mhurhangee/ep-ind-claims huggingface dataset:
Electronic frame including a front element intended to house at least one lens, and at least one temple having an end joined to said front element by a hinge having a hinge axis, said electronic frame including a conductor, which is able to curve, that extends between the front element and said at least one temple in the vicinity of said hinge, said frame includes at least one body placed between the front element and one end of said at least one temple, said body being movably mounted in said electronic frame and having a through aperture apt to let said conductor pass, and characterized in that said body is of substantially cylindrical shape and includes first stopping elements able to make contact with second stopping elements with which said end of said at least one temple is provided, said first and second stopping elements (29, 30) ensuring the rotation of said body about said hinge axis, and in that the first stopping elements comprise two stops, protruding from an upper or lower surface of the substantially cylindrical body, one of the stops being located in the vicinity of the lower portion of the end of the through aperture, and the other of the stops being located in the vicinity of the upper portion of the end of the through aperture, and in that the second stopping elements comprise two protruding stops, located on either side of the end of the duct of the temple. said frame includes at least one body placed between the front element and one end of said at least one temple, said body being movably mounted in said electronic frame and having a through aperture apt to let said conductor pass, and characterized in that said body is of substantially cylindrical shape and includes first stopping elements able to make contact with second stopping elements with which said end of said at least one temple is provided, said first and second stopping elements (29, 30) ensuring the rotation of said body about said hinge axis, and in that the first stopping elements comprise two stops, protruding from an upper or lower surface of the substantially cylindrical body, one of the stops being located in the vicinity of the lower portion of the end of the through aperture, and the other of the stops being located in the vicinity of the upper portion of the end of the through aperture, and in that the second stopping elements comprise two protruding stops, located on either side of the end of the duct of the temple.
Installation system for electrical installation, having at least one electrical installation device with a device base - for example which is to be inserted into an installation box - and a support which is independent of the device base and has at least one interface opening, wherein the device base is designed without a frame-like supporting ring for latching insertion into the interface opening in the support, and the device base, so as to match the interface opening, has, in two diametrically opposite side regions, latching elements for engaging behind opening edges of the interface opening in a latching manner, wherein the device base has bearing sections for bearing on the support in the inserted assembly position, characterized in that the bearing sections and the latching elements are designed for a latching height (H, H1, H2), which is matched to the thickness of the opening edges of the interface opening, in such a way that the device base is held without play in the insertion direction in the inserted assembly position, wherein the latching projections of the latching elements have latching faces, which project outward, with an undercut angle (β) which is preferably less than 90° and in particular lies in the range of from 75° to 85°.
A foldable electronic device, comprising: a foldable display screen, wherein the foldable display screen is made of a plurality of layers of materials; and a first housing, a second housing, and a folding shaft, wherein the foldable display screen comprises a folding region, a first display region, and a second display region, the first display region and the second display region are located on two sides of the folding region, and the folding region corresponds to the folding shaft, and wherein the first housing and the second housing are connected by the folding shaft, traction mechanisms (70, 80) are disposed on the first housing and the second housing, an outermost layer of the foldable display screen is fixedly connected to the first housing and the second housing, an innermost layer of the foldable display screen is fixedly connected to the traction mechanisms, the traction mechanisms slide on the first housing and the second housing along a first direction, the traction mechanisms are configured to drag the layers of the foldable display screen to be dislocated mutually, and the first direction is a direction perpendicular to the folding shaft, wherein driving mechanisms are disposed on the first housing and the second housing, and the driving mechanisms are configured to drive the traction mechanisms to slide on the first housing and the second housing along the first direction. a foldable display screen, wherein the foldable display screen is made of a plurality of layers of materials; and a first housing, a second housing, and a folding shaft, wherein the foldable display screen comprises a folding region, a first display region, and a second display region, the first display region and the second display region are located on two sides of the folding region, and the folding region corresponds to the folding shaft, and wherein the first housing and the second housing are connected by the folding shaft, traction mechanisms (70, 80) are disposed on the first housing and the second housing, an outermost layer of the foldable display screen is fixedly connected to the first housing and the second housing, an innermost layer of the foldable display screen is fixedly connected to the traction mechanisms, the traction mechanisms slide on the first housing and the second housing along a first direction, the traction mechanisms are configured to drag the layers of the foldable display screen to be dislocated mutually, and the first direction is a direction perpendicular to the folding shaft, wherein driving mechanisms are disposed on the first housing and the second housing, and the driving mechanisms are configured to drive the traction mechanisms to slide on the first housing and the second housing along the first direction.
A geocell formed from polymeric strips, characterized by at least one modified polymeric strip having a storage modulus of 500 MPa or greater when measured in the machine direction by Dynamic Mechanical Analysis according to ASTM D4065 at 23°C and at a frequency of 1 Hz.
An apparatus comprising: means for processing one-bit operations, administration, and maintenance, OAM, information, wherein the one-bit OAM information determines one of two patterns; means for forming (606, 608) a forward error correction, FEC, codeword with FEC parity sync-headers, wherein the FEC parity sync-headers comprise an eight-bit pattern which is determined based on the OAM information, wherein the eight-bit pattern is "00, 11, 11, 00", or "11, 00, 00, 11"; and means for transmitting the FEC codeword. means for processing one-bit operations, administration, and maintenance, OAM, information, wherein the one-bit OAM information determines one of two patterns; means for forming (606, 608) a forward error correction, FEC, codeword with FEC parity sync-headers, wherein the FEC parity sync-headers comprise an eight-bit pattern which is determined based on the OAM information, wherein the eight-bit pattern is "00, 11, 11, 00", or "11, 00, 00, 11"; and means for transmitting the FEC codeword.
A method of producing a hardenable two part acrylic composition comprising a storage stable liquid first part and a storage stable liquid second part which react with each other upon mixing to form a cement which hardens to a solid, comprising the steps of: (a) emulsion polymerizing an acrylic monomer composition in the presence of excess initiator to produce an acrylic polymer emulsion with residual initiator; or (b) emulsion polymerizing an acrylic monomer composition to produce an acrylic polymer emulsion and adding initiator to the emulsion; or (c) emulsion polymerizing an acrylic monomer composition to produce an acrylic polymer emulsion without excess initiator; (d) optionally, mixing the emulsion from (a) or (b) with at least one further type of acrylic polymer particles or mixing the emulsion from (c) with a solution of the said further type of acrylic polymer in acrylic monomer, to thereby produce a liquid acrylic polymer first part for hardening at a predetermined rate in the joint presence of an acrylic monomer and initiator. (a) emulsion polymerizing an acrylic monomer composition in the presence of excess initiator to produce an acrylic polymer emulsion with residual initiator; or (b) emulsion polymerizing an acrylic monomer composition to produce an acrylic polymer emulsion and adding initiator to the emulsion; or (c) emulsion polymerizing an acrylic monomer composition to produce an acrylic polymer emulsion without excess initiator; (d) optionally, mixing the emulsion from (a) or (b) with at least one further type of acrylic polymer particles or mixing the emulsion from (c) with a solution of the said further type of acrylic polymer in acrylic monomer, to thereby produce a liquid acrylic polymer first part for hardening at a predetermined rate in the joint presence of an acrylic monomer and initiator.
Low-pressure plasma chamber for a low-pressure plasma installation for plasma processing of a component in the low-pressure plasma chamber, wherein the low-pressure plasma chamber has a low-pressure plasma chamber body of glass or porcelain, wherein the low-pressure plasma chamber body has an at least partially closed rear wall of glass or porcelain, wherein the low-pressure plasma chamber body has an opening having a collar, wherein the low-pressure plasma chamber body is formed in one piece, wherein the cross-section of the low-pressure plasma chamber body is constructed to be rectangular, characterized in that the low-pressure plasma chamber has a door which can be opened and closed in a reversible manner without tools, wherein the door is secured to the collar.
A GaN single crystal having a maximum dimension of at least 2 millimeters in diameter, a dislocation density of less than 10 4 cm -2, substantially no tilt boundaries, and an oxygen impurity level of less than10 19 cm -3.
A method of preparing a C-reactive-protein-immobilized immuno-fluorescence slide, the method comprising: - immobilizing a C-reactive protein on a slide to prepare a protein chip; wherein the immobilizing of the C-reactive protein on the slide comprises: modifying the slide with 3-aminopropyltrimethoxysilane to prepare a modified slide; hydrating the slide modified with 3-aminopropyltrimethoxysilane; activating the hydrated modified slide by using a glutaraldehyde solution; dissolving target C-reactive protein at a concentration of 0.01-0.5 mg/ml in a 30-70 mM phosphate buffer solution, with pH 6.5-7.8 to prepare a C-reactive protein solution for immobilization; placing a petri dish comprising the glutaraldehyde-activated slide on a spotting guide and spotting 1-100 μ l of the C-reactive protein solution on spotting points; and performing an immobilization reaction on the glutaraldehyde-activated slide prepared as described above for 1-6 hours to immobilize the C-reactive protein. - immobilizing a C-reactive protein on a slide to prepare a protein chip; wherein the immobilizing of the C-reactive protein on the slide comprises: modifying the slide with 3-aminopropyltrimethoxysilane to prepare a modified slide; hydrating the slide modified with 3-aminopropyltrimethoxysilane; activating the hydrated modified slide by using a glutaraldehyde solution; dissolving target C-reactive protein at a concentration of 0.01-0.5 mg/ml in a 30-70 mM phosphate buffer solution, with pH 6.5-7.8 to prepare a C-reactive protein solution for immobilization; placing a petri dish comprising the glutaraldehyde-activated slide on a spotting guide and spotting 1-100 μ l of the C-reactive protein solution on spotting points; and performing an immobilization reaction on the glutaraldehyde-activated slide prepared as described above for 1-6 hours to immobilize the C-reactive protein. modifying the slide with 3-aminopropyltrimethoxysilane to prepare a modified slide; hydrating the slide modified with 3-aminopropyltrimethoxysilane; activating the hydrated modified slide by using a glutaraldehyde solution; dissolving target C-reactive protein at a concentration of 0.01-0.5 mg/ml in a 30-70 mM phosphate buffer solution, with pH 6.5-7.8 to prepare a C-reactive protein solution for immobilization; placing a petri dish comprising the glutaraldehyde-activated slide on a spotting guide and spotting 1-100 μ l of the C-reactive protein solution on spotting points; and performing an immobilization reaction on the glutaraldehyde-activated slide prepared as described above for 1-6 hours to immobilize the C-reactive protein.
A transmission method using a dynamically adjusted beam set, comprising: sending, first indication information to a terminal using first layer signaling, wherein the first indication information indicates a first beam set, wherein the first beam set includes N beams; sending, second indication information to the terminal using second layer signaling, wherein the second indication information indicates two beams in the first beam set; virtualizing two antenna ports based on the two beams; and sending, data to the terminal using space frequency block code, SFBC, transmit diversity based on the two antenna ports, wherein the first layer signaling is higher layer signaling, and the second layer signaling is physical layer signaling or Media Access Control, MAC layer signaling and the second indication information uses an indication manner of an N-bit bitmap that is based on the first beam set and indicates the two beams used in a current transmission. sending, first indication information to a terminal using first layer signaling, wherein the first indication information indicates a first beam set, wherein the first beam set includes N beams; sending, second indication information to the terminal using second layer signaling, wherein the second indication information indicates two beams in the first beam set; virtualizing two antenna ports based on the two beams; and sending, data to the terminal using space frequency block code, SFBC, transmit diversity based on the two antenna ports, wherein the first layer signaling is higher layer signaling, and the second layer signaling is physical layer signaling or Media Access Control, MAC layer signaling and the second indication information uses an indication manner of an N-bit bitmap that is based on the first beam set and indicates the two beams used in a current transmission.
A method for grouping articles wherein the articles are conveyed in an uninterrupted row by means of a first conveying element, which moves at a first speed (V F1), to a second conveying element, which moves at a second speed (V F2), which second speed is greater than the first speed (V F1) of the first conveying element, wherein the second conveying element is associated with a retaining device, which comprises divider ridges, for detaching a defined number of articles from the others, thereby forming a gap between consecutive article groups (26, 28), and thereby slowing down the detached article group in relation to the article group respectively running ahead, wherein the speed of movement of the divider ridges can be variably controlled, characterised in that: - the divider ridges insert between the articles from above and are moved along a defined distance in the conveying direction of the conveying elements (12, 16), - the divider ridges, after inserting between consecutive articles, are first moved with a delay in relation to the second conveyor belt and, after forming a defined gap, they are accelerated to a speed greater than the speed (V F2) of the second conveyor belt before they are lifted out of the area of insertion between the articles, - the retaining device has several divider ridges, which are guided in a closed loop above a conveying plane of the conveying elements (12, 16) by means of circulating endless traction means, and - respectively consecutive divider ridges are guided at different or variable relative speeds in respect to each other. - the divider ridges insert between the articles from above and are moved along a defined distance in the conveying direction of the conveying elements (12, 16), - the divider ridges, after inserting between consecutive articles, are first moved with a delay in relation to the second conveyor belt and, after forming a defined gap, they are accelerated to a speed greater than the speed (V F2) of the second conveyor belt before they are lifted out of the area of insertion between the articles, - the retaining device has several divider ridges, which are guided in a closed loop above a conveying plane of the conveying elements (12, 16) by means of circulating endless traction means, and - respectively consecutive divider ridges are guided at different or variable relative speeds in respect to each other.
A method for predicting sulfur oxides (SOx) stored at a denitrification (DeNOx) catalyst, comprising: calculating a mass flow of SOx poisoned at the DeNOx catalyst at a current driving state of a vehicle; calculating a mass flow of SOx released from the DeNOx catalyst at the current driving state of the vehicle; and calculating a SOx amount poisoned at the DeNOx catalyst by integrating a value obtained by subtracting the mass flow of SOx released from the DeNOx catalyst from the mass flow of SOx poisoned at the DeNOx catalyst, wherein the mass flow of SOx released from the DeNOx catalyst is calculated based on a lambda of an inlet of the DeNOx catalyst, an actual mass flow of reducing agent, an engine speed, a current fuel injection amount, a lambda of an outlet of the DeNOx catalyst, the currently stored SOx amount, and the temperature of the DeNOx catalyst, and wherein the calculation of the mass flow of SOx released from the DeNOx catalyst comprises: calculating a release efficiency according to the engine speed and the current fuel injection amount; calculating a reference SOx releasing mass flow by using the release efficiency and the actual mass flow of the reducing agent; and calculating the mass flow of SOx released from the DeNOx catalyst by correcting the reference SOx releasing mass flow. calculating a mass flow of SOx poisoned at the DeNOx catalyst at a current driving state of a vehicle; calculating a mass flow of SOx released from the DeNOx catalyst at the current driving state of the vehicle; and calculating a SOx amount poisoned at the DeNOx catalyst by integrating a value obtained by subtracting the mass flow of SOx released from the DeNOx catalyst from the mass flow of SOx poisoned at the DeNOx catalyst, wherein the mass flow of SOx released from the DeNOx catalyst is calculated based on a lambda of an inlet of the DeNOx catalyst, an actual mass flow of reducing agent, an engine speed, a current fuel injection amount, a lambda of an outlet of the DeNOx catalyst, the currently stored SOx amount, and the temperature of the DeNOx catalyst, and wherein the calculation of the mass flow of SOx released from the DeNOx catalyst comprises: calculating a release efficiency according to the engine speed and the current fuel injection amount; calculating a reference SOx releasing mass flow by using the release efficiency and the actual mass flow of the reducing agent; and calculating the mass flow of SOx released from the DeNOx catalyst by correcting the reference SOx releasing mass flow. calculating a release efficiency according to the engine speed and the current fuel injection amount; calculating a reference SOx releasing mass flow by using the release efficiency and the actual mass flow of the reducing agent; and calculating the mass flow of SOx released from the DeNOx catalyst by correcting the reference SOx releasing mass flow.
A method comprising: receiving, at a bootstrapping server functionality apparatus on a home network, a request for security key related policy information for a user equipment device, the request being sent from a visited network, wherein the user equipment device is registered to the home network and is seeking to access a service of the visited network, characterized by causing a service authorization information request including a user security settings package for the user equipment device to be sent from the bootstrapping server functionality apparatus to a policy decisioning server on the home network, wherein the service authorization information request requests the policy decisioning server to include authorization policy information for the user equipment device in the user security settings package; receiving, in the bootstrapping server functionality apparatus, in response to the service authorization information request, a service authorization information answer comprising a modified user security settings package including the authorization policy information for the user equipment device; and causing the requested security key related policy information to be sent from the bootstrapping server functionality apparatus based at least in part upon the received modified user security settings package. receiving, at a bootstrapping server functionality apparatus on a home network, a request for security key related policy information for a user equipment device, the request being sent from a visited network, wherein the user equipment device is registered to the home network and is seeking to access a service of the visited network, characterized by causing a service authorization information request including a user security settings package for the user equipment device to be sent from the bootstrapping server functionality apparatus to a policy decisioning server on the home network, wherein the service authorization information request requests the policy decisioning server to include authorization policy information for the user equipment device in the user security settings package; receiving, in the bootstrapping server functionality apparatus, in response to the service authorization information request, a service authorization information answer comprising a modified user security settings package including the authorization policy information for the user equipment device; and causing the requested security key related policy information to be sent from the bootstrapping server functionality apparatus based at least in part upon the received modified user security settings package.