mhurhangee/patent-ind-claim-en huggingface dataset:
A photovoltaic module comprising: a base plate , a cell string and a cover plate stacked in order; a first packaging layer , located between the base plate and the cover plate and surrounding the cell string , the first packaging layer , the base plate and the cover plate defining a first sealed space; and a moisture treatment layer, located in the first sealed space, wherein the moisture treatment layer comprises at least one of a functional layer and a moisture detection layer ; the functional layer being adaptive to absorb moisture and be converted into a solidified layer, and the solidified layer having a degree of crosslinking greater than a degree of cross linking of the functional layer ; and the moisture detection layer being adaptive to detect and determine whether there is moisture in the first sealed space through response information of the moisture detection layer ; wherein the cell string has a first surface and a second surface opposite each other, and a side surface connecting the first surface and the second surface , the first surface is away from the base plate , and the second surface faces the base plate ; and the first surface comprises a central region and a peripheral region surrounding the central region , and the moisture treatment layer is located on the side surface and on the first surface of the peripheral region ; the photovoltaic module further comprises: a separation layer located on the side surface and the first surface of the peripheral region , the separation layer located between the moisture treatment layer and the cell string . a base plate , a cell string and a cover plate stacked in order; a first packaging layer , located between the base plate and the cover plate and surrounding the cell string , the first packaging layer , the base plate and the cover plate defining a first sealed space; and a moisture treatment layer, located in the first sealed space, wherein the moisture treatment layer comprises at least one of a functional layer and a moisture detection layer ; the functional layer being adaptive to absorb moisture and be converted into a solidified layer, and the solidified layer having a degree of crosslinking greater than a degree of cross linking of the functional layer ; and the moisture detection layer being adaptive to detect and determine whether there is moisture in the first sealed space through response information of the moisture detection layer ; wherein the cell string has a first surface and a second surface opposite each other, and a side surface connecting the first surface and the second surface , the first surface is away from the base plate , and the second surface faces the base plate ; and the first surface comprises a central region and a peripheral region surrounding the central region , and the moisture treatment layer is located on the side surface and on the first surface of the peripheral region ; the photovoltaic module further comprises: a separation layer located on the side surface and the first surface of the peripheral region , the separation layer located between the moisture treatment layer and the cell string .
Method for determining the water content of concrete and screed , comprising the following method steps: - introducing at least two first electrical conductors into a first depth of the concrete or the screed , the two first electrical conductors being spaced apart from one another in the plane of the screed and the first depth defining a first horizontal layer in the concrete or screed ; - introducing at least two second electrical conductors into a second depth of the concrete or the screed , the two second electrical conductors being spaced apart from one another in the plane of the screed, and the second depth defining a second horizontal layer in the concrete or screed , and the first depth differing from the second depth; - measuring the electrical resistance between the first electrical conductors and between the second electrical conductors, - wherein the first and second electrical conductors are respectively applied to at least two bars . - introducing at least two first electrical conductors into a first depth of the concrete or the screed , the two first electrical conductors being spaced apart from one another in the plane of the screed and the first depth defining a first horizontal layer in the concrete or screed ; - introducing at least two second electrical conductors into a second depth of the concrete or the screed , the two second electrical conductors being spaced apart from one another in the plane of the screed, and the second depth defining a second horizontal layer in the concrete or screed , and the first depth differing from the second depth; - measuring the electrical resistance between the first electrical conductors and between the second electrical conductors, - wherein the first and second electrical conductors are respectively applied to at least two bars .
A capture device for use in a catheter system for recanalizing an occluded vessel, the device comprising: a tubular member comprising a catheter shaft having a guidewire lumen and a capture lumen located therein, the tubular member being configured to be advanced in a body channel and extending between a proximal end and a distal end, the tubular member having tension wires anchored at a distal tip of the guidewire lumen; wherein the distal end of the catheter shaft and a stop, which is attached at the distal end of the catheter shaft but proximal to the anchoring location , form a basket , wherein the basket is configured to be movable, between an expanded state and a collapsed state, wherein the basket is configured to receive a guidewire when in the expanded state and capture the guidewire by moving the basket from the expanded state to the collapsed state to funnel the guidewire into the capture lumen. a tubular member comprising a catheter shaft having a guidewire lumen and a capture lumen located therein, the tubular member being configured to be advanced in a body channel and extending between a proximal end and a distal end, the tubular member having tension wires anchored at a distal tip of the guidewire lumen; wherein the distal end of the catheter shaft and a stop, which is attached at the distal end of the catheter shaft but proximal to the anchoring location , form a basket , wherein the basket is configured to be movable, between an expanded state and a collapsed state, wherein the basket is configured to receive a guidewire when in the expanded state and capture the guidewire by moving the basket from the expanded state to the collapsed state to funnel the guidewire into the capture lumen.
Method of producing for roof insulation material comprising that • A bottom layer which is made of woven felt, whose top surface is coated with foil or thermoplastic polyurethane , • A top layer which is made of woven felt, which is located on the bottom layer and is connected to the bottom layer , • A polyurethane foam which is located between the bottom layer and the top layer except the side parts and the sections which correspond to the profiles forming the roof metal structure and the sections that are in contact with these profiles, when located on the vehicle roof and the roof structure is closed, wherein comprising the following process steps; • Injecting polyurethane foam to the top surface which is foil or thermoplastic polyurethane coated, of the bottom layer which is made of woven felt, • Locating the form mold on the bottom layer when the side parts of the roof insulation material and the roof insulation material are located on the roof of the vehicle and when the roof structure is opened or closed, except for the sections which correspond to the profiles forming the roof metal structure, and the sections that are in contact with these profiles, in order to enable the polyurethane foam to be transmitted to the desired sections on the bottom layer , characterized in that • After the form mold is removed, locating the top layer on the bottom layer where polyurethane foam is injected, and connecting the bottom layer and the top layer via heat, performing cutting in accordance with the internal form of the roof. • A bottom layer which is made of woven felt, whose top surface is coated with foil or thermoplastic polyurethane , • A top layer which is made of woven felt, which is located on the bottom layer and is connected to the bottom layer , • A polyurethane foam which is located between the bottom layer and the top layer except the side parts and the sections which correspond to the profiles forming the roof metal structure and the sections that are in contact with these profiles, when located on the vehicle roof and the roof structure is closed, • Injecting polyurethane foam to the top surface which is foil or thermoplastic polyurethane coated, of the bottom layer which is made of woven felt, • Locating the form mold on the bottom layer when the side parts of the roof insulation material and the roof insulation material are located on the roof of the vehicle and when the roof structure is opened or closed, except for the sections which correspond to the profiles forming the roof metal structure, and the sections that are in contact with these profiles, in order to enable the polyurethane foam to be transmitted to the desired sections on the bottom layer , characterized in that • After the form mold is removed, locating the top layer on the bottom layer where polyurethane foam is injected, and connecting the bottom layer and the top layer via heat, performing cutting in accordance with the internal form of the roof.
Method for displaying an environment of a vehicle , the vehicle comprising a lateral rear-view camera (C2) comprising a field of view covering a lateral rear environment with respect to a driver of the vehicle , the vehicle further comprising a side camera (C5) comprising a transverse field of view with respect to the vehicle , a computer and a display , the method comprising: - a rear display step , in which the computer displays a non-distorted view from the lateral rear-view camera (C2) in a first zone of the display with a first magnification factor, and a distorted view from the lateral rear-view camera (C2) in a second zone of the display with a second magnification factor, different from the first magnification factor, characterized in that the method comprises the following steps: - a detection step in which the computer detects a display change condition, - an extended display step , in which the computer displays a view from the side camera (C5) in the second zone of the display . - a rear display step , in which the computer displays a non-distorted view from the lateral rear-view camera (C2) in a first zone of the display with a first magnification factor, and a distorted view from the lateral rear-view camera (C2) in a second zone of the display with a second magnification factor, different from the first magnification factor, characterized in that the method comprises the following steps: - a detection step in which the computer detects a display change condition, - an extended display step , in which the computer displays a view from the side camera (C5) in the second zone of the display .
A process for permanently waving keratin fibers, especially human hair, wherein, a- optionally, the fibers are washed and/or shampooed, and towel dried, b- an aqueous composition comprising one or more reducing agent at a total concentration in the range of 0.5 to 20%, by weight, calculated to the total of the aqueous composition, is applied and left on the fibers for a period of 1 to 60 min, c- the fibers are rinsed off, d- the fibers are put on curlers, e- a non-reducing and non-oxidizing aqueous composition comprising one or more alkalizing agent and having a pH in the range of 8.5 to 12 is applied onto fibers and left on the fibers for a period 1 to 60 min, f- optionally the fibers are rinsed off, g- an aqueous composition comprising one or more oxidizing agents, preferably hydrogen peroxide or bromate salt, is applied onto fibers and left on the fibers for a period 1 to 30 min, h- the fibers are optionally rinsed off, and i- the fibers are dried, wherein the curlers are taken off from fibers before or during processing in step g or after the step g prior to rinsing off and/or drying a- optionally, the fibers are washed and/or shampooed, and towel dried, b- an aqueous composition comprising one or more reducing agent at a total concentration in the range of 0.5 to 20%, by weight, calculated to the total of the aqueous composition, is applied and left on the fibers for a period of 1 to 60 min, c- the fibers are rinsed off, d- the fibers are put on curlers, e- a non-reducing and non-oxidizing aqueous composition comprising one or more alkalizing agent and having a pH in the range of 8.5 to 12 is applied onto fibers and left on the fibers for a period 1 to 60 min, f- optionally the fibers are rinsed off, g- an aqueous composition comprising one or more oxidizing agents, preferably hydrogen peroxide or bromate salt, is applied onto fibers and left on the fibers for a period 1 to 30 min, h- the fibers are optionally rinsed off, and i- the fibers are dried,
An in vitro method for producing a therapeutic composition comprising: harvesting a population of exosomes from cardiospheres or cardiosphere-derived cells (CDCs).
Mixing device for the aftertreatment of exhaust gases in an exhaust system of an internal combustion engine, said mixing device comprising a housing which has an inlet cross section and comprising an inner pipe which is arranged within the housing , extends substantially parallel to a main injection direction of a dosing device for supplying a liquid and/or a liquid-gas mixture and has a premix region formed in the interior of the inner pipe , wherein the housing has a spiral-shaped housing portion and the dosing device is arranged on an end side of the housing , wherein a main exhaust-gas stream is conducted between the housing and the outer lateral surface of the inner pipe and can be supplied to a main mixing region , and a partial exhaust-gas stream can be supplied through an inner pipe passage into the premix region which is situated closer to the dosing device, wherein the partial exhaust-gas stream issues into the main mixing region via the premix region , and the main exhaust-gas stream comprises a greater volume fraction of exhaust gas than the partial exhaust-gas stream .
Apparatus for producing an object by means of additive manufacturing, comprising: - a process chamber for receiving on a build surface of a build plate a bath of powdered material which can be solidified; - a support for positioning the build plate in relation to a surface level (L) of the bath of material; - a solidifying device for solidifying a selective part of the material ; and - a build plate preparation means for preparation of the build surface of the build plate such that the object can be built on the build surface of the build plate ; - displacement means provided for displacing the build plate between a first position wherein the build surface of the build plate is received in the process chamber for receiving on the build surface of the build plate the bath of powdered material which can be solidified, and a second position wherein the build surface of the build plate is positioned for preparation of the build surface of the build plate , wherein the displacement means comprise a substantial horizontal axis for rotation of the build plate about said substantial horizontal axis between the first position and second position. - a process chamber for receiving on a build surface of a build plate a bath of powdered material which can be solidified; - a support for positioning the build plate in relation to a surface level (L) of the bath of material; - a solidifying device for solidifying a selective part of the material ; and - a build plate preparation means for preparation of the build surface of the build plate such that the object can be built on the build surface of the build plate ; - displacement means provided for displacing the build plate between a first position wherein the build surface of the build plate is received in the process chamber for receiving on the build surface of the build plate the bath of powdered material which can be solidified, and a second position wherein the build surface of the build plate is positioned for preparation of the build surface of the build plate , wherein the displacement means comprise a substantial horizontal axis for rotation of the build plate about said substantial horizontal axis between the first position and second position.
A vehicle comprising: - a chassis which has a longitudinal axis (A2) and which is supported by wheels ; - a cab mounted on the chassis , the cab including two side walls ; - a wind deflecting assembly comprising at least two side deflector panels , each side deflector panel having a front edge linked to a rear portion of the corresponding cab side wall and a rear edge , and extending vertically over at least part of the height of the corresponding cab side wall rear portion; characterized in that it further comprises at least one lighting assembly which is mounted on one of the side deflector panels and which includes at least a working lamp configured to illuminate an area located rearward of the cab . - a chassis which has a longitudinal axis (A2) and which is supported by wheels ; - a cab mounted on the chassis , the cab including two side walls ; - a wind deflecting assembly comprising at least two side deflector panels , each side deflector panel having a front edge linked to a rear portion of the corresponding cab side wall and a rear edge , and extending vertically over at least part of the height of the corresponding cab side wall rear portion;
A spool for a turbine section of a gas turbine engine, the spool comprising: a first rotor stage having a first set of blades extending from a first blade platform and connected to a first rotor disk at a first blade attachment ; a second rotor stage having a second set of blades extending from a second blade platform and connected to a second rotor disk at a second blade attachment ; an arm connecting the first rotor stage to the second rotor stage; and a first cover plate having an upstream edge adjacent a downstream side of the first blade platform and a downstream edge adjacent an upstream side of the second blade platform, the first cover plate extending from a downstream side of the first blade attachment to an upstream side of the second blade attachment, wherein an inner surface of the first cover plate is spaced from the first rotor disk, the arm, and the second rotor disk such that the first cover plate conforms to the first rotor disk, the arm, and the second rotor disk so as to define a flow path from the first blade attachment to the second blade attachment. a first rotor stage having a first set of blades extending from a first blade platform and connected to a first rotor disk at a first blade attachment ; a second rotor stage having a second set of blades extending from a second blade platform and connected to a second rotor disk at a second blade attachment ; an arm connecting the first rotor stage to the second rotor stage; and a first cover plate having an upstream edge adjacent a downstream side of the first blade platform and a downstream edge adjacent an upstream side of the second blade platform, the first cover plate extending from a downstream side of the first blade attachment to an upstream side of the second blade attachment, wherein an inner surface of the first cover plate is spaced from the first rotor disk, the arm, and the second rotor disk such that the first cover plate conforms to the first rotor disk, the arm, and the second rotor disk so as to define a flow path from the first blade attachment to the second blade attachment.
A method for manufacturing a composite bladed disk or rotor for a gas turbine engine , the method comprising the steps of: forming a moulded component from at least one composite material, wherein the moulded component is axisymmetric about a component axis ; segmenting the moulded component into a plurality of segments disposed adjacent to each other, wherein each pair of adjacent segments from the plurality of segments comprises a pair of surfaces that is formed during segmentation of the moulded component ; providing, via computerised numerical control (CNC) machining, complementary finger joint profiles on the pair of surfaces of the each pair of adjacent segments ; providing a plurality of slots on at least one of the pair of surfaces of the each pair of adjacent segments , wherein each of the plurality of slots at least partially extends along the component axis and perpendicularly to the component axis ; positioning a plurality of blades partially within the plurality of slots ; mating the complementary finger joint profiles provided on the pair of surfaces of the each pair of adjacent segments ; and joining the each pair of adjacent segments to each other, such that the plurality of blades is retained within the plurality of slots . forming a moulded component from at least one composite material, wherein the moulded component is axisymmetric about a component axis ; segmenting the moulded component into a plurality of segments disposed adjacent to each other, wherein each pair of adjacent segments from the plurality of segments comprises a pair of surfaces that is formed during segmentation of the moulded component ; providing, via computerised numerical control (CNC) machining, complementary finger joint profiles on the pair of surfaces of the each pair of adjacent segments ; providing a plurality of slots on at least one of the pair of surfaces of the each pair of adjacent segments , wherein each of the plurality of slots at least partially extends along the component axis and perpendicularly to the component axis ; positioning a plurality of blades partially within the plurality of slots ; mating the complementary finger joint profiles provided on the pair of surfaces of the each pair of adjacent segments ; and joining the each pair of adjacent segments to each other, such that the plurality of blades is retained within the plurality of slots .
Carrying apparatus for a handheld work appliance, wherein the carrying apparatus comprises an overall strap which forms two shoulder straps , wherein the overall strap has a first end and a second end , wherein the first end and the second end are at least indirectly fixed to a main body of the carrying apparatus , wherein the overall strap supports the main body between the first and and the second end in a support region , wherein the two shoulder straps are, in the support region , at least indirectly connected to one another independently of the main body , wherein, at a fastening point in the support region , the overall strap is fixed, so as to be secured against displacement in its longitudinal direction , to the body , characterized in that , at the fastening point , the overall strap is fixed, so as to be secured against displacement in its longitudinal direction , to the main body by means of a projection which protrudes relative to a main plate of the main body , and in that the projection is of rigid form such that it permanently maintains its orientation relative to the main plate .