mhurhangee/ep-ind-claims huggingface dataset:
Non-therapeutic use of an extract obtained from microalgae belonging to the genus Chlorococcum, Thalassiosira, Monodus, Chaetoceros with a solvent selected from the group consisting of C 1 -C 4 aliphatic alcohols, ethyl acetate, water or their mixtures, for (a) the regulation of sebum production by sebaceous glands. (b) the prevention and treatment of dandruff. (a) the regulation of sebum production by sebaceous glands. (b) the prevention and treatment of dandruff.
Wall feed-through system for two conduits (106, 108), having a body which is mounted in a wall for rotation about an axis of rotation and through which extend two portions (110,112) of the two conduits (106, 108), said two portions being arranged one beside the other, being rotatable together with the body and each communicating with a stationary portion (126, 128) of one of the two conduits (106, 108), characterized in that each of the two rotatable portions (110, 112) is connected to one of the two stationary portions (126, 128) by a rotary joint (122, 124), and in that the axis of rotation of the body and the axes of rotation of the two rotary joints (122, 124) are in alignment with one another.
A method of operation of a first wireless device in a cellular communications network, the method comprising: camping on a first cell on a first carrier, wherein the first cell does not support device-to-device, D2D, communication; and during a first time interval when the first cell satisfies one or more criteria for the first wireless device to remain camped on the first cell, monitoring at least one second carrier on a set of pre-configured radio resources for at least one of a group consisting of: a second cell that supports the D2D communication, a signal from a second wireless device that supports the D2D communication, and the D2D communication, wherein the set of pre-configured radio resources are received from the first cell in response to the first wireless device notifying the first cell that the first wireless device supports the D2D communication, and wherein the first time interval is chosen from one of: a portion of a non-paging time interval of the first cell and the non-paging time interval of the first cell minus a pre-defined synchronization time interval. camping on a first cell on a first carrier, wherein the first cell does not support device-to-device, D2D, communication; and during a first time interval when the first cell satisfies one or more criteria for the first wireless device to remain camped on the first cell, monitoring at least one second carrier on a set of pre-configured radio resources for at least one of a group consisting of: a second cell that supports the D2D communication, a signal from a second wireless device that supports the D2D communication, and the D2D communication, wherein the set of pre-configured radio resources are received from the first cell in response to the first wireless device notifying the first cell that the first wireless device supports the D2D communication, and wherein the first time interval is chosen from one of: a portion of a non-paging time interval of the first cell and the non-paging time interval of the first cell minus a pre-defined synchronization time interval.
A surgical device comprising: a shaft including a member (240; 340) that is movable; and a first tendon (130; 230; 230A; 330A) attached to the member (240; 340) and extending through the shaft, the first tendon (130; 230; 230A; 330A) being movable; the surgical device characterised in that it further comprises: a first constant force spring system (210; 210B; 210C) attached to the first tendon (130; 230; 230A; 330A) and including a spring element (216; 216B; 216C) coupled such that, as the first tendon (130; 230; 230A; 330A) moves, the first tendon (130; 230; 230A; 330A) experiences a constant force from the first constant force spring system (210; 210B; 210C); and a first mechanism arranged to control the constant force that the first constant force spring system (210; 210B; 210C) applies to the first tendon (130; 230A; 330A). a shaft including a member (240; 340) that is movable; and a first tendon (130; 230; 230A; 330A) attached to the member (240; 340) and extending through the shaft, the first tendon (130; 230; 230A; 330A) being movable; the surgical device characterised in that it further comprises: a first constant force spring system (210; 210B; 210C) attached to the first tendon (130; 230; 230A; 330A) and including a spring element (216; 216B; 216C) coupled such that, as the first tendon (130; 230; 230A; 330A) moves, the first tendon (130; 230; 230A; 330A) experiences a constant force from the first constant force spring system (210; 210B; 210C); and a first mechanism arranged to control the constant force that the first constant force spring system (210; 210B; 210C) applies to the first tendon (130; 230A; 330A). a first constant force spring system (210; 210B; 210C) attached to the first tendon (130; 230; 230A; 330A) and including a spring element (216; 216B; 216C) coupled such that, as the first tendon (130; 230; 230A; 330A) moves, the first tendon (130; 230; 230A; 330A) experiences a constant force from the first constant force spring system (210; 210B; 210C); and a first mechanism arranged to control the constant force that the first constant force spring system (210; 210B; 210C) applies to the first tendon (130; 230A; 330A).
A method comprising: detecting a signal to move a stick of a construction machine toward a body of the construction machine; hydraulically delaying movement of the stick, the delaying comprising actuating a solenoid valve (604, 616) blocking hydraulic fluid pressure applied to a first input of the solenoid valve (604, 616) in response to user input from causing movement of the stick; determining a desired movement of a boom of the construction machine in response to the signal and based on predicted movement of the stick in response to the signal, the desired movement of the boom to maintain a bucket of the construction machine above a desired grade; determining a desired movement of the stick of the construction machine in response to the signal and based on the predicted movement of the stick in response to the signal and the desired movement of the boom, the desired movement of the stick to maintain the bucket of the construction machine above the desired grade; hydraulically actuating the boom based on the desired movement of the boom; and hydraulically actuating the stick based on the desired movement of the stick, wherein the stick is actuated by application of hydraulic fluid pressure from a controller actuated valve to a second input of the solenoid valve. detecting a signal to move a stick of a construction machine toward a body of the construction machine; hydraulically delaying movement of the stick, the delaying comprising actuating a solenoid valve (604, 616) blocking hydraulic fluid pressure applied to a first input of the solenoid valve (604, 616) in response to user input from causing movement of the stick; determining a desired movement of a boom of the construction machine in response to the signal and based on predicted movement of the stick in response to the signal, the desired movement of the boom to maintain a bucket of the construction machine above a desired grade; determining a desired movement of the stick of the construction machine in response to the signal and based on the predicted movement of the stick in response to the signal and the desired movement of the boom, the desired movement of the stick to maintain the bucket of the construction machine above the desired grade; hydraulically actuating the boom based on the desired movement of the boom; and hydraulically actuating the stick based on the desired movement of the stick, wherein the stick is actuated by application of hydraulic fluid pressure from a controller actuated valve to a second input of the solenoid valve.
A method of manufacturing a cushioning element, the method comprising: providing a die and an extractor, the die having a plurality of die elements and the extractor including a plurality of pins with a non-circular short-axis cross-sectional shape; locating a polymer foam material between the die and the extractor; compressing the polymer foam material between the die and the extractor, the die elements cutting the polymer material to form a plurality of pad components, and the pins extending into the pad components; separating the die and the extractor, the pad components being secured to the pins; and bonding the pad components to (a) a first material layer with the extractor and (b) a second material layer. providing a die and an extractor, the die having a plurality of die elements and the extractor including a plurality of pins with a non-circular short-axis cross-sectional shape; locating a polymer foam material between the die and the extractor; compressing the polymer foam material between the die and the extractor, the die elements cutting the polymer material to form a plurality of pad components, and the pins extending into the pad components; separating the die and the extractor, the pad components being secured to the pins; and bonding the pad components to (a) a first material layer with the extractor and (b) a second material layer.
A computer implemented method to identify a malicious database request comprising: receiving, from a software application, a database query for retrieving data from a database; classifying the received query based on query instructions contained in the query to identify a class of query for the query, the class of query having associated attributes defining expected characteristics of queries of the class when executed by the database; monitoring characteristics of the received query executed to retrieve data from the database; and responsive to a determination that the monitored characteristics deviate from the expected characteristics, identifying the query as malicious, wherein the class of query has associated a class query including the query instructions of the received query and the expected characteristics are defined based on the execution of the class query and classifying applications, such as said software application, based on queries received from the applications so as to identify applications having a similar profile to provide identification of malicious applications. receiving, from a software application, a database query for retrieving data from a database; classifying the received query based on query instructions contained in the query to identify a class of query for the query, the class of query having associated attributes defining expected characteristics of queries of the class when executed by the database; monitoring characteristics of the received query executed to retrieve data from the database; and responsive to a determination that the monitored characteristics deviate from the expected characteristics, identifying the query as malicious, wherein the class of query has associated a class query including the query instructions of the received query and the expected characteristics are defined based on the execution of the class query and classifying applications, such as said software application, based on queries received from the applications so as to identify applications having a similar profile to provide identification of malicious applications.
A compound of formula I1 wherein P is selected from the group consisting of vinyloxy, acrylate, methacrylate, fluoroacrylate, chloroacrylate, oxetane and epoxide groups, X denotes O, -O-CO-, -CO-O- -C≡C- or a single bond, x is an integer from 1 to 8, L 1, L 2 and L 3 denote independently of each other F r1=0, r2=1 or 2 and r3=1 or 2, or r1=r3=0 and r2=1, or r1=r3=0 and r2=2, and Y is CN. P is selected from the group consisting of vinyloxy, acrylate, methacrylate, fluoroacrylate, chloroacrylate, oxetane and epoxide groups, X denotes O, -O-CO-, -CO-O- -C≡C- or a single bond, x is an integer from 1 to 8, L 1, L 2 and L 3 denote independently of each other F r1=0, r2=1 or 2 and r3=1 or 2, or r1=r3=0 and r2=1, or r1=r3=0 and r2=2, and Y is CN.
An induction heating device comprising: a loading plate for placing a loaded object thereon; a working coil (202, 204) disposed below the loading plate for heating a loaded object using an inductive current; a loaded-object sensor disposed in a central region of the working coil (202, 204) and including a sensing coil; a control unit configured for determining, based on the sensing result of the loaded-object sensor, whether a loaded object having an inductive heating property is placed on the loading plate, and characterised in that a limiting circuit is configured for limiting a magnitude of induced voltage generated in the sensing coil to a predetermined limit range when the working coil (202, 204) is operated. a loading plate for placing a loaded object thereon; a working coil (202, 204) disposed below the loading plate for heating a loaded object using an inductive current; a loaded-object sensor disposed in a central region of the working coil (202, 204) and including a sensing coil; a control unit configured for determining, based on the sensing result of the loaded-object sensor, whether a loaded object having an inductive heating property is placed on the loading plate, and characterised in that a limiting circuit is configured for limiting a magnitude of induced voltage generated in the sensing coil to a predetermined limit range when the working coil (202, 204) is operated.
A fluid apparatus unit structure comprising: a base member; plural fluid apparatus components (20A, 20B, 20C, 20D, 30A, 30B) that are connected via a flow path and grouped together and integrated into the base member, wherein a chemical fluid circulation flow path (12A, 12B) is formed in the base member, a linked flow path, between adjacent fluid apparatus components (20A, 20B, 30A, 30B), forming part of the chemical fluid circulation flow path (12A, 12B), slants downward from an upstream side toward a downstream side in the flow direction, the base member is provided with plural installation surfaces (14A, 14B, 14C), each of the installation surfaces (14A, 14B, 14C) having a different height and a center position, the installation surfaces (14A, 14B, 14C) being provided for installing the fluid apparatus components (20A, 20B, 20C, 20D, 30A, 30B), and one of the plural installation surfaces is provided on the downstream side of the chemical fluid circulation flow path (12A, 12B) and is lower than another of the plural installation surfaces provided on the upstream side of the chemical fluid circulation flow path (12A, 12B) wherein, in a plan view of the base member, the center positions of the installation surfaces (14A, 14B, 14C) are arranged coaxially on one row and the linked flow path is offset from an axis that joins the axially center positions of the fluid apparatus components. a base member; plural fluid apparatus components (20A, 20B, 20C, 20D, 30A, 30B) that are connected via a flow path and grouped together and integrated into the base member, wherein a chemical fluid circulation flow path (12A, 12B) is formed in the base member, a linked flow path, between adjacent fluid apparatus components (20A, 20B, 30A, 30B), forming part of the chemical fluid circulation flow path (12A, 12B), slants downward from an upstream side toward a downstream side in the flow direction, the base member is provided with plural installation surfaces (14A, 14B, 14C), each of the installation surfaces (14A, 14B, 14C) having a different height and a center position, the installation surfaces (14A, 14B, 14C) being provided for installing the fluid apparatus components (20A, 20B, 20C, 20D, 30A, 30B), and one of the plural installation surfaces is provided on the downstream side of the chemical fluid circulation flow path (12A, 12B) and is lower than another of the plural installation surfaces provided on the upstream side of the chemical fluid circulation flow path (12A, 12B) wherein, in a plan view of the base member, the center positions of the installation surfaces (14A, 14B, 14C) are arranged coaxially on one row and the linked flow path is offset from an axis that joins the axially center positions of the fluid apparatus components.
A method of power transfer control among a plurality of power sources (120, 132, 134, 136) coupled through a distribution system, comprising: determining, at each power source of the plurality of power sources, an assignment of priorities for each of the plurality of power sources, wherein the priorities establish a hierarchy of the power sources for supplying power to a load; obtaining, at each power source, information indicating an availability of each of the plurality of power sources and determining a set of available power sources from among the plurality of power sources based on the information; identifying, at each power source, a preferred power source and a standby power source from the plurality of power sources based on the priorities and the information, wherein the preferred power source and the standby power source are among the set of available power sources, and wherein the priority of the preferred power source is higher than the priority of the standby power source; determining, at each power source, to change the preferred power source from a first power source to a second power source in response to detecting when the currently preferred power source is unavailable; and conducting, at-the first power source and-the second power source, a power transfer between the first power source and the second power source in response to determining to change the preferred power source to the second power source. determining, at each power source of the plurality of power sources, an assignment of priorities for each of the plurality of power sources, wherein the priorities establish a hierarchy of the power sources for supplying power to a load; obtaining, at each power source, information indicating an availability of each of the plurality of power sources and determining a set of available power sources from among the plurality of power sources based on the information; identifying, at each power source, a preferred power source and a standby power source from the plurality of power sources based on the priorities and the information, wherein the preferred power source and the standby power source are among the set of available power sources, and wherein the priority of the preferred power source is higher than the priority of the standby power source; determining, at each power source, to change the preferred power source from a first power source to a second power source in response to detecting when the currently preferred power source is unavailable; and conducting, at-the first power source and-the second power source, a power transfer between the first power source and the second power source in response to determining to change the preferred power source to the second power source.
A sanitary fitting, at least comprising: - a fitting housing, - a first jet-forming element, - a second jet-forming element, and - a two-way valve which can be used to selectively supply a liquid to the first jet-forming element or to the second jet-forming element, wherein the two-way valve is arranged in the fitting housing and has a valve body which is mounted to be rotatable about an axis of rotation in a valve housing of the two-way valve between a first valve seat of a first outlet of the two-way valve and a second valve seat of a second outlet of the two-way valve, wherein the valve body has a first sealing surface for the first valve seat and a second sealing surface for the second valve seat, wherein the first sealing surface and the second sealing surface form a first angle, characterized in that the first sealing surface is arranged on a first valve body arm of the valve body and the second sealing surface is arranged on a second valve body arm of the valve body. - a fitting housing, - a first jet-forming element, - a second jet-forming element, and - a two-way valve which can be used to selectively supply a liquid to the first jet-forming element or to the second jet-forming element, wherein the two-way valve is arranged in the fitting housing and has a valve body which is mounted to be rotatable about an axis of rotation in a valve housing of the two-way valve between a first valve seat of a first outlet of the two-way valve and a second valve seat of a second outlet of the two-way valve, wherein the valve body has a first sealing surface for the first valve seat and a second sealing surface for the second valve seat, wherein the first sealing surface and the second sealing surface form a first angle, characterized in that the first sealing surface is arranged on a first valve body arm of the valve body and the second sealing surface is arranged on a second valve body arm of the valve body.
A low gloss ASA-based resin composition comprising: (a) 10wt% to 40wt% of an ASA graft copolymer comprising a large diameter acrylic rubber with an average particle diameter of 300 to 500nm as a core; (b) 1wt% to 20wt% of an ASA graft copolymer comprising an extra-large diameter acrylic-based rubber with an average particle diameter of 0.5μm to 1.5μm as a core; (c) 20wt% to 60wt% of an SAN copolymer; (d) 10wt% to 40wt% of a heat-resistant SAN copolymer; (e) 1wt% to 10wt% of a crosslinked aromatic vinyl compound-cyanide vinyl compound copolymer; and (f) 0.1wt% to 5wt% of an amorphous inorganic material. (a) 10wt% to 40wt% of an ASA graft copolymer comprising a large diameter acrylic rubber with an average particle diameter of 300 to 500nm as a core; (b) 1wt% to 20wt% of an ASA graft copolymer comprising an extra-large diameter acrylic-based rubber with an average particle diameter of 0.5μm to 1.5μm as a core; (c) 20wt% to 60wt% of an SAN copolymer; (d) 10wt% to 40wt% of a heat-resistant SAN copolymer; (e) 1wt% to 10wt% of a crosslinked aromatic vinyl compound-cyanide vinyl compound copolymer; and (f) 0.1wt% to 5wt% of an amorphous inorganic material.
A collapsible canopy structure comprising, in an erected configuration, a roof area structure and sidewalls extending downwardly from the roof area structure, including a docking arrangement permitting a vehicle to be positioned at least partly docked entered into the interior of the canopy; wherein the docking arrangement includes: i) magnetic securing means for securing the canopy to the vehicle; and ii) a fold-over section of the roof area structure of the canopy, wherein the fold over section is arranged to be folded over into an erected configuration from a stowed position to cover an upper portion of the vehicle, wherein the fold-over section comprises a plurality of frame members (6,7,8) each pivotally mounted to a storage section to be movable between a stowed configuration and an erected configuration to enable the fold-over section to be drawn from the stowed configuration to the erected configuration; wherein the storage section is arranged to store the fold-over section of the roof area structure in the stowed configuration. i) magnetic securing means for securing the canopy to the vehicle; and ii) a fold-over section of the roof area structure of the canopy, wherein the fold over section is arranged to be folded over into an erected configuration from a stowed position to cover an upper portion of the vehicle, wherein the fold-over section comprises a plurality of frame members (6,7,8) each pivotally mounted to a storage section to be movable between a stowed configuration and an erected configuration to enable the fold-over section to be drawn from the stowed configuration to the erected configuration;