mhurhangee/ep-ind-claims huggingface dataset:
A method for quantifying rolling circle amplification products, the method comprising: (a) labelling RCA products; (b) distributing the labeled RCA products on the surface of a substrate, wherein the labeled RCA products each comprise: (i) an RCA product, (ii) a single circularized ligation product, and (iii) a plurality of labelled oligonucleotides that hybridize to a sequence that is repeated in the RCA product; and (c) counting the number of labeled RCA products that are present in an area of the substrate, wherein the substrate comprises multiple sets of RCA products that are distinguishably labeled before they are distributed on the substrate and wherein each set of RCA products has a distinguishable repeated sequence and the labelled oligonucleotides hybridizing thereto are distinguishably labelled for each set of RCA products. (a) labelling RCA products; (b) distributing the labeled RCA products on the surface of a substrate, wherein the labeled RCA products each comprise: (i) an RCA product, (ii) a single circularized ligation product, and (iii) a plurality of labelled oligonucleotides that hybridize to a sequence that is repeated in the RCA product; and (i) an RCA product, (ii) a single circularized ligation product, and (iii) a plurality of labelled oligonucleotides that hybridize to a sequence that is repeated in the RCA product; and (c) counting the number of labeled RCA products that are present in an area of the substrate, wherein the substrate comprises multiple sets of RCA products that are distinguishably labeled before they are distributed on the substrate and wherein each set of RCA products has a distinguishable repeated sequence and the labelled oligonucleotides hybridizing thereto are distinguishably labelled for each set of RCA products.
A control method for a hybrid vehicle that changes an operation mode of the hybrid vehicle between a hybrid electric vehicle mode that connects both of a motor and an engine (Eng) to driving wheels (LT, RT) so as to transmit a driving force from the motor and the engine (Eng), and an electric vehicle mode that disconnects the engine (Eng) from a driving system and connects the motor only to the driving wheels (LT, RT) so as to transmit a driving force from the motor, the method comprising: - calculating a target driving force to control the motor to perform powering or a target driving force to control the motor to perform regeneration; - determining whether the target driving force is in an electric vehicle area having a small absolute value of the target driving force or in a hybrid electric vehicle area having an absolute value of the target driving force larger than the absolute value of the electric vehicle area; - when the target driving force shifts from the electric vehicle area to the hybrid electric vehicle area, changing the operation mode from the electric vehicle mode to the hybrid electric vehicle mode; - when the target driving force shifts from the hybrid electric vehicle area to the electric vehicle area via a dead-zone, changing the operation mode from the hybrid electric vehicle mode to the electric vehicle mode; - when self-driving is not set, calculating the target driving force based on a vehicle-speed and a driver's driving operation; and - when self-driving is set, calculating the target driving force based on a target vehicle-speed and an actual vehicle-speed; characterized in that - when self-driving is set - setting an amount to enlarge a dead-zone width to control the motor is carried out to perform powering relative to a dead-zone width when the self-driving is not set larger than an amount to enlarge a dead-zone width to control the motor to perform regeneration relative to a dead-zone width when the self-driving is not set. - calculating a target driving force to control the motor to perform powering or a target driving force to control the motor to perform regeneration; - determining whether the target driving force is in an electric vehicle area having a small absolute value of the target driving force or in a hybrid electric vehicle area having an absolute value of the target driving force larger than the absolute value of the electric vehicle area; - when the target driving force shifts from the electric vehicle area to the hybrid electric vehicle area, changing the operation mode from the electric vehicle mode to the hybrid electric vehicle mode; - when the target driving force shifts from the hybrid electric vehicle area to the electric vehicle area via a dead-zone, changing the operation mode from the hybrid electric vehicle mode to the electric vehicle mode; - when self-driving is not set, calculating the target driving force based on a vehicle-speed and a driver's driving operation; and - when self-driving is set, calculating the target driving force based on a target vehicle-speed and an actual vehicle-speed;
A compound which is an ADAM inhibitor or an anti-Her2 antibody for use in a method of treating cancer, wherein said cancer overexpresses Her-2, and wherein the treatment comprises administering a therapeutically effective amount of the anti-Her2 antibody and the ADAM inhibitor, wherein the ADAM inhibitor is a metalloproteinase inhibitor which inhibits cleavage of Her-2 in vivo.
A process for tertiary production of mineral oil from underground mineral oil deposits having a deposit temperature T D, into which at least one injection well and at least one production well have been sunk, comprising at least the following process steps: i) injecting a flooding composition through at least one injection well into the mineral oil deposit, using, as the flooding composition, a formulation having a temperature T F higher than the temperature T D, ii) cooling the flooding composition from step i) in the mineral oil deposit and iii) injecting a further flooding composition through at least one injection well into the mineral oil deposit and withdrawing mineral oil through at least one production well, said formulation comprising crude glycerol having the following composition: 80 to 90% by weight of glycerol, 10 to 20% by weight of water, 0 to 10% by weight of inorganic salts and 0 to 1% by weight of organic compounds, where the percentages by weight are each based on the total weight of the crude glycerol. i) injecting a flooding composition through at least one injection well into the mineral oil deposit, using, as the flooding composition, a formulation having a temperature T F higher than the temperature T D, ii) cooling the flooding composition from step i) in the mineral oil deposit and iii) injecting a further flooding composition through at least one injection well into the mineral oil deposit and withdrawing mineral oil through at least one production well, said formulation comprising crude glycerol having the following composition: 80 to 90% by weight of glycerol, 10 to 20% by weight of water, 0 to 10% by weight of inorganic salts and 0 to 1% by weight of organic compounds, where the percentages by weight are each based on the total weight of the crude glycerol.
A protein consisting of formula I: A-(R 1) m - n (formula I) wherein: A is an immunogenic fragment of UspA2 from Moraxella catarrhalis having at least 90% identity to SEQ ID NO: 39, SEQ ID NO: 40, SEQ ID NO: 41, SEQ ID NO: 42 or SEQ ID NO: 43; R 1 is an amino acid; m is 0 or 2; B is histidine; and n is 1, 2, 3, 4, 5 or 6. A is an immunogenic fragment of UspA2 from Moraxella catarrhalis having at least 90% identity to SEQ ID NO: 39, SEQ ID NO: 40, SEQ ID NO: 41, SEQ ID NO: 42 or SEQ ID NO: 43; R 1 is an amino acid; m is 0 or 2; B is histidine; and n is 1, 2, 3, 4, 5 or 6.
A blood pump having a housing, inlet apertures, outlet apertures and further comprising: an impeller assembly comprising at least a rotatable rotor within the housing; a collapsible and expandable region disposed distal of the impeller assembly; a non-expandable region proximal of the collapsible and expandable region, wherein the collapsible and expandable region comprises a distal portion of the housing deformed to invert proximally within itself to achieve a collapsed configuration. an impeller assembly comprising at least a rotatable rotor within the housing; a collapsible and expandable region disposed distal of the impeller assembly; a non-expandable region proximal of the collapsible and expandable region, wherein the collapsible and expandable region comprises a distal portion of the housing deformed to invert proximally within itself to achieve a collapsed configuration.
Detergent builder granules comprising: (component A) one or more water-soluble inorganic salts having and/or being capable of forming a hydrate crystal and selected from the group consisting of carbonates, sulfates, and chlorides; and (component B) a clay mineral, wherein the component A is contained in an amount of 30% by weight or more, the component B is contained in an amount of 60% by weight or less, the component A and the component B are in a weight ratio, i.e. A/B, calculated as an anhydrate, of from 5/95 to 80/20, and a percentage of water loss upon heating to a temperature of 200°C is more than 3% by weight and is 30% by weight or less, wherein the detergent builder granules are obtainable by the method comprising steps to or by the method comprising steps (a) to (c): step: mixing the component A and the component B; step: adding water (component C) to a mixture obtained in the step to granulate a mixture obtained; and step: adding fine particles to a granular surface of granules obtained in the step to surface-modify the granules; step (a): mixing the component A and a part of the component B; step (b): adding water (component C) to a mixture obtained in the step (a) to granulate a mixture obtained; and step (c): mixing a part or all of a remainder of the component B with granules obtained in the step (b), and adding the component C to granulate a mixture obtained in the step (b). (component A) one or more water-soluble inorganic salts having and/or being capable of forming a hydrate crystal and selected from the group consisting of carbonates, sulfates, and chlorides; and (component B) a clay mineral, step: mixing the component A and the component B; step: adding water (component C) to a mixture obtained in the step to granulate a mixture obtained; and step: adding fine particles to a granular surface of granules obtained in the step to surface-modify the granules; step (a): mixing the component A and a part of the component B; step (b): adding water (component C) to a mixture obtained in the step (a) to granulate a mixture obtained; and step (c): mixing a part or all of a remainder of the component B with granules obtained in the step (b), and adding the component C to granulate a mixture obtained in the step (b).
A surgical instrument, comprising: a housing defining a distal aperture and including an internal partition proximally-spaced from the distal aperture to define an interior cavity therebetween, the internal partition defining a shaft aperture therethrough; a shaft including a proximal end portion disposed within the housing and having at least one protrusion, the shaft extending distally through the shaft aperture of the internal partition, the internal cavity, and the distal aperture of the housing to a distal end portion of the shaft that is distally-spaced from the housing; an end effector assembly supported at the distal end portion of the shaft; and a bobbin (1110; 2110; 3110; 4110) including a body (1112; 2112; 3112; 4112), a proximal rim (1114; 2114; 3114; 4114), and a distal cylinder (1116; 2116; 3116; 4116), the bobbin disposed about the shaft such that the at least one protrusion is rotationally captured within a track (1124; 2122; 3128; 4129) defined within the distal cylinder, the bobbin configured for positioning within the housing such that the body extends through the shaft aperture of the internal partition with the proximal rim disposed on a proximal side of the partition and the distal cylinder disposed within the interior cavity on a distal side of the internal partition, thereby rotatably supporting the proximal end portion of the shaft within the housing. a housing defining a distal aperture and including an internal partition proximally-spaced from the distal aperture to define an interior cavity therebetween, the internal partition defining a shaft aperture therethrough; a shaft including a proximal end portion disposed within the housing and having at least one protrusion, the shaft extending distally through the shaft aperture of the internal partition, the internal cavity, and the distal aperture of the housing to a distal end portion of the shaft that is distally-spaced from the housing; an end effector assembly supported at the distal end portion of the shaft; and a bobbin (1110; 2110; 3110; 4110) including a body (1112; 2112; 3112; 4112), a proximal rim (1114; 2114; 3114; 4114), and a distal cylinder (1116; 2116; 3116; 4116), the bobbin disposed about the shaft such that the at least one protrusion is rotationally captured within a track (1124; 2122; 3128; 4129) defined within the distal cylinder, the bobbin configured for positioning within the housing such that the body extends through the shaft aperture of the internal partition with the proximal rim disposed on a proximal side of the partition and the distal cylinder disposed within the interior cavity on a distal side of the internal partition, thereby rotatably supporting the proximal end portion of the shaft within the housing.
A user equipment for data communication in a wireless communication network, such as a Wi-Fi communication network, comprising at least one access point, the user equipment comprising: a processing unit; a memory unit (102, 104); a communication interface (101, 103) for data communication with said access point under control of said processing unit, said communication interface (101, 103) being configured to use an identifier stored in the memory (102, 104) such that any data communication sent by the communication interface (101, 103) to the access point, is associated with said identifier, wherein the memory unit (102, 104) further comprises a category-to-identifier database in which one or more virtual identifiers (300 i) are stored each associated with a specific content category (Ci) determined through the application layer, the communication interface (101, 103) being further configured to: determine, through the application layer, which specific content category (C i) a determined data to be sent to the access point belongs to; obtain from the category-to-identifier database the virtual identifier (300 i) corresponding to the specific content category (C i) which the determined data belongs to, and allocate to said determined data said virtual identifier (300 i) as identifier to be used for transmission of said determined data to the access point. a processing unit; a memory unit (102, 104); a communication interface (101, 103) for data communication with said access point under control of said processing unit, said communication interface (101, 103) being configured to use an identifier stored in the memory (102, 104) such that any data communication sent by the communication interface (101, 103) to the access point, is associated with said identifier, determine, through the application layer, which specific content category (C i) a determined data to be sent to the access point belongs to; obtain from the category-to-identifier database the virtual identifier (300 i) corresponding to the specific content category (C i) which the determined data belongs to, and allocate to said determined data said virtual identifier (300 i) as identifier to be used for transmission of said determined data to the access point.
A composite antenna device comprising: a broadband antenna based on a bow-tie antenna including a first conductor element (20, 80) and a second conductor element (30, 90) which extend in opposite directions to each other with respect to a feeding point; wherein when orthogonal three axes are referred to as an X axis, a Y axis and a Z axis, the first conductor element (20, 80) includes a portion extending in a positive Z direction from the feeding point and being substantially parallel to an X-Z plane, and the second conductor element (30, 90) includes a portion extending in a negative Z direction from the feeding point and being substantially parallel to the X-Z plane, and at least one of the first conductor element (20, 80) and the second conductor element (30, 90) includes a first portion (21, 81, 91) lying near the feeding point and a second portion (22, 82, 92) extending from the first portion (21, 81, 91) so as to have an area being non-parallel to the first portion (21, 81, 91), the composite antenna device is characterized in that a patch antenna is provided on the first conductor element (20, 80), the first conductor element (20, 80) includes a first portion (21, 81) lying near the feeding point, the first portion (21, 81) extending in the positive Z direction from the feeding point and being substantially parallel to the X-Z plane, and a second portion (22, 82) extending in substantially parallel to the X-Y plane from the first portion (21, 81), and the patch antenna is provided on the second portion (22, 82) of the first conductor element (20, 80). a broadband antenna based on a bow-tie antenna including a first conductor element (20, 80) and a second conductor element (30, 90) which extend in opposite directions to each other with respect to a feeding point; wherein when orthogonal three axes are referred to as an X axis, a Y axis and a Z axis, the first conductor element (20, 80) includes a portion extending in a positive Z direction from the feeding point and being substantially parallel to an X-Z plane, and the second conductor element (30, 90) includes a portion extending in a negative Z direction from the feeding point and being substantially parallel to the X-Z plane, and at least one of the first conductor element (20, 80) and the second conductor element (30, 90) includes a first portion (21, 81, 91) lying near the feeding point and a second portion (22, 82, 92) extending from the first portion (21, 81, 91) so as to have an area being non-parallel to the first portion (21, 81, 91), the composite antenna device is characterized in that a patch antenna is provided on the first conductor element (20, 80), the first conductor element (20, 80) includes a first portion (21, 81) lying near the feeding point, the first portion (21, 81) extending in the positive Z direction from the feeding point and being substantially parallel to the X-Z plane, and a second portion (22, 82) extending in substantially parallel to the X-Y plane from the first portion (21, 81), and the patch antenna is provided on the second portion (22, 82) of the first conductor element (20, 80).
Coil device for a power converter, comprising a cooling plate and a plurality N ≥ 3 of coil windings, wherein the cooling plate is thermally coupled to at least one end face of one of the coil windings, characterised in that the coil windings are arranged spatially offset to one another by an angle of 2π / N, and the cooling plate has a cooling channel which extends at least partially around each of the N coil windings.
A protection relay for protecting an electric system, comprising: means for receiving a time multiplier value; means for calculating, with the received time multiplier value, an inverse definite time dependency having an exponentiation function, wherein the dependency defines a relationship between an excitation level of an input signal to the relay and an operate time (t) of the relay, means for shifting (308, 310) the dependency to a predefined calculation space; and means for applying (312, 318, 320, 322), during execution, the dependency shifted to the predefined calculation space when determining an operate condition of the relay, characterized in that: the dependency is modelled as a straight line in a linear-logarithmic space, wherein the linear x-axis depicts an excitation level and the logarithmic y-axis the operate time of the relay, and the dependency is shifted horizontally along the x-axis to the predefined calculation space, so that the excitation level in per-unit value equals 1 for a predetermined maximum operation time. means for receiving a time multiplier value; means for calculating, with the received time multiplier value, an inverse definite time dependency having an exponentiation function, wherein the dependency defines a relationship between an excitation level of an input signal to the relay and an operate time (t) of the relay, means for shifting (308, 310) the dependency to a predefined calculation space; and means for applying (312, 318, 320, 322), during execution, the dependency shifted to the predefined calculation space when determining an operate condition of the relay, characterized in that: the dependency is modelled as a straight line in a linear-logarithmic space, wherein the linear x-axis depicts an excitation level and the logarithmic y-axis the operate time of the relay, and the dependency is shifted horizontally along the x-axis to the predefined calculation space, so that the excitation level in per-unit value equals 1 for a predetermined maximum operation time.
A system (10, 20, 30) for measuring bioelectrical ECG signals of a user, comprising: - an ECG electrode (11, 21, 31) for mounting on the skin of a user, the electrode (11, 21, 31) being adapted for measuring a bioelectrical ECG signal, - a determination unit (12, 22, 32) adapted for determining a displacement of the ECG skin-mounted electrode (11, 21, 31) from an original position on the skin of the user, characerised by - an adjusting unit (13, 23, 33) adapted for adjusting the position of said electrode (11, 21, 31) depending on the determined displacement to compensate the determined displacement. - an ECG electrode (11, 21, 31) for mounting on the skin of a user, the electrode (11, 21, 31) being adapted for measuring a bioelectrical ECG signal, - a determination unit (12, 22, 32) adapted for determining a displacement of the ECG skin-mounted electrode (11, 21, 31) from an original position on the skin of the user, characerised by - an adjusting unit (13, 23, 33) adapted for adjusting the position of said electrode (11, 21, 31) depending on the determined displacement to compensate the determined displacement.