mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a turbine blade holder for an internal flow rate determination device, the turbine blade holder comprising a base body with an influx channel formed in it and a sealing element, the method having at least the following steps: - making the base body; - making a three-dimensional model of a turbine blade, with a recess which has the negative geometry of the sealing element; - placing the three-dimensional model on the base body; - casting the sealing element on the base body in a cavity delimited by the contour of the recess and the base body around the influx channel; and - removing the three-dimensional model from the base body. - making the base body; - making a three-dimensional model of a turbine blade, with a recess which has the negative geometry of the sealing element; - placing the three-dimensional model on the base body; - casting the sealing element on the base body in a cavity delimited by the contour of the recess and the base body around the influx channel; and - removing the three-dimensional model from the base body.
A method for altering the melt characteristics of a polyester, the method comprising the step of melt mixing said polyester, with: - a tetracarboxylic dianhydride; - a cross-linker and chain extender comprising at least two groups being able to react with a carboxy group and a phenolic hydroxyl group; and - a poly functional compound comprising at least two groups selected from the group consisting of non-sterically hindered phenolic hydroxyl groups, wherein the term non-sterically hindered phenolic hydroxyl group refers to a phenolic hydroxyl group not being 2,6-disubstituted, the hydroxyl group being in position 1 of the benzene ring, with tert -butyl groups, and carboxy groups. - a tetracarboxylic dianhydride; - a cross-linker and chain extender comprising at least two groups being able to react with a carboxy group and a phenolic hydroxyl group; and - a poly functional compound comprising at least two groups selected from the group consisting of non-sterically hindered phenolic hydroxyl groups, wherein the term non-sterically hindered phenolic hydroxyl group refers to a phenolic hydroxyl group not being 2,6-disubstituted, the hydroxyl group being in position 1 of the benzene ring, with tert -butyl groups, and carboxy groups.
A decoating method for the edge decoating of glass sheets, the glass sheets having at least on one of their two glass surfaces (3a;b) a protective coating in the form of a peel-off protective film, and preferably having a functional coating situated thereunder, the protective film being partially mechanically removed, in particular ground away, for the edge decoating, in the form of at least one film strip, characterized in that before the mechanical removal of the film strip, laser traces (20a;b) are introduced into the protective film, the laser traces (20a;b) being introduced in such a way that the film strip is removed in the form of individual film strip partial pieces separated from one another by the laser traces. the protective film being partially mechanically removed, in particular ground away, for the edge decoating, in the form of at least one film strip, characterized in that before the mechanical removal of the film strip, laser traces (20a;b) are introduced into the protective film, the laser traces (20a;b) being introduced in such a way that the film strip is removed in the form of individual film strip partial pieces separated from one another by the laser traces.
A dynamically dampened centerless grinding machine tool comprising: - wheels (1, 2) between which there is arranged a part to be ground; - heads (5, 6) for carrying the wheels (1, 2); - at least one translation means (7, 8) for translating one of the heads (5, 6) to cause a movement according to a separation and approach direction of the wheels (1, 2); - detection means for detecting a vibration of at least one of the heads (5, 6) during machining; and - at least one damper configured for causing a vibration damping movement; characterized in that the at least one damper is arranged on an upper face (5.1, 6.1) of one of the heads (5, 6); the damper comprises a moving mass and an actuator configured for moving the moving mass in the separation and approach direction of the wheels (1, 2). - wheels (1, 2) between which there is arranged a part to be ground; - heads (5, 6) for carrying the wheels (1, 2); - at least one translation means (7, 8) for translating one of the heads (5, 6) to cause a movement according to a separation and approach direction of the wheels (1, 2); - detection means for detecting a vibration of at least one of the heads (5, 6) during machining; and - at least one damper configured for causing a vibration damping movement;
A clot retrieving device, comprising: an elongated shaft having a distal region; a capture structure having a proximal portion coupled to the distal region of the elongated shaft and a distal portion having a distal terminus; and a cover having a first portion coupled to the distal region of the elongated shaft and a second portion extending from the first portion, the cover having a first configuration in which the second portion of the cover extends proximally from the first portion, and the cover having a second configuration in which the capture structure is at least partially ensheathed within the first portion of the cover and the second portion of the cover extends distally from the first portion, and in the second configuration the second portion has (a) a first region distal to a distal terminus of the capture structure, the first region tapering radially inwardly in a distal direction, and (b) a second region extending distally and radially outwardly from the first region, wherein, in the second configuration, the second portion of the cover has a third region extending proximally from the second region, wherein, in the second configuration, the second portion of the cover has a fourth region that extends distally and radially outwardly from the third region, wherein the third region and the fourth region meet at a proximal folded edge. an elongated shaft having a distal region; a capture structure having a proximal portion coupled to the distal region of the elongated shaft and a distal portion having a distal terminus; and a cover having a first portion coupled to the distal region of the elongated shaft and a second portion extending from the first portion, the cover having a first configuration in which the second portion of the cover extends proximally from the first portion, and the cover having a second configuration in which the capture structure is at least partially ensheathed within the first portion of the cover and the second portion of the cover extends distally from the first portion, and in the second configuration the second portion has (a) a first region distal to a distal terminus of the capture structure, the first region tapering radially inwardly in a distal direction, and (b) a second region extending distally and radially outwardly from the first region, wherein, in the second configuration, the second portion of the cover has a third region extending proximally from the second region, wherein, in the second configuration, the second portion of the cover has a fourth region that extends distally and radially outwardly from the third region, wherein the third region and the fourth region meet at a proximal folded edge.
A method comprising: accepting new software for a controller of a wireless mesh network, the mesh network comprising a root access point and other mesh points, including one or more mesh access points, the root access point and the mesh points coupled by a wireless backhaul network, the root access point coupled to an active controller that controls the root access point and mesh access points, and to a standby controller capable of controlling the root access point and mesh access points; updating one of the controllers with the accepted software while the other controller controls the root access point and mesh access points; switching the root access points and the mesh access points of the mesh network to the updated controller; and updating the non-updated controller with the accepted software while the updated controller controls the root access point and mesh access points. accepting new software for a controller of a wireless mesh network, the mesh network comprising a root access point and other mesh points, including one or more mesh access points, the root access point and the mesh points coupled by a wireless backhaul network, the root access point coupled to an active controller that controls the root access point and mesh access points, and to a standby controller capable of controlling the root access point and mesh access points; updating one of the controllers with the accepted software while the other controller controls the root access point and mesh access points; switching the root access points and the mesh access points of the mesh network to the updated controller; and updating the non-updated controller with the accepted software while the updated controller controls the root access point and mesh access points.
An applicator for applying a fluid onto a material web, having at least two applicator rolls being driven in opposite directions and in the direction of web travel, the material web being guided between said rolls while the applicator is running, and having at least two drawing rolls, which are each assigned to an applicator roll and convey fluid, by way of rotation of their circumferential surface through a fluid bath, from the fluid bath onto a circumferential surface of the assigned applicator roll that is driven in the opposite direction of the drawing roll, wherein, for setting a contact force that acts between the applicator rolls and the material web, at least one applicator roll is equipped with a positioning unit (22, 23) which acts on an applicator roll axis, and which is equipped with a measuring unit for measuring the contact force, in such a manner that the positioning unit is actuated as a function of the measured contact force, characterised in that a first framework part and a second framework part each include one applicator roll having the assigned drawing roll, and in that the positioning unit (22, 23) includes an actuator for setting the contact force, which actuator acts on a framework part in such a manner that the relative position of the framework parts is changed.
A peripheral device for providing a representation of how to alter a setting affecting audio reproduction of an audio device (102; 402), the peripheral device comprising: a microphone (108; 408) arranged to register a representation of an audio signal (114; 414); a data processing unit (110; 422) arranged to process the registered representation of the audio signal into feedback image data being a representation of how to alter the setting affecting audio reproduction of the audio device; and a display (112; 412) arranged to display the feedback image data such that it is capturable by a camera (106; 406) of the audio device. a microphone (108; 408) arranged to register a representation of an audio signal (114; 414); a data processing unit (110; 422) arranged to process the registered representation of the audio signal into feedback image data being a representation of how to alter the setting affecting audio reproduction of the audio device; and a display (112; 412) arranged to display the feedback image data such that it is capturable by a camera (106; 406) of the audio device.
A clamping device for a crimping machine, with • a crimping tool head with an end face wall, in the direction of which a cable that is to be crimped can be fed along a cable path, • a crimping tool base body with an anvil and a front blade, • an insulation stripping device, • a contact element feed device, and • a coupling part for the coupling connection of the crimping machine with the crimping tool head, wherein the clamping device in the operating state clamps the electrical cable that is to be processed, both during the insulation stripping process and also during the crimping process, characterised in that, the clamping device is connected with the crimping tool head via its end face wall, and can be moved vertically with the crimping tool head, and in that the clamping device and/or the crimping tool head are arranged centrally in the longitudinal direction of the cable path above the anvil and the front blade. • a crimping tool head with an end face wall, in the direction of which a cable that is to be crimped can be fed along a cable path, • a crimping tool base body with an anvil and a front blade, • an insulation stripping device, • a contact element feed device, and • a coupling part for the coupling connection of the crimping machine with the crimping tool head, wherein
A heat exchanger comprising: an inlet manifold; an outlet manifold arranged generally parallel to the inlet manifold, the outlet manifold being separated from the inlet manifold by a distance; and a plurality of rows of microtubes aligned in substantially parallel relationship, the plurality of rows of microtubes being configured to fluidly couple the inlet manifold and the outlet manifold, wherein each of the plurality of rows includes a plurality of microtubes, wherein the at least one microtube includes a first flattened surface and a second flattened surface; wherein a gap exists between at least a portion of adjacent microtubes within a row; wherein a plurality of heat exchanger fins is configured to attach to at least one of the flattened surfaces of each of the plurality of microtubes within a row; and wherein a cross-sectional shape of the plurality of microtubes is generally rectangular having rounded corners to reduce the wake size behind each microtube; the heat exchanger being characterised in that the plurality of heat exchanger microtubes within each row are formed into groups, each group consisting of two or more integrally formed heat exchanger microtubes, with at least partial separation between the groups of microtubes; or a hollow interior of one or more of the microtubes is divided to form multiple parallel flow channels within a single microtube with at least partial separation between adjacent microtubes; wherein the at least partial separation is maintained over a width of the heat exchanger. an inlet manifold; an outlet manifold arranged generally parallel to the inlet manifold, the outlet manifold being separated from the inlet manifold by a distance; and a plurality of rows of microtubes aligned in substantially parallel relationship, the plurality of rows of microtubes being configured to fluidly couple the inlet manifold and the outlet manifold, wherein each of the plurality of rows includes a plurality of microtubes, wherein the at least one microtube includes a first flattened surface and a second flattened surface; wherein a gap exists between at least a portion of adjacent microtubes within a row; wherein a plurality of heat exchanger fins is configured to attach to at least one of the flattened surfaces of each of the plurality of microtubes within a row; and wherein a cross-sectional shape of the plurality of microtubes is generally rectangular having rounded corners to reduce the wake size behind each microtube; the heat exchanger being characterised in that the plurality of heat exchanger microtubes within each row are formed into groups, each group consisting of two or more integrally formed heat exchanger microtubes, with at least partial separation between the groups of microtubes; or a hollow interior of one or more of the microtubes is divided to form multiple parallel flow channels within a single microtube with at least partial separation between adjacent microtubes; wherein the at least partial separation is maintained over a width of the heat exchanger.
A computer-implemented method for instance storage using segment-based storage on a storage device, comprising: storing, in a live write stream cache, one or more logical blocks corresponding to a data segment, the live write stream cache including scattered logical blocks from the multiple applications; writing, for each logical block in the data segment, a cache element of a cache entry (210; 212; 214; 216) that points to the logical block in the live write stream cache, wherein the cache entry (210; 212; 214; 216) includes multiple cache elements corresponding to the multiple logical blocks of the data segment; writing, for the cache entry (210; 212; 214; 216), a table entry (202; 204; 206; 208) in a mapping table that points to the cache entry (210; 212; 214; 216); and wherein, when a storage policy is triggered for the cache entry (210; 212; 214; 216) in response to all of the multiple logical blocks of the data segment being received in the live write stream cache: writing the multiple logical blocks, pointed to by each cache element of the cache entry (210; 212; 214; 216), to a stream for storing as contiguous logical blocks on the storage device; and updating the table entry (202; 204; 206; 208) to point to a physical address of a first logical block of the contiguous logical blocks on the storage device. storing, in a live write stream cache, one or more logical blocks corresponding to a data segment, the live write stream cache including scattered logical blocks from the multiple applications; writing, for each logical block in the data segment, a cache element of a cache entry (210; 212; 214; 216) that points to the logical block in the live write stream cache, wherein the cache entry (210; 212; 214; 216) includes multiple cache elements corresponding to the multiple logical blocks of the data segment; writing, for the cache entry (210; 212; 214; 216), a table entry (202; 204; 206; 208) in a mapping table that points to the cache entry (210; 212; 214; 216); and wherein, when a storage policy is triggered for the cache entry (210; 212; 214; 216) in response to all of the multiple logical blocks of the data segment being received in the live write stream cache: writing the multiple logical blocks, pointed to by each cache element of the cache entry (210; 212; 214; 216), to a stream for storing as contiguous logical blocks on the storage device; and updating the table entry (202; 204; 206; 208) to point to a physical address of a first logical block of the contiguous logical blocks on the storage device. writing the multiple logical blocks, pointed to by each cache element of the cache entry (210; 212; 214; 216), to a stream for storing as contiguous logical blocks on the storage device; and updating the table entry (202; 204; 206; 208) to point to a physical address of a first logical block of the contiguous logical blocks on the storage device.
An insulation member for being arranged adjacent to a transformer coil, the insulation member comprising: a flat base comprising a first half and a second half defined along a symmetry plane, a plurality of discrete spacers (161, 162, 163, 164) projecting from the plane of the base, the spacers being attached to the first half and the second half for allowing a cooling fluid to circulate between the coil and the flat base, wherein the first half comprises at least four zones (110, 120, 130, 140), each zone having a plurality of spacers arranged according to a predetermined orientation with respect to an orientation axis on the plane of the flat base and perpendicular to the symmetry plane, wherein the orientation of spacers between adjacent zones is different, and wherein a first zone comprises a plurality of spacers at an angle of between 120 - 150 degrees with respect to the orientation axis, a second zone comprises a plurality of spacers oriented at an angle of between 80 - 100 degrees with respect to the orientation axis, a third zone comprises a plurality of spacers oriented at an angle of between 30 - 60 degrees with respect to the orientation axis and a fourth zone comprises a plurality of spacers oriented at an angle of between 120 - 150 degrees with respect to the orientation axis, characterized in that the first, second, third and fourth zones are arranged successively on the flat base from the symmetry plane to the orientation axis. a flat base comprising a first half and a second half defined along a symmetry plane, a plurality of discrete spacers (161, 162, 163, 164) projecting from the plane of the base, the spacers being attached to the first half and the second half for allowing a cooling fluid to circulate between the coil and the flat base, wherein the first half comprises at least four zones (110, 120, 130, 140), each zone having a plurality of spacers arranged according to a predetermined orientation with respect to an orientation axis on the plane of the flat base and perpendicular to the symmetry plane, wherein the orientation of spacers between adjacent zones is different, and wherein a first zone comprises a plurality of spacers at an angle of between 120 - 150 degrees with respect to the orientation axis, a second zone comprises a plurality of spacers oriented at an angle of between 80 - 100 degrees with respect to the orientation axis, a third zone comprises a plurality of spacers oriented at an angle of between 30 - 60 degrees with respect to the orientation axis and a fourth zone comprises a plurality of spacers oriented at an angle of between 120 - 150 degrees with respect to the orientation axis, characterized in that the first, second, third and fourth zones are arranged successively on the flat base from the symmetry plane to the orientation axis.
An output electrode plate for a battery module, wherein the output electrode plate comprises a first metal plate; the first metal plate includes a first region and a second region that are successively distributed in a first direction, and the first direction is a width direction of the output electrode plate; the first region includes a first overcurrent portion and a second overcurrent portion, the first overcurrent portion and the second overcurrent portion are successively distributed in a second direction and are connected with each other, wherein the second direction intersects with the first direction, and the second region is connected to the first region through the first overcurrent portion; wherein the first overcurrent portion is provided with a through hole which extends in a thickness direction thereof, a projection of the through hole along the first direction falls within the second region, and the through hole enables the first metal plate to have a minimum overcurrent section passing through the through hole; wherein an intersection line where the minimum overcurrent section intersects with an upper surface of the first region in the thickness direction is a first connection line, and an orthographic projection on the upper surface of a connection surface where the first overcurrent portion connects to the second overcurrent portion is a second connection line, wherein the second connection line intersects with the first connection line; wherein an angle M is formed by the first connection line and the second connection line, wherein 0° < M < 45°; wherein the second region is connected to an electrode lead of a single cell; and wherein an extending length of the second region in the second direction is smaller than an extending length of the first region in the second direction.