream as the or a second coolant stream. compressing a boil off gas stream from said liquefied ethane cargo in two or more stages of compression comprising at least a first stage and a final stage to provide a compressed BOG discharge stream , wherein said first stage of compression has a first stage discharge pressure and said final stage of compression has a final stage suction pressure, and one or more intermediate, optionally cooled, compressed BOG streams are provided between consecutive stages of compression; cooling the compressed BOG discharge stream against one or more first coolant streams to provide a first cooled compressed BOG stream ; cooling the first cooled compressed BOG stream against at least one second coolant stream to provide a second cooled compressed BOG stream ; cooling the second cooled compressed BOG stream against a third coolant stream to provide a third cooled compressed BOG stream ; characterised in that the method further comprises at least the steps of; expanding a portion of the third cooled compressed BOG stream to a pressure between that of the first stage discharge pressure and the final stage suction pressure to provide a first expanded cooled BOG stream ; using the first expanded cooled BOG stream as the third coolant stream to provide a first expanded heated BOG stream ; and using the first expanded heated BOG stream as the or a second coolant stream.
A front fork (F) comprising: a pair of fork legs each having a tube member and a damper , the tube member having a vehicle body side tube and an axle side tube , and the damper being disposed in the tube member and interposed between the vehicle body side tube and the axle side tube ; a solenoid valve for extension-side damping force adjustment to adjust an extension-side damping force; and a solenoid valve for compression-side damping force adjustment to adjust a compression-side damping force; and a stroke sensor, wherein the damper of one fork leg of the pair of fork legs has a cylinder connected to the axle side tube , a piston rod connected to the vehicle body side tube , and a piston valve attached to the piston rod and movably inserted into the cylinder , the solenoid valve for extension-side damping force adjustment is provided in the piston rod of the one fork leg , the solenoid valve for compression-side damping force adjustment is attached to the vehicle body side tube of another fork leg of the pair of fork legs , and the stroke sensor is attached to the one fork leg , and has a detected element attached to the cylinder , and a detection unit that is attached to the piston rod and detects a displacement of the detected element . a pair of fork legs each having a tube member and a damper , the tube member having a vehicle body side tube and an axle side tube , and the damper being disposed in the tube member and interposed between the vehicle body side tube and the axle side tube ; a solenoid valve for extension-side damping force adjustment to adjust an extension-side damping force; and a solenoid valve for compression-side damping force adjustment to adjust a compression-side damping force; and a stroke sensor, wherein the damper of one fork leg of the pair of fork legs has a cylinder connected to the axle side tube , a piston rod connected to the vehicle body side tube , and a piston valve attached to the piston rod and movably inserted into the cylinder , the solenoid valve for extension-side damping force adjustment is provided in the piston rod of the one fork leg , the solenoid valve for compression-side damping force adjustment is attached to the vehicle body side tube of another fork leg of the pair of fork legs , and the stroke sensor is attached to the one fork leg , and has a detected element attached to the cylinder , and a detection unit that is attached to the piston rod and detects a displacement of the detected element .
A cleaning composition comprising: a. At least one alkanolamine b. At least one mineral acid c. At least one salt of a hydroxycarboxylic acid d. At least one protease enzyme; wherein said composition contains no surfactant. a. At least one alkanolamine b. At least one mineral acid c. At least one salt of a hydroxycarboxylic acid d. At least one protease enzyme;
Expression system for production of a heterologous protein, wherein a host for cloning of a gene coding heterologous protein is a yeast strain characterised in that , the expression system comprises a psychrotolerant Debaryomyces macquariensis yeast strain and a plasmid expression vector comprising an expression cassette for expression of a heterologous gene coding a heterologous protein that contains a GAP promoter isolated from a Debaryomyces macquariensis and a CYC1 terminator isolated from a Debaryomyces macquariensis, and the plasmid expression vector comprises also an expression cassette for expression of an antibiotic resistance gene.
A covered stent comprising: - a main body , - at least one branch , including one, two or three branches, connected to the main body , and characterized by at least one bendable and/or flexible guiding element being distally permanently or releasably attached to an interior of one of said at least one said branches at a connection point at a distal orifice of said branch , and said guiding element being proximally arranged in the interior, through and along a proximal portion of said main body and extending proximally through a proximal opening of the main body or through a leg of said covered stent , said guiding element being arranged to be received by a guiding mate of a delivery catheter for delivery of a further element such as a further covered stent to said one of said at least one said branches at said connection point, and said guiding element being configured for guiding said delivery catheter over said guiding element through said main body towards said distal orifice of said branch . - a main body , - at least one branch , including one, two or three branches, connected to the main body , and characterized by
A wearable object characterised in that it comprises an annular fluidic device comprising : - an annular tube delimiting a closed internal volume, - a fluid disposed in the closed internal volume, - a floating system disposed in the closed internal volume and bathed in the fluid , said floating system being arranged to rotate freely around a central axis of the annular tube and relative to said annular tube , and said floating system comprising one or more cavities filled with air 3d and having a marking with at least one of the four cardinal points , - at least one permanently polarised magnetic element integral with the floating system allowing said floating system to undergo a moment of force causing it to be aligned in the direction of the external magnetic vector by rotating around of said central axis , said annular tube being transparent at least on a portion of its wall so as to visualise the marking of the floating system from the outside of the annular tube , the wearable object being characterized in that the floating system is provided with wheels , called horizontal wheels, which are free to rotate about an axis parallel to the central axis and/or wheels , called vertical wheels, which are free to rotate about an axis perpendicular to the central axis , said horizontal and vertical wheels being mounted with a clearance relative to the walls of the annular tube and are intended to reduce the friction in the directions parallel and perpendicular to the central axis . - an annular tube delimiting a closed internal volume, - a fluid disposed in the closed internal volume, - a floating system disposed in the closed internal volume and bathed in the fluid , said floating system being arranged to rotate freely around a central axis of the annular tube and relative to said annular tube , and said floating system comprising one or more cavities filled with air 3d and having a marking with at least one of the four cardinal points , - at least one permanently polarised magnetic element integral with the floating system allowing said floating system to undergo a moment of force causing it to be aligned in the direction of the external magnetic vector by rotating around of said central axis ,
An isolated variant of a parent alpha-amylase, wherein the variant has at least 80%, or at least 87%, but less than 100% sequence identity with the mature polypeptide of SEQ ID NO 1, and wherein the variant has alpha-amylase activity, which variant comprises or consists of substitutions in the positions corresponding to the positions of the polypeptide of SEQ ID NO: 1, selected from the group consisting of: W140Y+N195F+V206Y+Y243F, N195F+V206Y+Y243F+W284D, W140F+R181 H, N195F+V206Y+E260R+G273D, N195F+V206Y+Y243F+E260K+G273D, D134E+G476E, K72R+N195F+V206Y+Y243F+E260H+G273V, N195F+V206Y+Y243F+E260N+G273V, W140Y+N195F+V206Y+Y243F+E260G, N195F+V206Y+Y243F+E260K+W284D, W140Y+N195F+V206Y+Y243F+E260G+W284D, W140Y + N195F + V206Y + Y243F + E260T + W284D, W189E + N195F + V206Y + Y243F, W140Y + N195F + V206Y + Y243F + W284D, N195F + V206Y + Y243F + G477R, N195F + V206Y + Y243F + G477M, W140Y + W189G + N195F + V206Y + Y243F + E260G, W140Y + N195F + V206Y + Y243F + E260G + G477E, W140Y + N195F + V206Y + Y243F + E260G + G476E, W140Y + N195F + V206Y + Y243F + E260G + S303G, W140Y + W189T + N195F + V206Y + Y243F + E260G, W140Y + N195F + V206Y + Y243F + E260G + G337N, Y100I + W140Y + N195F + V206Y + Y243F + E260G, G109A + W140Y + N195F + V206Y + Y243F + E260G, W140Y+ N195F+ V206Y+ Y243F+ E260G+ W439R, G109A+W140Y+E194D+N195F+V206Y+Y243F+ E260G, G109A+W140Y+N195F+V206Y+Y243F+E260G+ G476E, T51I+Y100I+G109A+W140Y+N195F+V206Y+ Y243F+ E260G, T511+G109A+W140Y+N195F+V206Y +Y243F+E260G+ W439R, T51I+ S52Q+ N54K+ G109A+ W140Y+ N195F+ V206Y+ Y243F+ E260G+ G476E, W140Y+N195F+V206Y+Y243F+E260G+G304R+ G476K, W140Y+ N195F+ V206Y+243F+E260G+W284R+G477K, W140Y+N195F+V206Y+Y243F+E260G+W284F+ G477R, N195F+V206Y+ Y243F+ E260G+ W284D, N195F+ V206Y +Y243F +S473T+ G476R, and N195F+ V206Y+ Y243F+ G476E. W140Y+N195F+V206Y+Y243F, N195F+V206Y+Y243F+W284D, W140F+R181 H, N195F+V206Y+E260R+G273D, N195F+V206Y+Y243F+E260K+G273D, D134E+G476E, K72R+N195F+V206Y+Y243F+E260H+G273V, N195F+V206Y+Y243F+E260N+G273V, W140Y+N195F+V206Y+Y243F+E260G, N195F+V206Y+Y243F+E260K+W284D, W140Y+N195F+V206Y+Y243F+E260G+W284D, W140Y + N195F + V206Y + Y243F + E260T + W284D, W189E + N195F + V206Y + Y243F, W140Y + N195F + V206Y + Y243F + W284D, N195F + V206Y + Y243F + G477R, N195F + V206Y + Y243F + G477M, W140Y + W189G + N195F + V206Y + Y243F + E260G, W140Y + N195F + V206Y + Y243F + E260G + G477E, W140Y + N195F + V206Y + Y243F + E260G + G476E, W140Y + N195F + V206Y + Y243F + E260G + S303G, W140Y + W189T + N195F + V206Y + Y243F + E260G, W140Y + N195F + V206Y + Y243F + E260G + G337N, Y100I + W140Y + N195F + V206Y + Y243F + E260G, G109A + W140Y + N195F + V206Y + Y243F + E260G, W140Y+ N195F+ V206Y+ Y243F+ E260G+ W439R, G109A+W140Y+E194D+N195F+V206Y+Y243F+ E260G, G109A+W140Y+N195F+V206Y+Y243F+E260G+ G476E, T51I+Y100I+G109A+W140Y+N195F+V206Y+ Y243F+ E260G, T511+G109A+W140Y+N195F+V206Y +Y243F+E260G+ W439R, T51I+ S52Q+ N54K+ G109A+ W140Y+ N195F+ V206Y+ Y243F+ E260G+ G476E, W140Y+N195F+V206Y+Y243F+E260G+G304R+ G476K, W140Y+ N195F+ V206Y+243F+E260G+W284R+G477K, W140Y+N195F+V206Y+Y243F+E260G+W284F+ G477R, N195F+V206Y+ Y243F+ E260G+ W284D, N195F+ V206Y +Y243F +S473T+ G476R, and N195F+ V206Y+ Y243F+ G476E.
A baked good holding cabinet , comprising: a compartment defined by compartment walls and the compartment is configured to create a controlled environment within the compartment; a tray configured to receive a plurality of baked goods and to be received within the compartment to hold the plurality of baked goods in the controlled environment; and a cabinet actuator operable to move a baked good within the cabinet to a dispense point of the cabinet; characterized in that the tray defines a plurality of lanes and each lane is configured to hold baked goods. a compartment defined by compartment walls and the compartment is configured to create a controlled environment within the compartment; a tray configured to receive a plurality of baked goods and to be received within the compartment to hold the plurality of baked goods in the controlled environment; and a cabinet actuator operable to move a baked good within the cabinet to a dispense point of the cabinet; characterized in that the tray defines a plurality of lanes and each lane is configured to hold baked goods.
View system for a vehicle , comprising at least one image capture unit for capturing image data of a portion around a vehicle , wherein the image capture unit has an image sensor and an optical element, which has a distortion curve, wherein the image data dependent on the position on the image sensor are distorted in accordance with the distortion curve of the optical element, at least one image processing unit for processing the image data captured by the image capture unit , and at least one reproduction unit for reproducing the image data processed by the image processing unit , characterized in that the image processing unit is configured for taking at least one partial portion from the image data of the image sensor , wherein the geometry of the partial portion is dependent on the position of the partial portion on the image sensor . at least one image capture unit for capturing image data of a portion around a vehicle , wherein the image capture unit has an image sensor and an optical element, which has a distortion curve, wherein the image data dependent on the position on the image sensor are distorted in accordance with the distortion curve of the optical element, at least one image processing unit for processing the image data captured by the image capture unit , and at least one reproduction unit for reproducing the image data processed by the image processing unit , characterized in that the image processing unit is configured for taking at least one partial portion from the image data of the image sensor , wherein the geometry of the partial portion is dependent on the position of the partial portion on the image sensor .