mhurhangee/ep-ind-claims huggingface dataset:
A continuous structural panel, comprising: a continuous skin component; and a continuous curved composite stringer having a base flange coupled to the continuous skin component, and a web projecting outward from the base flange to create a web height, wherein the web tapers at a curved region of the continuous curved composite stringer characterized in that the base flange extends away from the web to create a base width, and wherein the base width increases as the web height decreases. a continuous skin component; and a continuous curved composite stringer having a base flange coupled to the continuous skin component, and a web projecting outward from the base flange to create a web height, wherein the web tapers at a curved region of the continuous curved composite stringer characterized in that the base flange extends away from the web to create a base width, and wherein the base width increases as the web height decreases. a base flange coupled to the continuous skin component, and a web projecting outward from the base flange to create a web height, wherein the web tapers at a curved region of the continuous curved composite stringer characterized in that the base flange extends away from the web to create a base width, and wherein the base width increases as the web height decreases.
A compound of the formula: wherein A is selected from the group consisting of L is a bond or C 1 -C 3 alkyl; and B is selected from the group consisting of or a pharmaceutically acceptable salt thereof. A is selected from the group consisting of L is a bond or C 1 -C 3 alkyl; and B is selected from the group consisting of or a pharmaceutically acceptable salt thereof.
A method for digitally imaging a scene, the method comprising: capturing an image with an imaging device, wherein capturing the image comprises detecting light rays using a photosensor array, wherein the captured image is focused on a physical focal plane, and the light rays pass through a main lens and a microlens array to be detected by the photosensor array; generating image data using the detected light rays, comprising determining angles of incidence of the light rays at different locations on the physical focal plane of the captured image, wherein determining the angle of incidence comprises using a ray tracing technique; and generating a virtual output image which corresponds to the captured image, but is focused at a selected virtual focal plane different from the physical focal plane, such that at least a portion of the image is refocused, wherein generating the virtual output image comprises selective combination of image data representing different ones of the light rays. capturing an image with an imaging device, wherein capturing the image comprises detecting light rays using a photosensor array, wherein the captured image is focused on a physical focal plane, and the light rays pass through a main lens and a microlens array to be detected by the photosensor array; generating image data using the detected light rays, comprising determining angles of incidence of the light rays at different locations on the physical focal plane of the captured image, wherein determining the angle of incidence comprises using a ray tracing technique; and generating a virtual output image which corresponds to the captured image, but is focused at a selected virtual focal plane different from the physical focal plane, such that at least a portion of the image is refocused, wherein generating the virtual output image comprises selective combination of image data representing different ones of the light rays.
A method for managing voiceprint information, comprising: acquiring (S11, S21, S41, S51) a historical voice file generated by a call between a first user and a second user and stored in a system; executing (S12, S22, S42, S52) filtering processing on the historical voice file to obtain voice information of the first user; executing (S13, S23, S43, S53) text recognition processing on the voice information to obtain text information corresponding to the voice information; segmenting the text information into a plurality of pieces of sub-text information, including marking a start time and an end time of each piece of the sub-text information, wherein a piece of sub-text information is a phrase or sentence comprising a plurality of words; obtaining sub-voice information corresponding to each piece of the sub-text information by segmenting the voice information according to the start time and the end time of each piece of the sub-text information; and editing each pair of the sub-voice information and the corresponding sub-text information by: processing the sub-voice information into corresponding sub-voiceprint information, setting a file name for the sub-voiceprint information, and storing (S26, S34, S44) the sub-voiceprint information and the sub-text information, in association with a user identifier of the first user, as a respective piece of first reference voiceprint information of the first user. acquiring (S11, S21, S41, S51) a historical voice file generated by a call between a first user and a second user and stored in a system; executing (S12, S22, S42, S52) filtering processing on the historical voice file to obtain voice information of the first user; executing (S13, S23, S43, S53) text recognition processing on the voice information to obtain text information corresponding to the voice information; segmenting the text information into a plurality of pieces of sub-text information, including marking a start time and an end time of each piece of the sub-text information, wherein a piece of sub-text information is a phrase or sentence comprising a plurality of words; obtaining sub-voice information corresponding to each piece of the sub-text information by segmenting the voice information according to the start time and the end time of each piece of the sub-text information; and editing each pair of the sub-voice information and the corresponding sub-text information by: processing the sub-voice information into corresponding sub-voiceprint information, setting a file name for the sub-voiceprint information, and storing (S26, S34, S44) the sub-voiceprint information and the sub-text information, in association with a user identifier of the first user, as a respective piece of first reference voiceprint information of the first user.
Apparatus for providing image data with respect to a field of view, the apparatus comprising at least two terahertz receivers adapted to receive radiation from a common area of the field of view at different respective frequencies over the same period of time, an image processor for providing image data with respect to the field of view at each respective frequency, and a composite image generator for generating composite image data with respect to the common area from at least part of the image data provided by the image processor, the composite image data comprising image data at two or more of said different respective frequencies, characterised in that each of the two terahertz receivers comprises a respective mixer that makes use of a common local oscillator source, and the respective mixers are configured to provide down-conversion of the different respective frequencies at mixer frequencies that are harmonically related to the frequency of the common local oscillator source.
A protein comprising an amino acid sequence having substitutions of the 312th to the 318th amino acids with glycine, serine, glutamic acid, proline, serine, glycine and threonine in order, respectively, in an amino acid sequence of a β-subunit of wild-type human β-hexosaminidase.
A construction machine apparatus, comprising: a machine frame: at least two self-propelling ground engaging units (32, 34, 36, 38); a plurality of height adjustable supports (48, 50, 52, 54), at least three of the height adjustable supports being arranged to support the machine frame from the ground engaging units; a laser plane source mounted on the machine frame at a first location and arranged to generate a laser plane; at least a first and second laser sensor (R1, R2) mounted on the construction machine at at least two other locations and arranged to intersect the laser plane to detect a height of the at least two other locations relative to the laser plane; and a controller configured to receive input signals from the first and second laser sensors; characterized in that the at least two other locations are on the machine frame so that the first and second laser sensors (R1, R2) detect distortion of the machine frame; and the controller is configured to control height adjustment of at least one of the at least two other locations and to control the distortion of the machine frame. a machine frame: at least two self-propelling ground engaging units (32, 34, 36, 38); a plurality of height adjustable supports (48, 50, 52, 54), at least three of the height adjustable supports being arranged to support the machine frame from the ground engaging units; a laser plane source mounted on the machine frame at a first location and arranged to generate a laser plane; at least a first and second laser sensor (R1, R2) mounted on the construction machine at at least two other locations and arranged to intersect the laser plane to detect a height of the at least two other locations relative to the laser plane; and a controller configured to receive input signals from the first and second laser sensors; at least two self-propelling ground engaging units (32, 34, 36, 38); a plurality of height adjustable supports (48, 50, 52, 54), at least three of the height adjustable supports being arranged to support the machine frame from the ground engaging units; a laser plane source mounted on the machine frame at a first location and arranged to generate a laser plane; at least a first and second laser sensor (R1, R2) mounted on the construction machine at at least two other locations and arranged to intersect the laser plane to detect a height of the at least two other locations relative to the laser plane; and a controller configured to receive input signals from the first and second laser sensors; the at least two other locations are on the machine frame so that the first and second laser sensors (R1, R2) detect distortion of the machine frame; and the controller is configured to control height adjustment of at least one of the at least two other locations and to control the distortion of the machine frame.
An electronic device (101, 201, 400) comprising: a memory (130, 230) configured to store data including a predetermined pattern in relation to a user gesture moving the electronic device; at least one sensor; a display (160, 260, 420); and a processor (120, 210, 410) configured to: while the display is deactivated, receive first data related to a movement of the electronic device using the at least one sensor; determine whether the first data corresponds to the predetermined pattern; transition the display from deactivated to activated based on determining that the first data corresponds to the predetermined pattern; while the display is activated, receive second data from the at least one sensor; the device being characterised in that: in response to determining that the second data corresponds to a repetition of the predetermined pattern or a portion of the predetermined pattern, transition the display from activated to deactivated. a memory (130, 230) configured to store data including a predetermined pattern in relation to a user gesture moving the electronic device; at least one sensor; a display (160, 260, 420); and a processor (120, 210, 410) configured to: while the display is deactivated, receive first data related to a movement of the electronic device using the at least one sensor; determine whether the first data corresponds to the predetermined pattern; transition the display from deactivated to activated based on determining that the first data corresponds to the predetermined pattern; while the display is activated, receive second data from the at least one sensor; the device being characterised in that: in response to determining that the second data corresponds to a repetition of the predetermined pattern or a portion of the predetermined pattern, transition the display from activated to deactivated. while the display is deactivated, receive first data related to a movement of the electronic device using the at least one sensor; determine whether the first data corresponds to the predetermined pattern; transition the display from deactivated to activated based on determining that the first data corresponds to the predetermined pattern; while the display is activated, receive second data from the at least one sensor; the device being characterised in that: in response to determining that the second data corresponds to a repetition of the predetermined pattern or a portion of the predetermined pattern, transition the display from activated to deactivated.
An optical fiber filter for removing light of at least one predetermined noise wavelength from a fiber core, the fiber filter comprising a length of optical fiber comprising a core region having a first refractive index value denoted n core; a cladding region surrounding the core region, said cladding region having a second refractive index value denoted n clad, where n clad <n core; and at least one high refractive index cladding feature disposed within the cladding region having a third refractive index value denoted n hi, where n hi > n core, the various refractive index values, size and location adapted to determine the at least one predetermined noise wavelength to be filtered from the fiber core where mode mixing between the core mode and cladding mode occurs when the effective index of the core mode substantially matches the effective index of the cladding mode, wherein the at least one high index cladding feature comprises at least one high index ring disposed to surround the core region, the optical fiber filter being characterised in that the at least one high index ring comprises a plurality of concentric rings disposed to surround the core region.
Optical fibre distribution frame with a plurality of compartments disposed one above each other and each including a plurality of patch cassettes for patch cables or pig tails, wherein each compartment (14, 14a) has a tray or plate (10, 10a) which can be pulled out like a drawer, in or on which the patch cassettes (1, 1A) are fastened and spaced apart from one another in a such a way that they can be pivoted to both sides into an end position in which they are disposed a an angle to the base of the tray (10,10a), characterised in that the patch cassettes (1, 1A) have on both sides coupling elements for optical connectors for the patch cables or pig tails.
A consumer unit produced from a non-combustible material which, in use, includes openings through which electrical cabling can pass and is lined internally with one or more sheets or strips of silicon cloth coated or lined with an intumescent material which exfoliates in the event of fire to seal all such openings, the consumer unit being characterised in that a sealed thermoplastic tube filled with a liquid extinguishant gas is positioned within the consumer unit, the sealed tube operating to release the liquid extinguishant gas in the event of a fire occuring within the consumer unit to extinguish said fire.
A process for producing an electrophotographic photosensitive member including a support, an undercoat layer formed on the support, a charge generating layer formed on the undercoat layer, and a hole transporting layer formed on the charge generating layer, the process comprising: preparing a solution containing: a liquid whose solubility in water at 25°C and 1 atmosphere is 3.0 mass% or less, a liquid whose solubility in water at 25°C and 1 atmosphere is 5.0 mass% or more, and an electron transporting substance; preparing an emulsion by dispersing the solution in water; forming a coat of the emulsion on the support; and forming the undercoat layer by heating the coat. preparing a solution containing: a liquid whose solubility in water at 25°C and 1 atmosphere is 3.0 mass% or less, a liquid whose solubility in water at 25°C and 1 atmosphere is 5.0 mass% or more, and an electron transporting substance; a liquid whose solubility in water at 25°C and 1 atmosphere is 3.0 mass% or less, a liquid whose solubility in water at 25°C and 1 atmosphere is 5.0 mass% or more, and an electron transporting substance; preparing an emulsion by dispersing the solution in water; forming a coat of the emulsion on the support; and forming the undercoat layer by heating the coat.
An Internet of Things data transmission method, comprising: sending, by a terminal device, a first data request to a server, wherein the first data request is used to instruct the server to continuously send a plurality of data packets, the first data request comprises a quantity N of data packets that the terminal device is capable of continuously receiving and a time interval for sending two consecutive data packets, and N is greater than 1; and continuously receiving, by the terminal device, N data packets sent by the server, wherein the N data packets comprise at least one non-confirmable Constrained Application Protocol, NON, data packet, a sending time interval between two consecutive data packets in the N data packets is the time interval, and the NON data packet is a data packet indicating that the terminal device does not need to send a receiving response to the server, characterised in that: the last data packet in the N data packets is a confirmable Constrained Application Protocol, CON, data packet; and the method further comprises: sending, by the terminal device, a response message to the server after receiving the CON data packet, wherein the response message is used to notify the server that the terminal device is in a receiving state. sending, by a terminal device, a first data request to a server, wherein the first data request is used to instruct the server to continuously send a plurality of data packets, the first data request comprises a quantity N of data packets that the terminal device is capable of continuously receiving and a time interval for sending two consecutive data packets, and N is greater than 1; and continuously receiving, by the terminal device, N data packets sent by the server, wherein the N data packets comprise at least one non-confirmable Constrained Application Protocol, NON, data packet, a sending time interval between two consecutive data packets in the N data packets is the time interval, and the NON data packet is a data packet indicating that the terminal device does not need to send a receiving response to the server, characterised in that: the last data packet in the N data packets is a confirmable Constrained Application Protocol, CON, data packet; and the method further comprises: sending, by the terminal device, a response message to the server after receiving the CON data packet, wherein the response message is used to notify the server that the terminal device is in a receiving state.
A lubricant vane pump for providing pressurized lubricant for an internal combustion engine, with a pump housing and a pump rotor, whereby the pump rotor is provided with radially slidable vanes rotating in a shiftable control ring which envelopes a pumping cavity with numerous rotating pumping chambers rotating from a charge zone to a discharge zone, a pretensioning element being provided in a spring chamber, the pretensioning element pushing the control ring to a high pumping volume direction, a control chamber, whereby lubricant pressure in the control chamber causes the control ring to be moved to a low pumping volume direction against the pretensioning element, and a pumping cavity outlet port, whereby the pumping cavity outlet port is connected to the control chamber, characterized in that a pressure equilibration channel is provided for draining the lubricant from the pumping chamber in the final discharge zone into the spring chamber.
An optical fiber comprising a chlorine-doped silica core region; and a fluorine-doped cladding region, CHARACTERIZED IN THAT the optical fiber further comprises a fluorine-doped annular stress-accommodation region disposed between the core region and the cladding region, the fluorine-doped annular stress-accommodation region including a concentration of a fluorine dopant such that the viscosity of the annular stress-accommodation region matches the viscosity of the core region, the cladding region having a fluorine dopant concentration greater than the annular stress accommodation region to provide confinement of the propagating optical signal to the combination of the core region and the annular stress-accommodation region.
Motor vehicle lighting module for generating at least one light beam along an optical axis (Ax), the lighting module comprising a body, at least one light source and at least one heatsink configured to dissipate heat generated by the light source, the heatsink comprising at least a base adapted to capture the heat generated by the light source and a dissipation member adapted to dissipate the heat captured by the base externally of the lighting module, the base having a first face facing toward the body of the lighting module and a second face opposite the first face and from which the dissipation member extends, the dissipation member comprising a series of fins projecting from the base, each fin being defined by a summit that extends at a distance from the base and that defines the length of that fin, and by two end edges extending between said summit and said base, said lighting module is configured to pivot about a first pivot axis (A 1) and about a second pivot axis (A 2), and the series of fins is configured to include eccentric fins the length of which is less than the length of the fins at the centre of the dissipation member, at least one fin further having at least one bevel at the junction between the summit and an end edge characterized in that the lengths of fins are such that the summits are disposed on or inside a circle the radius of which is substantially defined by the dimension between the summit of the central fin and a pivot axis, the fins being arranged inside this circle.