mhurhangee/patent-ind-claim-en huggingface dataset:
Organic photoactive component, in particular an organic solar cell, having organic thin layers, and having one contact layer in the form of a base contact and one in the form of a top contact (Nb) and at least two layer structures between the contact layers, of which each structure includes at least one p-doped organic transport layer (2b; 4b; 6b; 8b) or one n-doped organic transport layer and one photoactive i layer, arranged in a pi, ni, nip or pin diode structure composed in each case of the photoactive i layer (3b, 7b, etc.) and a p layer and/or an n layer, wherein a) the p layer or the n layer consists of at least one p-doped or n-doped transport layer, and the doping leads to an increase in the density of free holes in the p layer or to an increase in the density of free electrons in the n layer, each at thermal equilibrium, b) the i layer is designed as a photoactive layer, c) the layer structures are in a stacked arrangement one on top of another between the base contact and the top contact, d) the p layer or the n layer (2b; 4b; 6b; 8b; etc.) in every structure has a greater optical bandgap than the photoactive i layer (3b; 7b; etc.) in the respective structure, e) the n layer or p layer adjoining the transition between two structures has doping and one or more doped functional layers of an organic or inorganic semiconductor material, or a layer of a salt or a transparent conductive oxide, or two or more of these layers have been introduced between the n layer and the p layer at the transition between two structures, and f) the structures are partly transparent at least in part of the solar spectrum from 350 nm to 2000 nm. a) the p layer or the n layer consists of at least one p-doped or n-doped transport layer, and the doping leads to an increase in the density of free holes in the p layer or to an increase in the density of free electrons in the n layer, each at thermal equilibrium, b) the i layer is designed as a photoactive layer, c) the layer structures are in a stacked arrangement one on top of another between the base contact and the top contact, d) the p layer or the n layer (2b; 4b; 6b; 8b; etc.) in every structure has a greater optical bandgap than the photoactive i layer (3b; 7b; etc.) in the respective structure, e) the n layer or p layer adjoining the transition between two structures has doping and one or more doped functional layers of an organic or inorganic semiconductor material, or a layer of a salt or a transparent conductive oxide, or two or more of these layers have been introduced between the n layer and the p layer at the transition between two structures, and f) the structures are partly transparent at least in part of the solar spectrum from 350 nm to 2000 nm.
A fiber reinforced thermoplastic resin molded article, comprising: 5 to 45 parts by weight of carbon fibers (A); 1 to 45 parts by weight of organic fibers (B); and 10 to 94 parts by weight of a thermoplastic resin (C), based on 100 parts by weight of the total amount of the carbon fibers (A), the organic fibers (B), and the thermoplastic resin (C), further comprising 1 to 25 parts by weight of a compound (D) having melt viscosity, measured as described in the description, at 200°C that is lower than that of the thermoplastic resin (C), based on 100 parts by weight of the total amount of the carbon fibers (A), the organic fibers (B), and the thermoplastic resin (C), wherein the carbon fibers (A) in the fiber reinforced thermoplastic resin molded article have an average fiber length (L A ), measured as described in the description, of 0.3 to 3 mm, and wherein the organic fibers (B) in the fiber reinforced thermoplastic resin molded article have an average fiber length (L B ), measured as described in the description, of 0.5 to 5 mm, and a number average fiber diameter (d B ), measured as described in the description, of 35 to 300 μm. wherein the carbon fibers (A) in the fiber reinforced thermoplastic resin molded article have an average fiber length (L A ), measured as described in the description, of 0.3 to 3 mm, and wherein the organic fibers (B) in the fiber reinforced thermoplastic resin molded article have an average fiber length (L B ), measured as described in the description, of 0.5 to 5 mm, and a number average fiber diameter (d B ), measured as described in the description, of 35 to 300 μm.
Cleaning cloth for a cleaning device , in particular for a motor-driven mop appliance, preferably for attaching to an oscillatingly driven oscillating plate of the cleaning device , the cleaning cloth having an active face for mechanically acting on a surface to be cleaned, the active face of the cleaning cloth having a plurality of active regions that lie next to one another in an active plane and have a large number of fibres, at least two active regions having different mechanical properties from one another, and the active regions being selected from the following group: active region having super microfibres that have a fineness of 0.3 dtex or less; active region having microfibres that have a fineness of greater than 0.3 dtex and less than 1.0 dtex; and active region without fibres, characterised in that the active face comprises a recurring arrangement of region combinations consisting of a plurality of active regions that lie next to one another in the active plane , region edges of the active regions being arranged in parallel with edges of the cleaning cloth , and the region combinations being arranged next to one another and one behind the other on the active face of the cleaning cloth .
A method for operating a motor vehicle , preferably a utility vehicle, comprising: detecting data relating to an operation and/or an environment of the motor vehicle ; and evaluating the detected data in relation to a traction of the motor vehicle ; the method is characterized by the following steps: outputting a setting suggestion for at least one vehicle component of the motor vehicle for increasing the traction of the motor vehicle based on the evaluating, wherein the setting suggestion is output by means of a human-machine interface ; and setting the at least one vehicle component according to the setting suggestion when an operator of the motor vehicle confirms the setting suggestion by means of the human-machine interface . detecting data relating to an operation and/or an environment of the motor vehicle ; and evaluating the detected data in relation to a traction of the motor vehicle ; outputting a setting suggestion for at least one vehicle component of the motor vehicle for increasing the traction of the motor vehicle based on the evaluating, wherein the setting suggestion is output by means of a human-machine interface ; and setting the at least one vehicle component according to the setting suggestion when an operator of the motor vehicle confirms the setting suggestion by means of the human-machine interface .
A water treatment facility comprising: - means for conveying the water to be treated 1, - optionally a coagulation zone and/or a flocculation zone, into which said means for conveying the water to be treated open, - a dissolved air flotation reactor 4 comprising an inlet connected to said conveying means, and/or optionally an inlet connected to the outlet of said coagulation and/or flocculation zone, and - a gravity filter 5, said flotation reactor being at least partially superposed on said gravity filter and communicating with it such that the water originating from said flotation reactor 4 can flow by gravity into said gravity filter, - optionally at least one washing means, in particular a backwashing means, of said gravity filter, and - optionally at least one membrane filter for filtering the water originating from the gravity filter, said gravity filter having a single-layer filtering medium bed 1 comprised in a lower wall of said flotation reactor and distributed over a height of less than 1 m characterized in that said filtering medium is composed of a layer of a granular material having a particle size greater than or equal to 1.5 mm and less than or equal to 5 mm. - means for conveying the water to be treated 1, - optionally a coagulation zone and/or a flocculation zone, into which said means for conveying the water to be treated open, - a dissolved air flotation reactor 4 comprising an inlet connected to said conveying means, and/or optionally an inlet connected to the outlet of said coagulation and/or flocculation zone, and - a gravity filter 5, said flotation reactor being at least partially superposed on said gravity filter and communicating with it such that the water originating from said flotation reactor 4 can flow by gravity into said gravity filter, - optionally at least one washing means, in particular a backwashing means, of said gravity filter, and - optionally at least one membrane filter for filtering the water originating from the gravity filter,
A storage apparatus for a pharmaceutical agent, said storage apparatus comprising: a storage container formed from a polyolefin; and a pharmaceutical agent in said storage container and containing a phenolic stabilizing agent to stabilize said pharmaceutical agent; characterized in that said polyolefin includes a fatty acid amide dispersed therein and said fatty acid amide is included in said polyolefin to reduce a rate of migration of said phenolic stabilizing agent from said pharmaceutical agent into said polyolefin. a storage container formed from a polyolefin; and a pharmaceutical agent in said storage container and containing a phenolic stabilizing agent to stabilize said pharmaceutical agent; characterized in that said polyolefin includes a fatty acid amide dispersed therein and said fatty acid amide is included in said polyolefin to reduce a rate of migration of said phenolic stabilizing agent from said pharmaceutical agent into said polyolefin.
A method for use by a first station, STA, for transmitting an acknowledgement, ACK, the method comprising: receiving, , from a second STA, a data frame that includes an indicator that indicates a null data packet, NDP, ACK frame is requested for acknowledgment, wherein the data frame includes a scrambler initialization value; and transmitting , , an NDP ACK frame in response to receiving the data frame, wherein the transmitted NDP ACK frame includes an indication of an ACK sequence ID; wherein the ACK sequence ID is a partial combination of a scrambler seed and a frame check sequence, FCS. receiving, , from a second STA, a data frame that includes an indicator that indicates a null data packet, NDP, ACK frame is requested for acknowledgment, wherein the data frame includes a scrambler initialization value; and transmitting , , an NDP ACK frame in response to receiving the data frame, wherein the transmitted NDP ACK frame includes an indication of an ACK sequence ID; wherein the ACK sequence ID is a partial combination of a scrambler seed and a frame check sequence, FCS.
An additive manufacturing system for generating a three-dimensional object by processing successive layers of build material, the system comprising: a controller to: receive data relating to a three-dimensional object to be generated the controller being further characterized to calculate, based at least in part on the data relating to the three-dimensional object, an estimated time to process each layer of build material; determine the longest time of said estimated times; and configure the additive manufacturing system to process each layer of build material in a time which is the same, within a predetermined tolerance, for all of the layers, and which is at least as long as the determined longest time. receive data relating to a three-dimensional object to be generated the controller being further characterized to calculate, based at least in part on the data relating to the three-dimensional object, an estimated time to process each layer of build material; determine the longest time of said estimated times; and configure the additive manufacturing system to process each layer of build material in a time which is the same, within a predetermined tolerance, for all of the layers, and which is at least as long as the determined longest time.
A musical instrument case for storing a musical instrument, comprising: - a case body having an inner wall ; - a cover attached to the case body ; - an adjustable supporting means affixed on the inner wall , wherein the adjustable supporting means comprises at least one cushioning unit ; characterized in that : - a rope is connected to the at least one cushioning unit ; - the cushioning unit comprises an upper wall and a lower wall ; - a soft material is enclosed inside the cushioning unit ; wherein the upper wall and the lower wall each comprises a crease in which when the rope is pulled, the crease is expanded pushing the soft material to expand to securely grip the musical instrument. - a case body having an inner wall ; - a cover attached to the case body ; - an adjustable supporting means affixed on the inner wall , - a rope is connected to the at least one cushioning unit ; - the cushioning unit comprises an upper wall and a lower wall ; - a soft material is enclosed inside the cushioning unit ;
A prestressed concrete for non-primary structural members, obtained by introducing a prestress into a concrete for non-primary structural members, wherein a mechanical stress induced by a tensional material and a chemical stress induced by an expansive material for a concrete are introduced into the concrete, and the tensional material is a rust-resistant wire, wherein the tensional material has a tensile load of 150 kN or less per wire, and wherein the prestressed concrete has a concrete thickness of 50 mm or less.
A solar cell, comprising: a substrate having a front surface and a rear surface opposite to each other, wherein the substrate includes a base region and an emitter ; a passivation stack disposed on the front surface , wherein the passivation stack includes an oxygen-containing dielectric layer , a first passivation layer , and a second passivation layer that are sequentially disposed in a direction away from the front surface , the oxygen-containing dielectric layer includes a metal oxide material, the first passivation layer includes a silicon nitride material, and the second passivation layer includes a silicon oxynitride material; and a tunneling oxide layer and a doped conductive layer that are sequentially disposed on the rear surface in a direction away from the rear surface , wherein the doped conductive layer and the substrate have doping elements of a same conductivity type; wherein the first passivation layer includes a first interface adjacent to the oxygen-containing dielectric layer and a second interface adjacent to the second passivation layer , the oxygen-containing dielectric layer covers the emitter , the second passivation layer includes a third interface opposite to the second interface , a nitrogen content at the second interface is higher than that at the first interface and the third interface , respectively, a silicon content at the second interface is higher than that at the first interface and the third interface , respectively, and an oxygen content at the second interface is lower than that at the first interface and the third interface , respectively. a substrate having a front surface and a rear surface opposite to each other, wherein the substrate includes a base region and an emitter ; a passivation stack disposed on the front surface , wherein the passivation stack includes an oxygen-containing dielectric layer , a first passivation layer , and a second passivation layer that are sequentially disposed in a direction away from the front surface , the oxygen-containing dielectric layer includes a metal oxide material, the first passivation layer includes a silicon nitride material, and the second passivation layer includes a silicon oxynitride material; and a tunneling oxide layer and a doped conductive layer that are sequentially disposed on the rear surface in a direction away from the rear surface , wherein the doped conductive layer and the substrate have doping elements of a same conductivity type; wherein the first passivation layer includes a first interface adjacent to the oxygen-containing dielectric layer and a second interface adjacent to the second passivation layer , the oxygen-containing dielectric layer covers the emitter , the second passivation layer includes a third interface opposite to the second interface , a nitrogen content at the second interface is higher than that at the first interface and the third interface , respectively, a silicon content at the second interface is higher than that at the first interface and the third interface , respectively, and an oxygen content at the second interface is lower than that at the first interface and the third interface , respectively.
A mounting device , including a pickup member configured to be lifted or lowered by driving a motor with feedback control to pick up a component, which is configured to mount on a board the component picked up by the pickup member , the mounting device comprising: a detection section configured to detect a driving state of the motor necessary for the feedback control; an acquisition section configured to acquire, based on the driving state detected by the detection section , at least one of a load resulting when the pickup member descends to a supply position of a pickup target component to come into contact with the component and a load resulting when the pickup member descends to a mounting position of the component in a picked-up state to come into contact with the board via the component, and a determination section configured to determine, based on the load acquired by the acquisition section , at least one of a descending speed of the pickup member when descending to the supply position and a descending speed of the pickup member when descending to the mounting position, characterized in that the acquisition section is configured to acquire the load in association with multiple regions of the board, and the determination section is configured to determine the descending speed when descending to the mounting position for each of the multiple regions. a detection section configured to detect a driving state of the motor necessary for the feedback control; an acquisition section configured to acquire, based on the driving state detected by the detection section , at least one of a load resulting when the pickup member descends to a supply position of a pickup target component to come into contact with the component and a load resulting when the pickup member descends to a mounting position of the component in a picked-up state to come into contact with the board via the component, and a determination section configured to determine, based on the load acquired by the acquisition section , at least one of a descending speed of the pickup member when descending to the supply position and a descending speed of the pickup member when descending to the mounting position, characterized in that the acquisition section is configured to acquire the load in association with multiple regions of the board, and the determination section is configured to determine the descending speed when descending to the mounting position for each of the multiple regions.
Sanitary valve with - a water inlet , - a water outlet , - a membrane valve , which is arranged between the water inlet and the water outlet , wherein the membrane valve comprises - a valve seat - an equalisation opening, - a control opening and - a control plunger , wherein through pressure actuation the control plunger can be brought into a first and into a second stable position, wherein in the first position the control plunger closes the control opening and in the second position maintains a flow through it, and - an adjusting device, with which, by way of a rotational movement, the flow through the sanitary valve when the membrane valve is open , can be changed, wherein the adjusting device comprises a throughflow element , wherein the throughflow element comprises at least one throughflow opening and is assigned to the water inlet or to the water outlet , wherein the at least one throughflow opening of the throughflow element can be brought into different rotary positions through the rotational movement, characterised in that the control plunger is firmly connected to an actuating cap . - a water inlet , - a water outlet , - a membrane valve , which is arranged between the water inlet and the water outlet , wherein the membrane valve comprises - a valve seat - an equalisation opening, - a control opening and - a control plunger , wherein through pressure actuation the control plunger can be brought into a first and into a second stable position, wherein in the first position the control plunger closes the control opening and in the second position maintains a flow through it, and - a valve seat - an equalisation opening, - a control opening and - a control plunger , wherein through pressure actuation the control plunger can be brought into a first and into a second stable position, wherein in the first position the control plunger closes the control opening and in the second position maintains a flow through it, and - an adjusting device, with which, by way of a rotational movement, the flow through the sanitary valve when the membrane valve is open , can be changed, wherein the adjusting device comprises a throughflow element , wherein the throughflow element comprises at least one throughflow opening and is assigned to the water inlet or to the water outlet , wherein the at least one throughflow opening of the throughflow element can be brought into different rotary positions through the rotational movement, characterised in that the control plunger is firmly connected to an actuating cap .
A pharmaceutical composition comprising an antibody or antigen-binding protein comprising an HCVR having the amino acid sequence of SEQ ID NO:1 and an LCVR having the amino acid sequence of SEQ ID NO:6 for use in a method of reducing lesion severity or reducing sclerotic lesion area by at least 2% in a human subject having atherosclerosis, wherein the antibody or antigen-binding protein is subcutaneously administered to the subject in a therapeutically effective amount.
A child play puzzle , comprising: a set of pieces each defining a non-circular aperture therethrough; a base ; and a pole extending from the base along a pole axis, the pole configured to sequentially receive each piece of the set of pieces with the pole extending through the aperture of each piece to form a stack of the pieces along the pole, the pole comprising a plurality of sections spaced along its length, each section being of non-circular cross-section in a plane perpendicular to the pole axis, wherein at least one of the sections is rotatable about the pole axis with respect to an adjacent one of the sections, such that moving a piece from about the rotatable section to about the adjacent section requires rotationally aligning the rotatable section with the adjacent section, characterized in that the adjacent section is rotationally fixed with respect to the base. a set of pieces each defining a non-circular aperture therethrough; a base ; and a pole extending from the base along a pole axis, the pole configured to sequentially receive each piece of the set of pieces with the pole extending through the aperture of each piece to form a stack of the pieces along the pole, the pole comprising a plurality of sections spaced along its length, each section being of non-circular cross-section in a plane perpendicular to the pole axis, wherein at least one of the sections is rotatable about the pole axis with respect to an adjacent one of the sections, such that moving a piece from about the rotatable section to about the adjacent section requires rotationally aligning the rotatable section with the adjacent section, characterized in that the adjacent section is rotationally fixed with respect to the base.