mhurhangee/ep-ind-claims huggingface dataset:
A method for performing automated assessment of spermatogenesis of a testes tissue specimen, the method comprising: obtaining, by an electronic device, a media of a mounted slice of a stained testes tissue specimen; detecting and segmenting, by the electronic device, at least one seminiferous tubule by analyzing the media of the mounted slice of the stained testes tissue specimen; mapping, by the electronic device, the segmentation of the at least one seminiferous tubule from a lower magnification to a higher magnification; segmenting, by the electronic device, at least one germ cell from the segmented at least one seminiferous tubule; classifying, by the electronic device, the detected at least one seminiferous tubule into at least one stage of spermatogenic cycle/ spermatogenesis process by performing a staging using the at least one segmented germ cell; classifying, by the electronic device, the at least one detected seminiferous tubule into a normal category or an abnormal category based on the stage into which the detected at least one seminiferous tubule is classified and at least one morphological parameter of the at least one detected seminiferous tubule; and classifying, by the electronic device, the testes tissue specimen into a normal category or an abnormal category based on classification of the at least one seminiferous tubules into a normal category or an abnormal category and a stage frequency table, wherein the stage frequency table is pre-generated and lists a plurality of stage frequencies corresponding to individual stage numbers for abnormal, respectively, normal tubules at each stage analysed. obtaining, by an electronic device, a media of a mounted slice of a stained testes tissue specimen; detecting and segmenting, by the electronic device, at least one seminiferous tubule by analyzing the media of the mounted slice of the stained testes tissue specimen; mapping, by the electronic device, the segmentation of the at least one seminiferous tubule from a lower magnification to a higher magnification; segmenting, by the electronic device, at least one germ cell from the segmented at least one seminiferous tubule; classifying, by the electronic device, the detected at least one seminiferous tubule into at least one stage of spermatogenic cycle/ spermatogenesis process by performing a staging using the at least one segmented germ cell; classifying, by the electronic device, the at least one detected seminiferous tubule into a normal category or an abnormal category based on the stage into which the detected at least one seminiferous tubule is classified and at least one morphological parameter of the at least one detected seminiferous tubule; and classifying, by the electronic device, the testes tissue specimen into a normal category or an abnormal category based on classification of the at least one seminiferous tubules into a normal category or an abnormal category and a stage frequency table, wherein the stage frequency table is pre-generated and lists a plurality of stage frequencies corresponding to individual stage numbers for abnormal, respectively, normal tubules at each stage analysed.
Electric heating device with a casing that forms inlet and outlet openings (10; 12) for the fluid to be heated and a circulation chamber as well as a connection chamber separated from said circulation chamber by way of a partition wall, where a heat-emitting surface of a PTC heating element is exposed in said circulation chamber and is coupled in a heat-conductive manner to said PTC element which is in electrically conductive contact via electrical conductor tracks with different polarities that are electrically connected in said connection chamber characterized in that said casing is a plastic casing (50, 72, 80, 82) provided with a shielding (110, 112), which shielding (110, 112) encloses the casing substantially entirely circumferentially.
A method of braiding a layer of reinforcing fibers on a mandrel using a braiding machine having a ring carrying at least two series of reinforcing fiber reels: • by moving the mandrel longitudinally along a direction normal to the ring at a predetermined forward speed (Vm1, Vm2, Vm3); and • by moving the two series of reels along the ring so that they cross while rotating at a predetermined speed of rotation (ωc1, ωc2, ωc3) in opposite directions about a central axis of the ring; • the braid being formed on the mandrel in a region of convergence of the reinforcing fibers in the vicinity of which the reinforcing fibers together define a conical shape; the method being characterized in that it comprises: • a reconfiguration step in which the movement of the reels is stopped, and in which the machine is rearranged so that the angle (a1, a2, a3) at the apex of the cone that is defined by the reinforcing fibers in the vicinity of the region of convergence takes on a new value (a1, a2, a3), and in which the machine is set with a new forward speed (Vm1, Vm2, Vm3) for the mandrel and a new speed of rotation (ωc1, ωc2, ωc3) for the reels; and • a step of restarting the braiding, in which the movement of the reels along the ring and of the advance of the mandrel are re-established using the new forward speed (Vm1, Vm2, Vm3) and the new speed of rotation (ωc1, ωc2, ωc3) of the reels for producing a braiding comprising different regions having different angles of inclination (θ1, θ2, θ3) of the fibers. • by moving the mandrel longitudinally along a direction normal to the ring at a predetermined forward speed (Vm1, Vm2, Vm3); and • by moving the two series of reels along the ring so that they cross while rotating at a predetermined speed of rotation (ωc1, ωc2, ωc3) in opposite directions about a central axis of the ring; • the braid being formed on the mandrel in a region of convergence of the reinforcing fibers in the vicinity of which the reinforcing fibers together define a conical shape; • a reconfiguration step in which the movement of the reels is stopped, and in which the machine is rearranged so that the angle (a1, a2, a3) at the apex of the cone that is defined by the reinforcing fibers in the vicinity of the region of convergence takes on a new value (a1, a2, a3), and in which the machine is set with a new forward speed (Vm1, Vm2, Vm3) for the mandrel and a new speed of rotation (ωc1, ωc2, ωc3) for the reels; and • a step of restarting the braiding, in which the movement of the reels along the ring and of the advance of the mandrel are re-established using the new forward speed (Vm1, Vm2, Vm3) and the new speed of rotation (ωc1, ωc2, ωc3) of the reels for producing a braiding comprising different regions having different angles of inclination (θ1, θ2, θ3) of the fibers.
A tissue repair scaffold, wherein the tissue repair scaffold comprises a surface of at least one layer of composite fiber layer, said composite fiber layer comprises composite fibers formed with an adhesion factor and a hydrophobic synthetic material, said composite fiber layer being formed by interweaving composite fiberfilaments with diameters of 10 nm-100 μm, and the content of said adhesion factor being 5%-50% by mass based on the total weight of the composite fiber.
A security data processing device comprising a memory and a processor, wherein the processor is coupled to the memory and is configured to: receive a record, the record comprising: a sequence element and encrypted information; query the memory to determine a value for a sequence element parameter (208,226) that is stored in the memory, wherein the sequence element and the value are elements of a sequence; validate the sequence element using the sequence element and the value, and in response to said validation: decrypt the encrypted information using a cryptographic key stored in the memory to obtain decrypted information; update the value associated with the sequence element parameter using the sequence element; and output programming information to a programming module for programming a programmable device in communication with the programming module, said programming information based on said decrypted information, wherein the programmable device and the security data processing device are separate devices. receive a record, the record comprising: a sequence element and encrypted information; query the memory to determine a value for a sequence element parameter (208,226) that is stored in the memory, wherein the sequence element and the value are elements of a sequence; validate the sequence element using the sequence element and the value, and in response to said validation: decrypt the encrypted information using a cryptographic key stored in the memory to obtain decrypted information; update the value associated with the sequence element parameter using the sequence element; and output programming information to a programming module for programming a programmable device in communication with the programming module, said programming information based on said decrypted information, wherein the programmable device and the security data processing device are separate devices. decrypt the encrypted information using a cryptographic key stored in the memory to obtain decrypted information; update the value associated with the sequence element parameter using the sequence element; and output programming information to a programming module for programming a programmable device in communication with the programming module, said programming information based on said decrypted information, wherein the programmable device and the security data processing device are separate devices.
A structured light projector comprising: a light source emitting light of a first wavelength; at least one switchable grating switchable between a non-diffracting and a diffracting state; and at least one passive grating, wherein the structured light projector has a first grating configuration for projecting uniform illumination and a second grating configuration for projecting structured illumination, wherein said first and second grating configurations are disposed in upper and lower waveguide substrates respectively, wherein said first grating configuration comprises, disposed in said upper waveguide substrate, a switchable input grating coupler in its diffracting state and a switchable output grating coupler in its diffracting state, wherein said switchable input grating coupler in its diffracting state couples said light into said upper waveguide substrate and said switchable output grating coupler in its diffracting state deflects uniform illumination out of said upper waveguide substrate, wherein light is admitted into said lower waveguide substrate through the reflecting surfaces of said upper waveguide substrate when said upper waveguide substrate input grating coupler and output grating coupler are in their non-diffracting states. a light source emitting light of a first wavelength; at least one switchable grating switchable between a non-diffracting and a diffracting state; and at least one passive grating, wherein the structured light projector has a first grating configuration for projecting uniform illumination and a second grating configuration for projecting structured illumination, wherein said first and second grating configurations are disposed in upper and lower waveguide substrates respectively, wherein said first grating configuration comprises, disposed in said upper waveguide substrate, a switchable input grating coupler in its diffracting state and a switchable output grating coupler in its diffracting state, wherein said switchable input grating coupler in its diffracting state couples said light into said upper waveguide substrate and said switchable output grating coupler in its diffracting state deflects uniform illumination out of said upper waveguide substrate, wherein light is admitted into said lower waveguide substrate through the reflecting surfaces of said upper waveguide substrate when said upper waveguide substrate input grating coupler and output grating coupler are in their non-diffracting states.
A method for interacting with a computing application using a multi-digit sensor device, the computing application being configured to communicate with a user through a user interface, the method comprising: obtaining, using the multi-digit sensor device, a gesture initial stroke of a gesture composed of at least two consecutive strokes (204, 220) performed in different directions, the gesture initial stroke being performed with a single digit of the user; identifying a direction of the gesture initial stroke; identifying a direction change point of the gesture at the end of the gesture initial stroke; determining a number of additional digits presented by the user to the multi-digit sensor device at the direction change point; identifying a gesture completion stroke of the gesture, the gesture completion stroke being performed with the single digit of the gesture initial stroke and the determined number of additional digits; identifying a direction of the gesture completion stroke; and selecting a user interface item in the computing application based on the direction of the gesture initial stroke, the determined number of additional digits presented by the user to the multi-digit sensor device at the direction change point; and the direction of the gesture completion stroke. obtaining, using the multi-digit sensor device, a gesture initial stroke of a gesture composed of at least two consecutive strokes (204, 220) performed in different directions, the gesture initial stroke being performed with a single digit of the user; identifying a direction of the gesture initial stroke; identifying a direction change point of the gesture at the end of the gesture initial stroke; determining a number of additional digits presented by the user to the multi-digit sensor device at the direction change point; identifying a gesture completion stroke of the gesture, the gesture completion stroke being performed with the single digit of the gesture initial stroke and the determined number of additional digits; identifying a direction of the gesture completion stroke; and selecting a user interface item in the computing application based on the direction of the gesture initial stroke, the determined number of additional digits presented by the user to the multi-digit sensor device at the direction change point; and the direction of the gesture completion stroke. the direction of the gesture initial stroke, the determined number of additional digits presented by the user to the multi-digit sensor device at the direction change point; and the direction of the gesture completion stroke.
A drug composition in a liquid form sealed within a soft capsule containing succinylated gelatin as a principal component thereof, the composition comprising: (a) one kind of phenol derivative or a mixture of multiple kinds thereof; and (b) a succinylated-gelatin insolubilizing agent; wherein said one kind of phenol derivative or mixture of multiple kinds thereof (a) comprises wood creosote or a constituent thereof; the succinylated-gelatin insolubilizing agent (b) comprises a polymer chain having repeats of an oxyethylene group represented by Chemical Formula 1 below by 45 weight% or more; the total number of repeats of an oxyethylene group represented by Chemical Formula I below ranges from 5 to 30; and the amount of the succinylated-gelatin insolubilizing agent (b) to be used is, for one weight part of said one kind of phenol derivative or mixture of multiple kinds thereof (a), contained by from 0.3 to 10 times in amount [Chemical Formula 1] (-CH 2 -CH 2 -O-). (a) one kind of phenol derivative or a mixture of multiple kinds thereof; and (b) a succinylated-gelatin insolubilizing agent;
A composition comprising a particulate solid, a vinyl chloride polymer and a compound of Formula and salts thereof: H-[RC(=O)] p - m - n -OM Formula wherein R is C 1-36 hydrocarbylene group; A is an optionally branched oxy (C 7-20) alk(en)ylene carbonyl chain; B is an optionally branched oxy (C 1-6) alkylene carbonyl chain; p is 0 or 1, m is 1 to 10 and n is 1 to 10; M is H, alkali or alkaline earth metal, amine, alkanolamine or quaternary ammonium salt, and wherein said particulate solid is present in an amount of at least 5 parts by weight per 100 parts by weight of said vinyl chloride polymer. R is C 1-36 hydrocarbylene group; A is an optionally branched oxy (C 7-20) alk(en)ylene carbonyl chain; B is an optionally branched oxy (C 1-6) alkylene carbonyl chain; p is 0 or 1, m is 1 to 10 and n is 1 to 10; M is H, alkali or alkaline earth metal, amine, alkanolamine or quaternary ammonium salt, and wherein said particulate solid is present in an amount of at least 5 parts by weight per 100 parts by weight of said vinyl chloride polymer.
A method for controlling a transmission of information in a wireless communication network between a radio access node and a relay node, the information being transmitted in a sequence of subframes, wherein a subframe comprises a control region and an information region containing the transmitted information, a subframe corresponding to a transmission time interval, the method comprising the steps of: - allocating a downlink subframe for a downlink transmission of information from the radio access node to the relay node, wherein a downlink subframe for a downlink transmission is only allocated when a further subframe of the same transmission time interval for a transmission from the relay node to a user equipment is a subframe of a type that indicates to the user equipment that no data are received beyond the control region, and - allocating, for each allocated downlink subframe, an uplink subframe for an uplink transmission of information from the relay node to the radio access node four transmission time intervals later, wherein, when an uplink subframe is received from the relay node, corruption of the information contained in the received uplink subframe is checked during a Hybrid Automatic Repeat Request, HARQ, process, characterized in that if the subframe is not detected as corrupted, no explicit acknowledgement feedback on Physical HARQ Indicator Channel, PHICH, is transmitted back to the relay node, wherein for a corrupted received uplink subframe an uplink grant is transmitted to the relay node in the next available downlink subframe associated with the HARQ process, wherein the transmitted uplink grant comprises an indicator for new data, wherein the indicator is non-toggled. - allocating a downlink subframe for a downlink transmission of information from the radio access node to the relay node, wherein a downlink subframe for a downlink transmission is only allocated when a further subframe of the same transmission time interval for a transmission from the relay node to a user equipment is a subframe of a type that indicates to the user equipment that no data are received beyond the control region, and - allocating, for each allocated downlink subframe, an uplink subframe for an uplink transmission of information from the relay node to the radio access node four transmission time intervals later,
A gas sensor comprising: a detection element whose resistance value changes in accordance with a concentration of CO 2 gas; a reference element connected in series to the detection element; a first heater for heating the detection element; a second heater for heating the reference element; and a control circuit configured to heat the first and second heaters such that the reference element has a higher temperature than the detection element in a first period of time and that the detection element has a higher temperature than the reference element in a second period of time, wherein the control circuit is configured to heat the first and second heaters such that the detection element and the reference element have a first temperature and a second temperature, respectively, in the first period of time and that the reference element and the detection element have the first temperature and the second temperature, respectively, in the second period of time; wherein the heating temperature of the detection element in the first period of time is in a range of 100°C to 200°; and wherein the heating temperature of the reference element in the first period of time is in a range of 250°C to 350°C. a detection element whose resistance value changes in accordance with a concentration of CO 2 gas; a reference element connected in series to the detection element; a first heater for heating the detection element; a second heater for heating the reference element; and a control circuit configured to heat the first and second heaters such that the reference element has a higher temperature than the detection element in a first period of time and that the detection element has a higher temperature than the reference element in a second period of time, wherein the control circuit is configured to heat the first and second heaters such that the detection element and the reference element have a first temperature and a second temperature, respectively, in the first period of time and that the reference element and the detection element have the first temperature and the second temperature, respectively, in the second period of time; wherein the heating temperature of the detection element in the first period of time is in a range of 100°C to 200°; and wherein the heating temperature of the reference element in the first period of time is in a range of 250°C to 350°C.
A communication method performed by a terminal device or a chip configured in the terminal device, the method comprising the steps of: • receiving first indication information from a master node, MN, wherein the first indication information is used to indicate to the terminal device to access a candidate cell pre-configured by the MN when the terminal device cannot send a master cell group, MCG, failure message to the MN via a secondary node, SN, or does not receive a response to the MCG failure message from the MN; • when detecting that a wireless connection fails, if a secondary cell group, SCG, does not fail, sending (S 450a) the MCG failure message to the MN via the SN; • if the SCG fails, performing (S 540) a cell selection, and if a target cell is the candidate cell, accessing (S 550) the target cell, wherein the target cell is a cell selected by the terminal device during the cell selection, the SCG is a group of cells associated with the SN, and the MCG is a group of cells associated with the MN. • receiving first indication information from a master node, MN, wherein the first indication information is used to indicate to the terminal device to access a candidate cell pre-configured by the MN when the terminal device cannot send a master cell group, MCG, failure message to the MN via a secondary node, SN, or does not receive a response to the MCG failure message from the MN; • when detecting that a wireless connection fails, if a secondary cell group, SCG, does not fail, sending (S 450a) the MCG failure message to the MN via the SN; • if the SCG fails, performing (S 540) a cell selection, and if a target cell is the candidate cell, accessing (S 550) the target cell, wherein the target cell is a cell selected by the terminal device during the cell selection, the SCG is a group of cells associated with the SN, and the MCG is a group of cells associated with the MN.