mhurhangee/patent-ind-claim-en huggingface dataset:
A multilayer base designed to be bonded to the skin so as to form a prosthesis for self-adhesive hair, comprising: • an acrylic film with the addition of 0.1 to 3% of silver ions having the shape of the crown of the user's cranium; • a polyurethane membrane onto which the hair is grafted attached to said acrylic film, characterized in that 0.1 to 3% by weight of micronized silver powder, 0.1 to 3% of nano-bio-ceramics and 0.1 to 3% of maslinic acid are added to the polyurethane polymer forming the membrane onto which the hair is grafted. • an acrylic film with the addition of 0.1 to 3% of silver ions having the shape of the crown of the user's cranium; • a polyurethane membrane onto which the hair is grafted attached to said acrylic film, characterized in that 0.1 to 3% by weight of micronized silver powder, 0.1 to 3% of nano-bio-ceramics and 0.1 to 3% of maslinic acid are added to the polyurethane polymer forming the membrane onto which the hair is grafted.
An air containment system configured to span an aisle defined by rows of racks , the air containment system comprising: a frame structure including two end frames provided at respective ends of the air containment system , and at least two horizontal beams , one for each side of the air containment system , releasably secured to the end frames , the frame structure being adjustable to achieve a desired height, length and width as required for a particular application of the air containment system , characterized in that each horizontal beam is releasably secured to posts of the end frame at a desired elevation along lengths of the posts , is configured to be extended and retracted to achieve a desired length, and includes an outer beam having an open channel formed therein, an inner beam received within the open channel of the outer beam , a spacer attached to the inner beam when connecting the outer beam to the inner beam , and fasteners accessible from the open channel of the outer beam to connect the outer beam to the inner beam . a frame structure including two end frames provided at respective ends of the air containment system , and at least two horizontal beams , one for each side of the air containment system , releasably secured to the end frames , the frame structure being adjustable to achieve a desired height, length and width as required for a particular application of the air containment system , characterized in that each horizontal beam is releasably secured to posts of the end frame at a desired elevation along lengths of the posts , is configured to be extended and retracted to achieve a desired length, and includes an outer beam having an open channel formed therein, an inner beam received within the open channel of the outer beam , a spacer attached to the inner beam when connecting the outer beam to the inner beam , and fasteners accessible from the open channel of the outer beam to connect the outer beam to the inner beam .
Method for determining the end-of-travel positions of a diaphragm in a diaphragm valve comprising actuator: • initiating displacement of the diaphragm into a first end-of-travel position ; • ascertaining the first end-of-travel position of the diaphragm, wherein said first end-of-travel position is ascertained by monitoring an actuating current value, wherein the first end-of-travel position is reached when a predefined current value is reached; • saving the first end-of-travel position ; • moving autonomously, preferably in the opposite direction, towards a second end-of-travel position of the diaphragm; • ascertaining the second end-of-travel position of the diaphragm, wherein said second end-of-travel position is ascertained by means of a predefined travel length (a) of the diaphragm from the first end-of-travel position ; • saving the second end-of-travel position ; • preferably detecting the actuating current value (I) at the second end-of-travel position in order to verify and ensure the reached second end-of-travel position . • initiating displacement of the diaphragm into a first end-of-travel position ; • ascertaining the first end-of-travel position of the diaphragm, wherein said first end-of-travel position is ascertained by monitoring an actuating current value, wherein the first end-of-travel position is reached when a predefined current value is reached; • saving the first end-of-travel position ; • moving autonomously, preferably in the opposite direction, towards a second end-of-travel position of the diaphragm; • ascertaining the second end-of-travel position of the diaphragm, wherein said second end-of-travel position is ascertained by means of a predefined travel length (a) of the diaphragm from the first end-of-travel position ; • saving the second end-of-travel position ; • preferably detecting the actuating current value (I) at the second end-of-travel position in order to verify and ensure the reached second end-of-travel position .
Cushioned coupling hinge , suitable to couple in a rotatable manner to a mobile component, namely a seat-ring or lid of a toilet seat, and a fixed component, i.e. a toilet , comprising: - a cushioning mechanism suitable to cushion the falling movement of the mobile component during rotation about an axis of rotation (X); - a mobile portion , suitable to be integrally constrained in rotation to the mobile component; - a fixed portion , suitable to be integrally constrained to the fixed component; characterized in that both the maintenance in position of the hinge along the axis of rotation (X) and the activation of the cushioning mechanism is obtained by means of an engagement element inserted at right angles to the axis of rotation (X) simultaneously through the mobile component to be cushioned and the mobile portion . - a cushioning mechanism suitable to cushion the falling movement of the mobile component during rotation about an axis of rotation (X); - a mobile portion , suitable to be integrally constrained in rotation to the mobile component; - a fixed portion , suitable to be integrally constrained to the fixed component; characterized in that both the maintenance in position of the hinge along the axis of rotation (X) and the activation of the cushioning mechanism is obtained by means of an engagement element inserted at right angles to the axis of rotation (X) simultaneously through the mobile component to be cushioned and the mobile portion .
A system comprising a heat dissipation structure assembly and a heat source assembled on a circuit carrier plate , wherein the heat dissipation assembly comprise: an elastic limiting member adapted to be disposed on the circuit carrier plate and to be at a periphery of the heat source , wherein the elastic limiting member has a first height; a paste-type heat dissipation wall adapted to be disposed on the circuit carrier plate , to be between the heat source and the elastic limiting member , and to be in contact with the periphery of the heat source , wherein the paste-type heat dissipation wall has a second height, the first height is greater than the second height, and the second height is greater than a height of the heat source; a fitting member in contact with a top of the paste-type heat dissipation wall and engaged with a side portion of the elastic limiting member ; a phase-change metal adapted to be filled into a region among the fitting member , the paste-type heat dissipation wall , and the heat source , wherein when a temperature of the phase-change metal exceeds a critical temperature, a state of the phase-change metal is changed to a liquid state; and an assembling plate connected to the fitting member , wherein a portion of the assembling plate is in contact with the top of the paste-type heat dissipation wall . an elastic limiting member adapted to be disposed on the circuit carrier plate and to be at a periphery of the heat source , wherein the elastic limiting member has a first height; a paste-type heat dissipation wall adapted to be disposed on the circuit carrier plate , to be between the heat source and the elastic limiting member , and to be in contact with the periphery of the heat source , wherein the paste-type heat dissipation wall has a second height, the first height is greater than the second height, and the second height is greater than a height of the heat source; a fitting member in contact with a top of the paste-type heat dissipation wall and engaged with a side portion of the elastic limiting member ; a phase-change metal adapted to be filled into a region among the fitting member , the paste-type heat dissipation wall , and the heat source , wherein when a temperature of the phase-change metal exceeds a critical temperature, a state of the phase-change metal is changed to a liquid state; and an assembling plate connected to the fitting member , wherein a portion of the assembling plate is in contact with the top of the paste-type heat dissipation wall .
A method comprising: assigning a first protocol stack of a device to network communications; assigning a second protocol stack of the device to sidelink communications; generating , at the second protocol stack, first information based on arrival of data in a sidelink logical channel; transmitting the first information from the second protocol stack to a network device via the first protocol stack; receiving, at the first protocol stack, second information from the network device; and transmitting the second information from the first protocol stack to the second protocol stack, wherein the second information comprises a sidelink grant indicated by a radio network temporary identifier, downlink control information, or a combination thereof; and wherein the first protocol stack conveys the sidelink grant directly to a medium access control layer of the second protocol stack. assigning a first protocol stack of a device to network communications; assigning a second protocol stack of the device to sidelink communications; generating , at the second protocol stack, first information based on arrival of data in a sidelink logical channel; transmitting the first information from the second protocol stack to a network device via the first protocol stack; receiving, at the first protocol stack, second information from the network device; and transmitting the second information from the first protocol stack to the second protocol stack, wherein the second information comprises a sidelink grant indicated by a radio network temporary identifier, downlink control information, or a combination thereof; and wherein the first protocol stack conveys the sidelink grant directly to a medium access control layer of the second protocol stack.
A distributed load bearing , comprising: an outer flex ring configured to be positioned radially outwards of a shaft ; a load distribution spring that is preloaded and positioned radially outwards of the outer flex ring , a radially inner surface of the load distribution spring contacting the outer flex ring , the radially inner surface of the load distribution spring being an arc defined by a first radius when the load distribution spring is in a lower load distribution mode, and the radially inner surface of the load distribution spring being an arc defined by a second radius when the load distribution spring is in a higher load distribution mode; and a retainer positioned radially outwards of the load distribution spring , the retainer angularly and radially positioning the load distribution spring , wherein the load distribution spring further comprises a load distribution hump positioned so as to apply a radially outward force to the retainer ; and a pair of wings extending circumferentially away from opposite sides of the load distribution hump so as to apply a radially inward force to the outer flex ring , and the pair of wings overlapping a portion of an outer surface of the outer flex ring . an outer flex ring configured to be positioned radially outwards of a shaft ; a load distribution spring that is preloaded and positioned radially outwards of the outer flex ring , a radially inner surface of the load distribution spring contacting the outer flex ring , the radially inner surface of the load distribution spring being an arc defined by a first radius when the load distribution spring is in a lower load distribution mode, and the radially inner surface of the load distribution spring being an arc defined by a second radius when the load distribution spring is in a higher load distribution mode; and a retainer positioned radially outwards of the load distribution spring , the retainer angularly and radially positioning the load distribution spring , wherein the load distribution spring further comprises a load distribution hump positioned so as to apply a radially outward force to the retainer ; and a pair of wings extending circumferentially away from opposite sides of the load distribution hump so as to apply a radially inward force to the outer flex ring , and the pair of wings overlapping a portion of an outer surface of the outer flex ring .
Method for the field-oriented control of a permanently excited synchronous machine with reluctance torque, at least comprising the following steps: a) respective determination of a flux-generating current component to be injected i d , MTPC and a torque-generating current component i qMTPC , as a function of a required torque T ref ; b) respective determination of a voltage component in the flux direction Udref and of a voltage component perpendicular to the flux direction u qref , as a function of the current components i d,MTPC and i q,MTPC ; c) Constitution of a differential amount from an amount of a vectorial sum u s of the voltage components Udref and Uqref and a maximum voltage u max , and processing of the differential amount in a PI-voltage controller , wherein a first differential value Δi d is obtained as an output variable; d) Addition of the flux-generating current component i d , MTPC and the first differential value Δi d , and determination of a voltage component u d for injection into the synchronous machine ; the method comprising the further step, that, following step b), in a further step c1), an achieved torque is determined by reference to the voltage components u d and u q to be injected and the current components i d and i q ; characterized in that , in a further step d1), a differential amount is constituted from the achieved torque and the required torque T ref , and processed in a PI-torque controller ; wherein a second differential value Δi q is obtained as an output variable; wherein, in a step e1), the current component i q , MTPC and the differential value Δi q are added, and a voltage component u q is determined for injection into the synchronous machine , wherein the current component i d to be injected proceeds from the application of the voltage component u d and the current component i q to be injected proceeds from the application of the voltage component u q to the synchronous machine. a) respective determination of a flux-generating current component to be injected i d , MTPC and a torque-generating current component i qMTPC , as a function of a required torque T ref ; b) respective determination of a voltage component in the flux direction Udref and of a voltage component perpendicular to the flux direction u qref , as a function of the current components i d,MTPC and i q,MTPC ; c) Constitution of a differential amount from an amount of a vectorial sum u s of the voltage components Udref and Uqref and a maximum voltage u max , and processing of the differential amount in a PI-voltage controller , wherein a first differential value Δi d is obtained as an output variable; d) Addition of the flux-generating current component i d , MTPC and the first differential value Δi d , and determination of a voltage component u d for injection into the synchronous machine ;
A method for manufacturing a cosmetic product having a UV-blocking effect, the method comprising the steps of: (a) preparing a cosmetic composition; (b) preparing a hollow pearlescent pigment; and (c) mixing 1 to 15 parts by weight of the hollow pearlescent pigment with 100 parts by weight of the cosmetic composition, wherein step (b) comprises the steps of: (b-1) coating a metal oxide on a plate-like flake matrix to form a metal oxide coating layer; (b-2) suspending in deionized water the plate-like flake matrix having the metal oxide coating layer coated thereon, and then subjecting the suspension to acid treatment using an acidic solution, followed by refluxing, washing and filtration; (b-3) suspending in deionized water a material resulting from step (b-2), and then subjecting the suspension to alkali treatment using a basic solution, followed by refluxing and filtration; and (b-4) drying a material resulting from step (b-3), thereby obtaining a metal oxide coating layer having a hollow structure, from which the plate-like flake matrix was removed, wherein the plate-like flake matrix has an average particle diameter of 10 to 150 μm, the metal oxide has an average particle diameter of 10 nm to 100 nm, and the metal oxide coating layer has a thickness of 0.1 to 3 μm, wherein the acid treatment in step (b-2) comprises applying ultrasonic waves to the suspension at a frequency of 15 to 40 kHz and a power of 70 to 110 W while agitating the suspension at a speed of 300 to 500 rpm, wherein the acidic solution comprises a solution of one or more selected from sulfuric acid, phosphoric acid and nitric acid and the basic solution comprises a solution of one or more selected from sodium hydroxide and potassium hydroxide, wherein the acidic solution has a concentration of 40-60 wt% and the basic solution has a concentration of 50-55 wt%, wherein the refluxing in step (b-2) is performed at a temperature of 80 to 120°C for 4 to 6 hours, wherein the refluxing in step (b-3) is performed at a temperature of 50 to 70°C for 1 to 3 hours. (a) preparing a cosmetic composition; (b) preparing a hollow pearlescent pigment; and (c) mixing 1 to 15 parts by weight of the hollow pearlescent pigment with 100 parts by weight of the cosmetic composition, (b-1) coating a metal oxide on a plate-like flake matrix to form a metal oxide coating layer; (b-2) suspending in deionized water the plate-like flake matrix having the metal oxide coating layer coated thereon, and then subjecting the suspension to acid treatment using an acidic solution, followed by refluxing, washing and filtration; (b-3) suspending in deionized water a material resulting from step (b-2), and then subjecting the suspension to alkali treatment using a basic solution, followed by refluxing and filtration; and (b-4) drying a material resulting from step (b-3), thereby obtaining a metal oxide coating layer having a hollow structure, from which the plate-like flake matrix was removed,
A conjugated polyelectrolyte comprising a subunit having the following structure: wherein at each occurrence, R 1 is independently chosen from: at each occurrence, X is -O-, -NH-, or -S-, at each occurrence, R 3 is a (C 1 -C 20 )hydrocarbylene interrupted by 0, 1, 2, 3, 4, 5, 6, 7, 8, or 9 heteroatoms, at each occurrence, R 4 is 3-R 5 -substituted imidazolium, at each occurrence, R 5 is independently chosen from a substituted or unsubstituted (C 1 -C 10 )hydrocarbyl, at each occurrence, Y is independently chosen from a bond and -C=C-, at each occurrence, R 2 is independently chosen from a bond, phenylene, thiophenylene, azulenylene, heptalenylene, biphenylene, indacenylene, fluorenylene, phenanthrenylene, triphenylenylene, pyrenylene, naphthacenylene, chrysenylene, biphenylenylene, anthracenylene, and naphthylene, and at each occurrence, Z is independently chosen from a bond and -C=C-. at each occurrence, X is -O-, -NH-, or -S-, at each occurrence, R 3 is a (C 1 -C 20 )hydrocarbylene interrupted by 0, 1, 2, 3, 4, 5, 6, 7, 8, or 9 heteroatoms, at each occurrence, R 4 is 3-R 5 -substituted imidazolium, at each occurrence, R 5 is independently chosen from a substituted or unsubstituted (C 1 -C 10 )hydrocarbyl, at each occurrence, Y is independently chosen from a bond and -C=C-, at each occurrence, R 2 is independently chosen from a bond, phenylene, thiophenylene, azulenylene, heptalenylene, biphenylene, indacenylene, fluorenylene, phenanthrenylene, triphenylenylene, pyrenylene, naphthacenylene, chrysenylene, biphenylenylene, anthracenylene, and naphthylene, and at each occurrence, Z is independently chosen from a bond and -C=C-.
A device for delivery of a graft for attachment to tissue, comprising: a plurality of flexible arms and a plurality of sleeves , wherein each sleeve of the plurality of sleeves surrounds a portion of one of the flexible arms of the plurality of flexible arms; an actuator , wherein movement of the actuator moves the plurality of sleeves and each sleeve of the plurality of sleeves moves the flexible arm it surrounds, and movement of the actuator forms the plurality of arms into a radial array; wherein each of the flexible arms is slidable relative to the sleeve that surrounds it so that a length of a portion of each of the flexible arms that extends distally from the sleeve that surrounds it is adjustable; wherein the plurality of sleeves are in communication with the actuator , and move in response to movement of the actuator. a plurality of flexible arms and a plurality of sleeves , wherein each sleeve of the plurality of sleeves surrounds a portion of one of the flexible arms of the plurality of flexible arms; an actuator , wherein movement of the actuator moves the plurality of sleeves and each sleeve of the plurality of sleeves moves the flexible arm it surrounds, and movement of the actuator forms the plurality of arms into a radial array; wherein each of the flexible arms is slidable relative to the sleeve that surrounds it so that a length of a portion of each of the flexible arms that extends distally from the sleeve that surrounds it is adjustable; wherein the plurality of sleeves are in communication with the actuator , and move in response to movement of the actuator.