mhurhangee/ep-ind-claims huggingface dataset:
A lubrication structure comprising: a liquid drop splashing device configured to turn a lubricating liquid for lubricating machine-element components into liquid drops (Ldl, Ld2), the machine-element components being included in a bearing or being gears, the liquid drop splashing device being configured to splash the lubricating liquid turned into the liquid drops (Ldl, Ld2), the machine-element components (20, 22, 24, 26) providing contact parts, each contact part being a part where corresponding adjacent machine-element components (20, 22, 24, 26) come into contact with each other; the lubrication structure being characterized in that it further comprises an electret portion provided to a vicinity of each contact part, the electret portion comprising an electret, wherein the electret portion is an electretized film body, the electretized film body being is formed by generating electric polarization so as to bring an isolator into a state of retaining an electric charge in the vicinity of the surface thereof the electret portion of the machine-element components being configured so as to attract the liquid drops (Ldl, Ld2) so that the lubricating liquid moves toward the contact parts of the machine-element components. a liquid drop splashing device configured to turn a lubricating liquid for lubricating machine-element components into liquid drops (Ldl, Ld2), the machine-element components being included in a bearing or being gears, the liquid drop splashing device being configured to splash the lubricating liquid turned into the liquid drops (Ldl, Ld2), the machine-element components (20, 22, 24, 26) providing contact parts, each contact part being a part where corresponding adjacent machine-element components (20, 22, 24, 26) come into contact with each other; the liquid drop splashing device being configured to splash the lubricating liquid turned into the liquid drops (Ldl, Ld2), the machine-element components (20, 22, 24, 26) providing contact parts, each contact part being a part where corresponding adjacent machine-element components (20, 22, 24, 26) come into contact with each other; the lubrication structure being characterized in that it further comprises an electret portion provided to a vicinity of each contact part, the electret portion comprising an electret, wherein the electret portion is an electretized film body, the electretized film body being is formed by generating electric polarization so as to bring an isolator into a state of retaining an electric charge in the vicinity of the surface thereof the electret portion of the machine-element components being configured so as to attract the liquid drops (Ldl, Ld2) so that the lubricating liquid moves toward the contact parts of the machine-element components.
An insulated conductor comprising an elongate conductor provided with an insulating layer which comprises a polymeric material, wherein said polymeric material has a crystallinity of at least 25% as measured as described in Example 4, wherein said polymeric material includes a repeat unit of general formula wherein t1 and w1 independently represent 0 or 1 and v1 represents 0, 1 or 2; wherein said insulating layer has a thickness in the range 2μm - 300μm; wherein said crystallinity of said polymeric material is at least 25% and less than 40% across substantially the entire extent of said insulating layer, wherein the crystallinity across the extent of said insulating layer varies by less than 10%, and wherein the said insulating layer directly contacts said elongate conductor.
A method, comprising: obtaining, for at least one video block, syntax information indicative of use of an implicit multiple transform selection mode; obtaining a first indication of a low frequency non-separable transform mode and/or a second indication of a matrix-based intra prediction mode; encoding the at least one video block in a bitstream using at least one transform of the multiple transform selection mode, wherein the at least one transform is selected based on the first indication and/or the second indication; and storing, conveying, or transmitting the bitstream comprising the encoded at least one video block. obtaining, for at least one video block, syntax information indicative of use of an implicit multiple transform selection mode; obtaining a first indication of a low frequency non-separable transform mode and/or a second indication of a matrix-based intra prediction mode; encoding the at least one video block in a bitstream using at least one transform of the multiple transform selection mode, wherein the at least one transform is selected based on the first indication and/or the second indication; and storing, conveying, or transmitting the bitstream comprising the encoded at least one video block.
A method of depositing a sample of a biological fluid on a surface and reading the results of a reaction between the biological fluid and reagents on the surface, wherein said surface has an area containing reagents for reacting with an analyte in said biological fluid, said method comprising: (a) placing said biological fluid in a reservoir in liquid communication with a nozzle; (b) dispensing said biological fluid from said nozzle in droplets having diameters in the range of 0.1 to 2 mm onto said reagents-containing area, wherein said nozzle is disposed 1-5 mm from said reagents-containing area and thereby covering said reagents-containing area with a uniform layer of liquid; (c) reading the results of the reaction between said biological fluid and said reagents from a spectrographic image of the reagents-containing area. (a) placing said biological fluid in a reservoir in liquid communication with a nozzle; (b) dispensing said biological fluid from said nozzle in droplets having diameters in the range of 0.1 to 2 mm onto said reagents-containing area, wherein said nozzle is disposed 1-5 mm from said reagents-containing area and thereby covering said reagents-containing area with a uniform layer of liquid; (c) reading the results of the reaction between said biological fluid and said reagents from a spectrographic image of the reagents-containing area.
Mobile telecommunications apparatus comprising a transceiver for wireless communication with a telecommunications network, rendering means (10,20) operable to render concurrently data content corresponding to a plurality of services, and a receiver (9 1) to receive at least one of the services when broadcast thereto to be rendered, the rendering means including a display device with a display area operable to provide a visual display corresponding to the content of at least one of the services, wherein the display device is operable in a first mode in which content corresponding to one of the services is displayed for normal viewing, and a second mode in which content corresponding to more than one of the services is displayed, wherein the display device is operable in the second mode to display the content of the services in a contiguous mosaic of image tiles (T1-T4) corresponding to the content of the services, and the apparatus is configured to enable a user to change, within the second mode, the size of a selected one of the image tiles, and wherein in response to the change, non-selected image tiles (T1, T3, T4) are commensurately changed in size to remain contiguous with the selected one of the image tiles.
A transparent display device comprising: a substrate provided with a display area, in which a plurality of subpixels (P1, P2, P3) are disposed, and a non-display area adjacent to the display area; a pad (VSSP) provided in the non-display area on the substrate; a first line disposed between the pad (VSSP) and the display area and extending in a first direction; a second line disposed between the first line and the display area and extending in the first direction; a first connection electrode disposed below the first line and provided between the second line and the substrate; and a second connection electrode disposed over the first line and provided over the second line, wherein the first connection electrode and the second connection electrode respectively electrically connect the pad (VSSP) with the second line, wherein the first connection electrode and the second connection electrode are disposed in different layers. a substrate provided with a display area, in which a plurality of subpixels (P1, P2, P3) are disposed, and a non-display area adjacent to the display area; a pad (VSSP) provided in the non-display area on the substrate; a first line disposed between the pad (VSSP) and the display area and extending in a first direction; a second line disposed between the first line and the display area and extending in the first direction; a first connection electrode disposed below the first line and provided between the second line and the substrate; and a second connection electrode disposed over the first line and provided over the second line, wherein the first connection electrode and the second connection electrode respectively electrically connect the pad (VSSP) with the second line, wherein the first connection electrode and the second connection electrode are disposed in different layers.
A coupling assembly comprising a coupling, a protective ring and two tubulars (209,210), the coupling of generally cylindrical shape with a channel therethrough, the coupling having at least one internal thread (221, 221a, 302) and two coupling ends and a pin end (213, 214) of at least one of the two tubulars (209, 210) having an external thread (220, 220a) for threaded mating therewith so that the coupling assembly provides a connection between said two tubulars (209, 210), the protective ring comprising a ring body for positioning adjacent an interior wall of said coupling between the two ends thereof, said ring body being generally cylindrical and having a ring channel therethrough, wherein said protective ring comprises a tongue (203, 204) and an end of at least one of the two tubulars (209, 210) has a groove (205, 206), the tongue (203, 204) being slotted into the groove (205, 206) and slideably disposed in the groove (205, 206).
A separating rotor for a combine harvester comprising a rotor core, a plurality of crop engaging elements each having a finger support and a planar finger element attached to the finger support, the finger support comprising a pair of feet (52,54) connected together by a finger attachment plate, the finger element being attached to the finger attachment plate, wherein each foot is secured to the rotor core along a respective base edge (52a,54a) which resides on both sides of an extended plane defined by the associated finger element.
Multilayer element (1, 1') comprising a first transparent surface electrode, a functional layer and a planar rear electrode, the first transparent surface electrode projecting laterally beyond the functional layer and the rear electrode and, in a region projecting laterally beyond the rear electrode, being provided with a connection element for feeding in voltage, wherein a second transparent surface electrode, which projects laterally beyond the rear electrode and which is connected by means of a transparent dielectric adhesive layer firstly to the rear electrode and, in a region projecting beyond the rear electrode, secondly to the first transparent surface electrode, a contact element (22, 22', 22") that penetrates through the dielectric transparent adhesive layer being arranged between the rear electrode and the second transparent surface electrode, said contact element connecting the rear electrode and the second transparent surface electrode to one another at least indirectly characterized in that there are situated on both sides of the transparent dielectric adhesive layer in each case firstly a rear electrode and then a functional layer and, adjoining the latter, a first or second transparent surface electrode (3, 8), the contact element electrically connecting the two rear electrodes to one another.
A method of locating within an image of an eye an outline of an anatomical optic structure, said anatomical optic structure being the optic disc of the eye or the optic cup of the eye, the method comprising: (i) dividing a portion of the image of the eye into a plurality of sub-regions, each sub-region being a respective set of a plurality of pixels of the portion of the image; (ii) subjecting the portion of the image to respective processing operations, to generate a plurality of feature maps; (iii) for each sub-region, deriving a plurality of numerical measures using the feature maps; (iv) using the plurality of numerical measures and an adaptive model, to produce data indicative of which of the sub-regions of the image are respectively part of, or not part of, said optic structure; and (v) performing at least one smoothing step of the indicative data produced in the previous step to obtain the outline of said optic structure using the data, said at least one smoothing step comprising an ellipse-fitting sub-step; wherein the method further includes a step of generating an estimate of the reliability of the identification of the location of the optic structure, by measuring a difference between successive estimates of the position of the optic structure before and after the ellipse-fitting sub-step during said at least one smoothing step. (i) dividing a portion of the image of the eye into a plurality of sub-regions, each sub-region being a respective set of a plurality of pixels of the portion of the image; (ii) subjecting the portion of the image to respective processing operations, to generate a plurality of feature maps; (iii) for each sub-region, deriving a plurality of numerical measures using the feature maps; (iv) using the plurality of numerical measures and an adaptive model, to produce data indicative of which of the sub-regions of the image are respectively part of, or not part of, said optic structure; and (v) performing at least one smoothing step of the indicative data produced in the previous step to obtain the outline of said optic structure using the data, said at least one smoothing step comprising an ellipse-fitting sub-step;
A data analysis device, wherein the data analysis device comprises: a communications interface, configured to establish a communication connection to another data analysis device; and a processor, configured to: train a plurality of learning models based on a plurality of combinatorial learning algorithms, generate an installation message used to indicate to install the plurality of learning models, and send the installation message to the another data analysis device through the communications interface, wherein the plurality of learning models comprise a primary model and a secondary model, and the installation message comprises description information of the primary model, description information of the secondary model, and voting decision-making information of voting on prediction results of the plurality of learning models; wherein the voting decision-making information comprises averaging method voting decision-making information, and the averaging method voting decision-making information comprises simple averaging voting decision-making information or weighted averaging decision-making information; or the voting decision-making information comprises vote quantity-based decision-making information, and the vote quantity-based decision-making information comprises majority voting decision-making information, plurality voting decision-making information, or weighted voting decision-making information. a communications interface, configured to establish a communication connection to another data analysis device; and a processor, configured to: train a plurality of learning models based on a plurality of combinatorial learning algorithms, generate an installation message used to indicate to install the plurality of learning models, and send the installation message to the another data analysis device through the communications interface, wherein the plurality of learning models comprise a primary model and a secondary model, and the installation message comprises description information of the primary model, description information of the secondary model, and voting decision-making information of voting on prediction results of the plurality of learning models; wherein the voting decision-making information comprises averaging method voting decision-making information, and the averaging method voting decision-making information comprises simple averaging voting decision-making information or weighted averaging decision-making information; or the voting decision-making information comprises vote quantity-based decision-making information, and the vote quantity-based decision-making information comprises majority voting decision-making information, plurality voting decision-making information, or weighted voting decision-making information.
A gas discharge tube device comprising: an insulator layer having upper and lower sides and a polygon shape with a plurality of edges, the insulator layer including a score feature, resulting from separation from another insulator layer, along at least one of the edges, the insulator layer including an opening formed therethrough, the insulator layer having a substantially uniform thickness between the upper and lower sides; and first and second electrodes (222a, 222b) disposed on the upper and lower sides of the insulator layer, respectively, so as to cover the opening to thereby define an enclosed gas volume, each of the first and second electrodes including an inner centre surface such that the enclosed gas volume includes a cylindrical shaped volume defined by the opening and the inner centre surfaces of the first and second electrodes, each of the first and second electrodes further including an inner recessed portion (228a, 228b) on an inner surface around the inner centre surface configured to allow a correspondingly opposed portion of a surface on the corresponding upper or lower side of the insulator layer to be exposed to the cylindrical shaped volume. an insulator layer having upper and lower sides and a polygon shape with a plurality of edges, the insulator layer including a score feature, resulting from separation from another insulator layer, along at least one of the edges, the insulator layer including an opening formed therethrough, the insulator layer having a substantially uniform thickness between the upper and lower sides; and first and second electrodes (222a, 222b) disposed on the upper and lower sides of the insulator layer, respectively, so as to cover the opening to thereby define an enclosed gas volume, each of the first and second electrodes including an inner centre surface such that the enclosed gas volume includes a cylindrical shaped volume defined by the opening and the inner centre surfaces of the first and second electrodes, each of the first and second electrodes further including an inner recessed portion (228a, 228b) on an inner surface around the inner centre surface configured to allow a correspondingly opposed portion of a surface on the corresponding upper or lower side of the insulator layer to be exposed to the cylindrical shaped volume.
Apparatus for dewatering having one or more pumps which are arranged in a collecting vessel, with a pressure pipe which is connected to each pump, and a coupling device for the pressure pipe, the pressure pipe having a hook-in apparatus at its end which is remote from the pump and therefore being coupled releasably in an operative connection to a check valve fitting, a supporting apparatus for absorbing and dissipating the forces of the parts which are fastened thereto being arranged in the collecting vessel, characterized in that the supporting apparatus is configured as a crossmember with at least one flow path which is arranged therein, in that its at least one inlet opening is connected to the pressure pipe, and in that its at least one outlet opening is connected to a fitting.
Relay magnetic drive comprising a pole-reversible solenoid with a magnetic circuit, at the two yoke legs of which an armature having a permanent magnet is pivotably mounted between two end positions, wherein the permanent magnet is arranged between two armature plates of the armature, wherein each of the plate ends of the armature plates, which project beyond the permanent magnet, abuts one of the two yoke legs in the two end positions of the armature, wherein the plate ends of the armature plates taper towards their respective end face, characterized in that for bundling the magnetic field lines, the plate ends of the armature plates each of which abuts one of the two yoke legs in the two end positions of the armature taper towards their longitudinal center plane.
A management system for an access of an electronic device to a host, comprising: a docking station device, comprising: an interface, configured to receive a signal of the electronic device; a hub controller, coupled to the interface and the host; a control circuit, coupled to the hub controller and configured to identify the type of the electronic device so as to generate type data; and an Internet-of-Thing transceiver circuit, coupled to the control circuit; and a backend server, communicatively connected to the Internet-of-Thing transceiver circuit and configured to determine whether the electronic device has the permission to access the host according to the type data received, through the Internet-of-Thing transceiver circuit, from the docking station device, characterized in that: the hub controller determines whether the electronic device has high or low transmission speed based on the signal of the electronic device received from the interface; and the hub controller determines whether or not the electronic device may access the host immediately based on a determination result of the electronic device having high transmission speed or low transmission speed. a docking station device, comprising: an interface, configured to receive a signal of the electronic device; a hub controller, coupled to the interface and the host; a control circuit, coupled to the hub controller and configured to identify the type of the electronic device so as to generate type data; and an Internet-of-Thing transceiver circuit, coupled to the control circuit; and a backend server, communicatively connected to the Internet-of-Thing transceiver circuit and configured to determine whether the electronic device has the permission to access the host according to the type data received, through the Internet-of-Thing transceiver circuit, from the docking station device, characterized in that: an interface, configured to receive a signal of the electronic device; a hub controller, coupled to the interface and the host; a control circuit, coupled to the hub controller and configured to identify the type of the electronic device so as to generate type data; and an Internet-of-Thing transceiver circuit, coupled to the control circuit; and a backend server, communicatively connected to the Internet-of-Thing transceiver circuit and configured to determine whether the electronic device has the permission to access the host according to the type data received, through the Internet-of-Thing transceiver circuit, from the docking station device, characterized in that: the hub controller determines whether the electronic device has high or low transmission speed based on the signal of the electronic device received from the interface; and the hub controller determines whether or not the electronic device may access the host immediately based on a determination result of the electronic device having high transmission speed or low transmission speed.