mhurhangee/patent-ind-claim-en huggingface dataset:
An aqueous resin composition (I) comprising at least one polymerizable ethylenically unsaturated polyurethane polymer (A), optionally, at least one polymerizable ethylenically unsaturated compound (B) different from (A), and at least one neutralizing agent (C) which is a non-volatile neutralizing agent; wherein the neutralizing agent (C) is an alkali metal hydroxide, the polyurethane polymer (A) has a weight average molecular weight of less than 15.000 Daltons and is obtained from the reaction of: at least one aliphatic or cycloaliphatic polyisocyanate (i); at least one hydrophilic compound (ii) containing at least one reactive group capable to react with isocyanate groups and at least one group which is capable to render the polyurethane polymer dispersible or soluble in aqueous medium either directly or after reaction with a neutralizing agent (C) to provide a salt; at least one compound (iii) containing essentially one nucleophilic function capable to react with isocyanate groups and at least one copolymerizable ethylenically unsaturated group; at least one compound (iv) containing at least two reactive groups capable to react with isocyanate groups; and, optionally, at least one chain extender (v) containing at least two reactive groups capable to react with isocyanate groups and different from (iv); wherein the equivalent ratio of isocyanate groups provided by compound (i) to isocyanate-reactive groups provided by compounds (ii), (iii) and (iv) is from 1.05:1 to 1.20:1; and wherein the non-volatile components of the resin composition (I) after drying are re-dispersible or re-soluble in water at 25°C, wherein by re-dispersible is meant that at most 20 % by weight of the non-volatile components of the resin composition (I), after drying and subsequent soaking in demineralized water at 25 °C for 24 hours, have not gone again into dispersion, and wherein by re-soluble is meant that at most 20 % by weight of the non-volatile components of the resin composition (I), after drying at 60°C for 16 hours and subsequent soaking in demineralized water at 25 °C for 24 hours, have not gone again into solution.
A protective casing for electronic product, comprising a flexible body and a support assembly , wherein: the support assembly includes a fixing plate , a support arm , and pivot assembly provided between the fixing plate and the support arm, wherein one end of the support arm is pivotally jointed to the fixing plate via the pivot assembly, and the other end of the support arm is pivotable around the pivot assembly so as to be opened/closed relative to the fixing plate; a mounting zone configured for mounting the fixing plate is provided along the short side direction of the flexible body, with two openings being symmetrically arranged in the mounting zone, wherein a connecting plate is provided between the two openings; and one end of the fixing plate penetrates through one of the two openings from the front side of the flexible body and is snap-fitted to the flexible body; and the other end of the fixing plate penetrates through the other of the two openings from the front side of the flexible body and is snap-fitted to the flexible body, and wherein the connecting plate abuts against the fixing plate. the support assembly includes a fixing plate , a support arm , and pivot assembly provided between the fixing plate and the support arm, wherein one end of the support arm is pivotally jointed to the fixing plate via the pivot assembly, and the other end of the support arm is pivotable around the pivot assembly so as to be opened/closed relative to the fixing plate; a mounting zone configured for mounting the fixing plate is provided along the short side direction of the flexible body, with two openings being symmetrically arranged in the mounting zone, wherein a connecting plate is provided between the two openings; and one end of the fixing plate penetrates through one of the two openings from the front side of the flexible body and is snap-fitted to the flexible body; and the other end of the fixing plate penetrates through the other of the two openings from the front side of the flexible body and is snap-fitted to the flexible body, and wherein the connecting plate abuts against the fixing plate.
Attachment for a vehicle wheel for enabling driving operation with limited tire function, comprising a base body and a fastening device for fastening the attachment to the rim of the vehicle wheel , wherein the base body , when seen in an axial direction , has a circular or substantially circular-ring-shaped form, characterised in that the fastening device comprises fastening means which, when connected to the base body , are movable relative to the base body in a radial direction , and a coupling mechanism which couples a movement of at least two of the fastening means in a radial direction such that all coupled fastening means move either radially inwards or radially outwards.
An in-vehicle cooling device, comprising: - a header to be mounted so as to be adjacent to a side surface of a transformer mounted on a back side of a bottom portion of a vehicle, the header having a surface extending along a traveling direction and a direction orthogonal to the travelling direction; - a traveling-direction installed cooling pipe having both ends fixed to the header and being installed on a travel plane that is parallel to a horizontal plane, and characterized in that the in-vehicle cooling device further comprises: - a vertical-direction installed cooling pipe having both ends fixed to the header and being installed on a vertical plane orthogonal to the traveling direction; and - the vertical-direction installed cooling pipe and the traveling-direction installed cooling pipe being installed to overlap with each other in a direction orthogonal to the header . - a header to be mounted so as to be adjacent to a side surface of a transformer mounted on a back side of a bottom portion of a vehicle, the header having a surface extending along a traveling direction and a direction orthogonal to the travelling direction; - a traveling-direction installed cooling pipe having both ends fixed to the header and being installed on a travel plane that is parallel to a horizontal plane, and - a vertical-direction installed cooling pipe having both ends fixed to the header and being installed on a vertical plane orthogonal to the traveling direction; and - the vertical-direction installed cooling pipe and the traveling-direction installed cooling pipe being installed to overlap with each other in a direction orthogonal to the header .
An additively manufactured nested segment shroud assembly for a gas turbine engine, comprising: a first component segment having an end face and a tongue projecting outwardly from the end face ; and a second component segment positioned adjacent the first component segment and defining a groove , wherein at least a portion of the tongue of the first component segment is nested within the groove defined by the second component segment ; characterised in that the tongue comprises a plurality of turbulators projecting therefrom. a first component segment having an end face and a tongue projecting outwardly from the end face ; and a second component segment positioned adjacent the first component segment and defining a groove , wherein at least a portion of the tongue of the first component segment is nested within the groove defined by the second component segment ; characterised in that the tongue comprises a plurality of turbulators projecting therefrom.
A bonded structure, comprising a Zn-based brazing filler metal and a Cu-based bonding object bonded to each other, and further comprising an Al-based bonding object bonded with the Zn-based brazing filler metal , - wherein the bonded structure comprises a joint including a first alloy phase , a second alloy phase and a third alloy phase between the Zn-based brazing filler metal and the Cu-based bonding object , - wherein the first alloy phase is an alloy phase having a basic composition of Cu 5 Zn 8 and being formed on a Cu-based bonding object side of the joint, - wherein the third alloy phase is an alloy phase having a basic composition of CuZn 4 or CuZn 5 and being formed on a Zn-based brazing filler metal side of the joint, and in which part of a surface thereof on the Cu-based bonding object side is in contact with the first alloy phase , - wherein the second alloy phase is an alloy phase having a basic composition of CuZn 3 and being formed at an interface between the first alloy phase and the third alloy phase , and - wherein, in a cross section parallel to a bonding direction, a ratio of the second alloy phase at the interface between the first alloy phase and the third alloy phase is less than 80 %. - wherein the bonded structure comprises a joint including a first alloy phase , a second alloy phase and a third alloy phase between the Zn-based brazing filler metal and the Cu-based bonding object , - wherein the first alloy phase is an alloy phase having a basic composition of Cu 5 Zn 8 and being formed on a Cu-based bonding object side of the joint, - wherein the third alloy phase is an alloy phase having a basic composition of CuZn 4 or CuZn 5 and being formed on a Zn-based brazing filler metal side of the joint, and in which part of a surface thereof on the Cu-based bonding object side is in contact with the first alloy phase , - wherein the second alloy phase is an alloy phase having a basic composition of CuZn 3 and being formed at an interface between the first alloy phase and the third alloy phase , and - wherein, in a cross section parallel to a bonding direction, a ratio of the second alloy phase at the interface between the first alloy phase and the third alloy phase is less than 80 %.
A computer system comprising: an independent compute core separate to any main processor of the computer system; and an electrically isolated secure data storage device to store data accessible only to the independent compute core, the data comprising a secure backup copy of a Basic Input Output System, BIOS, of the computer system ; wherein the independent compute core is to open an Application Program Interface , API, during runtime of the computer system and in response to receiving a verified message containing secure data to be written to the secure data storage device, the secure data comprising an update to the secure backup copy of the BIOS, and the independent compute core is to write data from the verified message to the electrically isolated secure data storage device through the API during runtime of the computer system , the computer system further comprising a flag of the API, the independent compute core to selectively set the flag to an open or closed state, wherein writing secure data to the secure data storage device can only occur when the flag is in the open state. an independent compute core separate to any main processor of the computer system; and an electrically isolated secure data storage device to store data accessible only to the independent compute core, the data comprising a secure backup copy of a Basic Input Output System, BIOS, of the computer system ; wherein the independent compute core is to open an Application Program Interface , API, during runtime of the computer system and in response to receiving a verified message containing secure data to be written to the secure data storage device, the secure data comprising an update to the secure backup copy of the BIOS, and the independent compute core is to write data from the verified message to the electrically isolated secure data storage device through the API during runtime of the computer system , the computer system further comprising a flag of the API, the independent compute core to selectively set the flag to an open or closed state, wherein writing secure data to the secure data storage device can only occur when the flag is in the open state.
A lighting device comprising: a first light emitting part comprising a first optical part and a light source part ; wherein the first optical part includes a first reflecting part and a second reflecting part , a first direction (D1) extending from the first reflecting part to the second reflecting part crosses a second direction (D2) extending from the first light source part to the second reflecting part , a direction extending from the first light source part to the first reflecting part extends along a first plane which includes the first direction and the second direction, and crosses the second direction, a distance (d1) between the first reflecting part and the first light source part is larger than a distance (d2) between the second reflecting part and the first light source part , and a light distribution angle (DA1) of a first-reflecting-part light , that is a portion of a first outgoing light from the first light source part reflected by the first reflecting part , in the first plane is larger than a light distribution angle (DA2) of a second-reflecting-part light , that is a portion of the first outgoing light reflected by the second reflecting part , in the first plane, characterized in that the light distribution angle (LX11) of the first-reflecting-part light in a third direction (D3) perpendicular to the first plane is larger than a light distribution angle (LX12) of the second-reflecting-part light in the third direction (D3). a first light emitting part comprising a first optical part and a light source part ; wherein the first optical part includes a first reflecting part and a second reflecting part , a first direction (D1) extending from the first reflecting part to the second reflecting part crosses a second direction (D2) extending from the first light source part to the second reflecting part , a direction extending from the first light source part to the first reflecting part extends along a first plane which includes the first direction and the second direction, and crosses the second direction, a distance (d1) between the first reflecting part and the first light source part is larger than a distance (d2) between the second reflecting part and the first light source part , and a light distribution angle (DA1) of a first-reflecting-part light , that is a portion of a first outgoing light from the first light source part reflected by the first reflecting part , in the first plane is larger than a light distribution angle (DA2) of a second-reflecting-part light , that is a portion of the first outgoing light reflected by the second reflecting part , in the first plane, characterized in that the light distribution angle (LX11) of the first-reflecting-part light in a third direction (D3) perpendicular to the first plane is larger than a light distribution angle (LX12) of the second-reflecting-part light in the third direction (D3).
Actuating mechanism having: - a transmission element , which is configured to be displaced by an actuating force, which is applied to the actuating mechanism, parallel to an actuating direction (x); and - a restraining mechanism , which is configured to block a displacement of the transmission element parallel to the actuating direction (x), characterized in that the restraining mechanism is configured to block the transmission element at a position along the actuating direction (x) which is outside a working stroke of the transmission element . - a transmission element , which is configured to be displaced by an actuating force, which is applied to the actuating mechanism, parallel to an actuating direction (x); and - a restraining mechanism , which is configured to block a displacement of the transmission element parallel to the actuating direction (x),
In vitro method for predicting a necrotic enteritis outbreak in an avian population, the method comprising: a) collecting fecal sample material deriving from the avian population at consecutive points in time; and b) determining the ratio of the amounts of the marker genes netB to cpa, contained in the sample material obtained in step a); wherein a reversion of the ratio of the amounts of netB to cpa over time predicts a near-term necrotic enteritis outbreak. a) collecting fecal sample material deriving from the avian population at consecutive points in time; and b) determining the ratio of the amounts of the marker genes netB to cpa, contained in the sample material obtained in step a);
An induction heater for a cook top comprising: - a first electrically insulating sheet ; - a second electrically insulating sheet ; - one or more of inductors arranged on a same plane between the first sheet and the second sheet defining a sandwich structure, each inductor comprising a single track of electrically conductive material defining a flat spiral coil, said one or more inductors being provided with at least two terminals ; characterized in that the induction heater comprises - an electronic power module provided with a plurality of electrically conductive columns , each column being arranged at a respective terminal ; - electrically conductive electrical connection and fixing means , inserted in a respective column to electrically connect each column to a respective terminal and to fix said sandwich structure, formed by said one or more inductors arranged on said same plane between the first sheet and the second sheet , to said electronic power module ; in that the second sheet , which is proximal to the electronic power module , has a plurality of holes, of which each hole is coaxial with a respective column ; in that each hole is crossed by a respective electrical connection and fixing means ; and in that each of the electrical connection and fixing means is in contact with a respective terminal . - a first electrically insulating sheet ; - a second electrically insulating sheet ; - one or more of inductors arranged on a same plane between the first sheet and the second sheet defining a sandwich structure, each inductor comprising a single track of electrically conductive material defining a flat spiral coil, said one or more inductors being provided with at least two terminals ; - an electronic power module provided with a plurality of electrically conductive columns , each column being arranged at a respective terminal ; - electrically conductive electrical connection and fixing means , inserted in a respective column to electrically connect each column to a respective terminal and to fix said sandwich structure, formed by said one or more inductors arranged on said same plane between the first sheet and the second sheet , to said electronic power module ; in that the second sheet , which is proximal to the electronic power module , has a plurality of holes, of which each hole is coaxial with a respective column ; in that each hole is crossed by a respective electrical connection and fixing means ; and in that each of the electrical connection and fixing means is in contact with a respective terminal .
A system for calibrating a temperature sensor , said system comprising • said temperature sensor comprising an elongate element having at a first end a thermos element , preferably being an electrical thermos element; • a receptacle comprising a tubular wall , such as a cylindrical wall, closed at a lower end by a bottom thereby defining an open ended cavity configured to hold a liquid and to receive at least a part of said elongate element so that the first end with the thermos element is contained within cavity ; • a controllable energy source configured to add to or remove heat from the cavity ; • an elongate fluid directing element being a tubular element, such as a cylindrical element, having outer diameter or equivalent diameter being less than an inner diameter or equivalent inner diameter of the tubular wall and having an upper end and a lower end , said fluid directing element is arranged within the cavity and being dimensioned to provide an outer flow passage between an outer surface of the fluid directing element and an inner surface of tubular wall and an inner flow passage at an inner side of the elongate fluid directing element , wherein the outer flow passage and the inner flow passage are in fluid communication at the upper end and at the lower end ; • a reference thermos element arranged to sense the temperature within the cavity ; • a controller configured to control the amount of heat added to or removed from the cavity . • said temperature sensor comprising an elongate element having at a first end a thermos element , preferably being an electrical thermos element; • a receptacle comprising a tubular wall , such as a cylindrical wall, closed at a lower end by a bottom thereby defining an open ended cavity configured to hold a liquid and to receive at least a part of said elongate element so that the first end with the thermos element is contained within cavity ; • a controllable energy source configured to add to or remove heat from the cavity ; • an elongate fluid directing element being a tubular element, such as a cylindrical element, having outer diameter or equivalent diameter being less than an inner diameter or equivalent inner diameter of the tubular wall and having an upper end and a lower end , said fluid directing element is arranged within the cavity and being dimensioned to provide an outer flow passage between an outer surface of the fluid directing element and an inner surface of tubular wall and an inner flow passage at an inner side of the elongate fluid directing element , wherein the outer flow passage and the inner flow passage are in fluid communication at the upper end and at the lower end ; • a reference thermos element arranged to sense the temperature within the cavity ; • a controller configured to control the amount of heat added to or removed from the cavity .
An artificial mammalian skin substitute product, comprising: (a) a first ("hypodermis-like") layer comprising live mammalian adipocytes (e.g., induced pre-adipocytes) in a first hydrogel carrier; (b) a second ("dermis-like") layer on or directly contacting said first layer, said second layer comprising live mammalian fibroblast cells and live mammalian follicle dermal papilla cells in combination in a second hydrogel carrier; and (c) a third ("epidermis-like") layer on or directly contacting said second layer, said third layer comprising live mammalian keratinocytes and live mammalian melanocytes in combination in a third hydrogel carrier, wherein said first, second, and/or third hydrogel carriers are cross-linked and comprise hyaluronic acid and/or gelatin, wherein said second and third layers are cross-linked with one another and said first and second layers are cross-linked with one another, and wherein said second and/or third hydrogel carriers further comprise collagen. (a) a first ("hypodermis-like") layer comprising live mammalian adipocytes (e.g., induced pre-adipocytes) in a first hydrogel carrier; (b) a second ("dermis-like") layer on or directly contacting said first layer, said second layer comprising live mammalian fibroblast cells and live mammalian follicle dermal papilla cells in combination in a second hydrogel carrier; and (c) a third ("epidermis-like") layer on or directly contacting said second layer, said third layer comprising live mammalian keratinocytes and live mammalian melanocytes in combination in a third hydrogel carrier, wherein said first, second, and/or third hydrogel carriers are cross-linked and comprise hyaluronic acid and/or gelatin, wherein said second and third layers are cross-linked with one another and said first and second layers are cross-linked with one another, and wherein said second and/or third hydrogel carriers further comprise collagen.
An optimal position for collecting sound signal of wind turbine vanes, characterized in that , the optimal position is located within the vertical projection of the windward rotation plane of an vane of a wind turbine on the ground, and the distance between the optimal position and the center point of a tower tube is R×sinα, where R is the rotation radius of the vane, and α is the included angle between a vane closest to the ground and the vertical axis of the tower tube when the sound pressure and sound pressure level intensity generated by normal operation of the wind turbine are the highest.