mhurhangee/patent-ind-claim-en huggingface dataset:
Method for increasing the coercivity of a sintered type NdFeB permanent magnet, the method comprising the following steps: (a) adsorbing a heavy rare earth powder on at least one face of an adhesive organic film whose thickness is in the range of 4 to 50 μm, thus obtaining a heavy rare earth diffusion source comprising at least one uniform layer of the heavy rare earth powder on the adhesive organic film ; (b) placing the heavy rare earth diffusion source with its heavy rare earth powder layer on a surface of an NdFeB permanent magnet which extends perpendicular to the magnetization direction (M) of the NdFeB permanent magnet and applying a pressing force; and (c) subjecting the NdFeB permanent magnet coated with the heavy rare earth diffuse source to high temperature diffusion and aging treatment. (a) adsorbing a heavy rare earth powder on at least one face of an adhesive organic film whose thickness is in the range of 4 to 50 μm, thus obtaining a heavy rare earth diffusion source comprising at least one uniform layer of the heavy rare earth powder on the adhesive organic film ; (b) placing the heavy rare earth diffusion source with its heavy rare earth powder layer on a surface of an NdFeB permanent magnet which extends perpendicular to the magnetization direction (M) of the NdFeB permanent magnet and applying a pressing force; and (c) subjecting the NdFeB permanent magnet coated with the heavy rare earth diffuse source to high temperature diffusion and aging treatment.
Use of a hemoglobin preparation solution for preparing a calibrator, a control, and a blood sample for measuring hemoglobins from a hemoglobin-containing sample in a liquid chromatography method, or for dissolving and diluting lyophilized hemoglobin for measuring hemoglobins from a hemoglobin-containing sample in a liquid chromatography method, wherein the hemoglobin preparation solution comprises 0.05 to 0.4 wt% of at least one ester ether-type nonionic surfactant after the hemoglobin-containing sample is prepared, and wherein the hemoglobin preparation solution does not contain an ether-type nonionic surfactant. for preparing a calibrator, a control, and a blood sample for measuring hemoglobins from a hemoglobin-containing sample in a liquid chromatography method, or for dissolving and diluting lyophilized hemoglobin for measuring hemoglobins from a hemoglobin-containing sample in a liquid chromatography method, wherein the hemoglobin preparation solution comprises 0.05 to 0.4 wt% of at least one ester ether-type nonionic surfactant after the hemoglobin-containing sample is prepared, and wherein the hemoglobin preparation solution does not contain an ether-type nonionic surfactant.
An apparatus for adapting a guide width (B) of a conveying device for conveying containers for a container treatment installation, comprising: a longitudinally movable and pliable adjusting element ; a guide element , preferably a guide rail, for guiding the containers along a conveying direction (F); and a transmission device which, for the adaptation of the guide width (B), is configured to convert a longitudinal movement, preferably a pushing and/or pulling movement, of the adjusting element into a movement of the guide element transversely with respect to the conveying direction (F), wherein the transmission device is configured to convert the longitudinal movement of the adjusting element into a rotary movement, and to convert the rotary movement into a linear movement in order to move the guide element , characterized in that the transmission device comprises a sliding element and a rotary element , which are in engagement with one another, for converting the longitudinal movement into the rotary movement, and in that the sliding element is attached to the adjusting element by means of a clamping connection, and/or the sliding element is clamped directly to the adjusting element . a longitudinally movable and pliable adjusting element ; a guide element , preferably a guide rail, for guiding the containers along a conveying direction (F); and a transmission device which, for the adaptation of the guide width (B), is configured to convert a longitudinal movement, preferably a pushing and/or pulling movement, of the adjusting element into a movement of the guide element transversely with respect to the conveying direction (F), the transmission device comprises a sliding element and a rotary element , which are in engagement with one another, for converting the longitudinal movement into the rotary movement, and in that the sliding element is attached to the adjusting element by means of a clamping connection, and/or the sliding element is clamped directly to the adjusting element .
A polymeric ion-conductive electrolyte sheet comprising: i) thermoplastic polymer formed using at least three monomers; ii) a melting point or a flow point in excess of about 90°C and less than about 170°C; and iii) optical haze less than 5% measured using a standard test method ASTM D1003, characterized in that the thermoplastic polymer is a thermoplastic polyurethane (TPU) formed by reacting a diisocyanate monomer with a first polyol monomer and a second polyol monomer, each of the first and second polyols having a functionality of two, wherein the first polyol has a short molecular weight and the second polyol has a longer chain with a higher molecular weight than the first polyol, and wherein the electrolyte sheet further comprises a plasticizer and the TPU forms hard and soft phases where the soft phases are compatible with the plasticizer and the hard phases hold the polymer shape, wherein the transition temperature Tg of the hard phases is higher than 90°C. i) thermoplastic polymer formed using at least three monomers; ii) a melting point or a flow point in excess of about 90°C and less than about 170°C; and iii) optical haze less than 5% measured using a standard test method ASTM D1003, characterized in that the thermoplastic polymer is a thermoplastic polyurethane (TPU) formed by reacting a diisocyanate monomer with a first polyol monomer and a second polyol monomer, each of the first and second polyols having a functionality of two, wherein the first polyol has a short molecular weight and the second polyol has a longer chain with a higher molecular weight than the first polyol, and wherein the electrolyte sheet further comprises a plasticizer and the TPU forms hard and soft phases where the soft phases are compatible with the plasticizer and the hard phases hold the polymer shape, wherein the transition temperature Tg of the hard phases is higher than 90°C.
A sealing plug for a panel opening, the plug having a central axis and comprising: a head portion having a first diameter larger than of the panel opening; and a leg portion concentric to the head portion and having a second diameter shorter than the first diameter, wherein the leg portion comprises at least two latches extending radially towards the head portion , wherein each latch comprises a base contacting the leg portion and a first half and a second half divided by an imaginary plane defined by the central axis of the plug and a center of the base , wherein the first half is larger than the second half , wherein each latch is resiliently deformable about a rotation axis defined by the base between each latch and the leg portion , characterized in that the passing of the leg portion and the at least two latches through the panel opening causes resilient radial deformation of each latch about the rotation axis defined by the base of each latch , perpendicularly to the central axis of the plug , such that each latch deforms and recovers thereby causing the panel to be retained by the at least two latches and between the at least two latches and the head portion of the plug . a head portion having a first diameter larger than of the panel opening; and a leg portion concentric to the head portion and having a second diameter shorter than the first diameter, wherein the leg portion comprises at least two latches extending radially towards the head portion , wherein each latch comprises a base contacting the leg portion and a first half and a second half divided by an imaginary plane defined by the central axis of the plug and a center of the base , wherein the first half is larger than the second half , wherein each latch is resiliently deformable about a rotation axis defined by the base between each latch and the leg portion , the leg portion comprises at least two latches extending radially towards the head portion , wherein each latch comprises a base contacting the leg portion and a first half and a second half divided by an imaginary plane defined by the central axis of the plug and a center of the base , wherein the first half is larger than the second half , wherein each latch is resiliently deformable about a rotation axis defined by the base between each latch and the leg portion ,
An isolated viral ssRNA derived from the genome of African Horse Sickness Virus (AHSV) wherein the ssRNA comprises at least a part of S9 gene segment of said virus and having therein a plurality of mutations in S9 gene segment of said virus and further wherein each mutation, at least after being introduced into said ssRNA, provides or encodes a stop codon that destroys the function of at least one essential gene in the S9 gene segment.
A panel light, comprising: a frame , a diffuser plate having an outer surface and an inner surface opposite to each other, a base plate , and a light source assembly configured to be installed on the base plate , and a light-emitting side of the light source assembly face towards the diffuser plate ; wherein the frame has an annular retaining rim , and ribs are provided on the annular retaining rim ; and an edge portion of the outer surface of the diffuser plate is configured to abut against the ribs ; the base plate has an annular flange , an edge portion of the base plate is fixed to the frame , and the annular flange is configured to abut on an edge portion of the inner surface of the diffuser plate , the ribs are arranged in multiple sections, and the ribs with multiple sections are distributed on the frame in an annular manner; the edge portion of the base plate and the frame are connected through fasteners ; the fasteners are screws that pass through the edge portion of the base plate and are threaded to the frame ; characterized in that the distance between a position where the annular flange abuts on the diffuser plate and a center of the diffuser plate is smaller than the distance between a position where the ribs abut on the diffuser plate and the center of the diffuser plate , so that the diffuser plate bulges outwards. a frame , a diffuser plate having an outer surface and an inner surface opposite to each other, a base plate , and a light source assembly configured to be installed on the base plate , and a light-emitting side of the light source assembly face towards the diffuser plate ; wherein the frame has an annular retaining rim , and ribs are provided on the annular retaining rim ; and an edge portion of the outer surface of the diffuser plate is configured to abut against the ribs ; the base plate has an annular flange , an edge portion of the base plate is fixed to the frame , and the annular flange is configured to abut on an edge portion of the inner surface of the diffuser plate , the ribs are arranged in multiple sections, and the ribs with multiple sections are distributed on the frame in an annular manner; the edge portion of the base plate and the frame are connected through fasteners ; the fasteners are screws that pass through the edge portion of the base plate and are threaded to the frame ; characterized in that the distance between a position where the annular flange abuts on the diffuser plate and a center of the diffuser plate is smaller than the distance between a position where the ribs abut on the diffuser plate and the center of the diffuser plate , so that the diffuser plate bulges outwards.
A method of predicting data from an image, executable by a processor , comprising: extracting, from an image, a plurality of patch images; compressing, using a first model, spatial features corresponding to the plurality of patch images, the spatial features relating to the spatial relationship between the patch images; and predicting, using a second model, output molecular data based on the compressed spatial features; wherein the first model uses a neural network trained using biological images, and compressing the spatial features comprises: detecting a pathology associated with the image; identifying patch images corresponding to the detected pathology; identifying normal patch images associated with the image; determining spatial arrangements corresponding to the normal patch images and the patch images corresponding to the detected pathology; and generating or training a deep learning model based on the determined spatial arrangements; and wherein the second model is a deep learning regression model. extracting, from an image, a plurality of patch images; compressing, using a first model, spatial features corresponding to the plurality of patch images, the spatial features relating to the spatial relationship between the patch images; and predicting, using a second model, output molecular data based on the compressed spatial features; wherein the first model uses a neural network trained using biological images, and compressing the spatial features comprises: detecting a pathology associated with the image; identifying patch images corresponding to the detected pathology; identifying normal patch images associated with the image; determining spatial arrangements corresponding to the normal patch images and the patch images corresponding to the detected pathology; and generating or training a deep learning model based on the determined spatial arrangements; and wherein the second model is a deep learning regression model. detecting a pathology associated with the image; identifying patch images corresponding to the detected pathology; identifying normal patch images associated with the image; determining spatial arrangements corresponding to the normal patch images and the patch images corresponding to the detected pathology; and generating or training a deep learning model based on the determined spatial arrangements; and wherein the second model is a deep learning regression model.
Electrolysis cell comprising - a cathode space comprising a cathode; - a first ion exchange membrane that contains an anion exchanger and that adjoins the cathode space; - an anode space comprising an anode; and - a second ion exchange membrane that contains a cation exchanger and that adjoins the anode space; further comprising a salt bridge space, where the salt bridge space is disposed between the first ion exchange membrane and the second ion exchange membrane, wherein the cathode takes the form of a gas diffusion electrode, of a porous bound catalyst structure, of a particulate catalyst on a support, of a coating of a particulate catalyst on the first ion exchange membrane, of a porous conductive support impregnated with a catalyst, or of a noncontinuous two-dimensional structure, containing an anion exchange material, wherein the cathode comprises a metal selected from Cu, Ag, Au, Zn and/or a salt thereof, and wherein the cathode comprises a hydrophilic additive selected from TiO 2 , Al 2 O 3 , MgO 2 , polysulfones, polyimides, polybenzoxazoles, and polyether ketones. - a cathode space comprising a cathode; - a first ion exchange membrane that contains an anion exchanger and that adjoins the cathode space; - an anode space comprising an anode; and - a second ion exchange membrane that contains a cation exchanger and that adjoins the anode space;
A method, for use with a Head Mounted Display, HMD, for use in an Augmented Reality, AR, environment, the method, comprising: rendering a current image , via a rendering module based on a predicted pose of the HMD; transforming a previously rendered image, by distorting the previously rendered image to appear as if it were rendered using the predicted pose of the current image; determining a set of motion vectors for blocks of one or more pixel for the current image by determining a displacement of the blocks between the current image and the transformation of the previous image, and dividing the displacement by a time between a time the current image was rendered, and an intended time at which the current image will be displayed; wherein each motion vector represents the motion within a scene between the two images for the block of the one or more pixels; projecting each motion vector for one or more target display times, wherein each motion vector is multiplied by the time duration between the time the current image was rendered and the target display time for the current image; generating based on the current image one or more updated fields from the current image for displaying via the HMD based on the motion vectors at a field rate which is greater than a maximum rendering frame rate; and displaying the one or more updated fields on a display of the HMD. rendering a current image , via a rendering module based on a predicted pose of the HMD; transforming a previously rendered image, by distorting the previously rendered image to appear as if it were rendered using the predicted pose of the current image; determining a set of motion vectors for blocks of one or more pixel for the current image by determining a displacement of the blocks between the current image and the transformation of the previous image, and dividing the displacement by a time between a time the current image was rendered, and an intended time at which the current image will be displayed; wherein each motion vector represents the motion within a scene between the two images for the block of the one or more pixels; projecting each motion vector for one or more target display times, wherein each motion vector is multiplied by the time duration between the time the current image was rendered and the target display time for the current image; generating based on the current image one or more updated fields from the current image for displaying via the HMD based on the motion vectors at a field rate which is greater than a maximum rendering frame rate; and displaying the one or more updated fields on a display of the HMD.
A system comprising, a plurality of unmanned aerial vehicles and a single controller for controlling said plurality of unmanned aerial vehicles , characterized in that , the single controller is configured such that it can broadcast a command (7a-d) to all of the plurality of unmanned aerial vehicles so that each of the plurality of unmanned aerial vehicles receive the same command (7a-d); and wherein each of the unmanned aerial vehicles comprise a memory which stores a plurality of predefined flight plans (23a-d) each of which is assigned to a respective command (7a-d), and wherein the flight plan (23a-d) which is assigned to a respective command (7a-d) in each vehicle differs between vehicles ; and wherein each of the unmanned aerial vehicles comprises a processor which 2. is adapted to, (i) receive a command (7a-d) which has been broadcast by the single controller to said plurality of unmanned aerial vehicles , (ii) retrieve from said plurality of predefined flight plans (23a-d) stored in the memory of that aerial vehicle , the flight plan (23a-d) which is assigned in the memory to that command (7a-d), and (iii) operate the aerial vehicle to follow the retrieved flight plan (23a-d). (i) receive a command (7a-d) which has been broadcast by the single controller to said plurality of unmanned aerial vehicles , (ii) retrieve from said plurality of predefined flight plans (23a-d) stored in the memory of that aerial vehicle , the flight plan (23a-d) which is assigned in the memory to that command (7a-d), and (iii) operate the aerial vehicle to follow the retrieved flight plan (23a-d).
A scroll compressor including an orbiting scroll engaged with a front case by pins and rings or ring holes to prevent rotation of the orbiting scroll, characterized in that the rings or the ring holes have such an inside diameter that an orbiting radius ρ pin defined by the pins and the rings or the ring holes is larger than a theoretical orbiting radius ρ th defined by engagement between gear surfaces of a fixed scroll and the orbiting scroll ; and the pins , the rings , or the ring holes are configured to be shifted in such a direction that is the same as or opposite to a direction in which the orbiting scroll orbits so as to relieve twisting of the orbiting scroll relative to the fixed scroll , when compared to a case where the pins , the rings or the ring holes are configured such that ρ pin is equal to ρ th .
A communication method, comprising: receiving , by an access network device, a network access request from a user equipment, sending , by the access network device, a network access request to a core network device, receiving , by the access network device, an initial context setup request from the core network device, wherein the initial context setup request comprises first information, and the first information comprises an identifier of allowed session management-network slice selection assistance information, NSSAI; wherein the session management-NSSAI comprises a slice/service type, sending , by the access network device, a radio resource control, RRC connection reconfiguration request to the user equipment, wherein the RRC connection reconfiguration request includes the first information, receiving , by the access network device, a RRC connection reconfiguration complete message from the user equipment, and sending , by the access network device, an initial context setup request complete message to the core network device. receiving , by an access network device, a network access request from a user equipment, sending , by the access network device, a network access request to a core network device, receiving , by the access network device, an initial context setup request from the core network device, wherein the initial context setup request comprises first information, and the first information comprises an identifier of allowed session management-network slice selection assistance information, NSSAI; wherein the session management-NSSAI comprises a slice/service type, sending , by the access network device, a radio resource control, RRC connection reconfiguration request to the user equipment, wherein the RRC connection reconfiguration request includes the first information, receiving , by the access network device, a RRC connection reconfiguration complete message from the user equipment, and sending , by the access network device, an initial context setup request complete message to the core network device.
A pharmaceutical composition comprising: oritavancin, or a salt thereof, and hydroxypropyl β-cyclodextrin (HPCD); wherein the HPCD and oritavancin, or salt thereof, are present in a mass ratio of about 0.25:1 to about 4:1, wherein said composition is a) in solid form which on reconstitution provides an intravenous pharmaceutical composition; or b) in a solution, which is optionally diluted, which provides an intravenous pharmaceutical composition. oritavancin, or a salt thereof, and hydroxypropyl β-cyclodextrin (HPCD); wherein the HPCD and oritavancin, or salt thereof, are present in a mass ratio of about 0.25:1 to about 4:1, wherein said composition is a) in solid form which on reconstitution provides an intravenous pharmaceutical composition; or b) in a solution, which is optionally diluted, which provides an intravenous pharmaceutical composition. a) in solid form which on reconstitution provides an intravenous pharmaceutical composition; or b) in a solution, which is optionally diluted, which provides an intravenous pharmaceutical composition.