mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a decor panel, comprising the steps of: a) applying a decor layer to a carrier, b) where appropriate, applying an intermediate layer to the decor layer, c) applying a cover layer onto the decor layer or the intermediate layer, and d) structuring at least one layer to be structured, wherein the layer to be structured is selected from the decor layer, the intermediate layer, and the cover layer, wherein step d) includes the step of: d1) generating a laser beam; characterized in that step d) includes the steps of: d2) dividing the laser beam into a matrix of a plurality of sub-beams; d3) guiding the matrix of sub-beams into a modulator for selectively inactivating individual sub-beams; d4) guiding the matrix of sub-beams from the modulator into an optical scanner, wherein the matrix of sub-beams after the modulator includes all sub-beams guided into the modulator or a reduced number of sub-beams; and d5) guiding the matrix of sub-beams from the scanner onto the layer to be structured; wherein d6) the layer to be structured is negatively structured under the influence of the sub-beams to produce a three-dimensional structure. a) applying a decor layer to a carrier, b) where appropriate, applying an intermediate layer to the decor layer, c) applying a cover layer onto the decor layer or the intermediate layer, and d) structuring at least one layer to be structured, wherein the layer to be structured is selected from the decor layer, the intermediate layer, and the cover layer, d1) generating a laser beam; characterized in that step d) includes the steps of: d2) dividing the laser beam into a matrix of a plurality of sub-beams; d3) guiding the matrix of sub-beams into a modulator for selectively inactivating individual sub-beams; d4) guiding the matrix of sub-beams from the modulator into an optical scanner, wherein the matrix of sub-beams after the modulator includes all sub-beams guided into the modulator or a reduced number of sub-beams; and d5) guiding the matrix of sub-beams from the scanner onto the layer to be structured; wherein d6) the layer to be structured is negatively structured under the influence of the sub-beams to produce a three-dimensional structure. d2) dividing the laser beam into a matrix of a plurality of sub-beams; d3) guiding the matrix of sub-beams into a modulator for selectively inactivating individual sub-beams; d4) guiding the matrix of sub-beams from the modulator into an optical scanner, wherein the matrix of sub-beams after the modulator includes all sub-beams guided into the modulator or a reduced number of sub-beams; and d5) guiding the matrix of sub-beams from the scanner onto the layer to be structured; wherein d6) the layer to be structured is negatively structured under the influence of the sub-beams to produce a three-dimensional structure.
A vehicle comprising a prime mover, the prime mover including at least a first motor and a second motor; and a control system configured to enable selection of an operating mode from a first mode where the vehicle is powered by both motors (2, 3) and a second mode where the vehicle is powered only by the second motor, based on a required driving force, characterized in that: the vehicle control system is configured to start the first motor to shift the operating mode to the first mode when a threshold value of a required driving force under the second mode is exceeded; the threshold value is set less than a maximum driving force of which the second motor propelling the vehicle is capable of generating under the second mode; and in that following to the shift to the first mode, the vehicle control system is configured to operate the second motor at a driving force above said threshold value to compensate for a deficiency in the driving force resulting from a delay in augmentation of the driving force of the first motor. the vehicle control system is configured to start the first motor to shift the operating mode to the first mode when a threshold value of a required driving force under the second mode is exceeded; the threshold value is set less than a maximum driving force of which the second motor propelling the vehicle is capable of generating under the second mode; and in that following to the shift to the first mode, the vehicle control system is configured to operate the second motor at a driving force above said threshold value to compensate for a deficiency in the driving force resulting from a delay in augmentation of the driving force of the first motor.
A processing method for a service flow packet, comprising: receiving (S101, S201), by an access device, a service flow packet sent by a terminal; determining, by the access device according to a flow table and the received service flow packet, multiple function modules built in the access device for processing the service flow packet; determining, by the access device, a processing sequence of the multiple function modules according to the flow table and the received service flow packet; adding, by the access device, a route identifier of each of the multiple function modules into the service flow packet corresponding to the processing sequence; and sending, by the access device, the service flow packet to the first function module corresponding to the processing sequence; sending, by the access device, a service flow packet processed by the first function module to a next function module by using the first function module and according to a route identifier corresponding to the next function module indicated by the processing sequence, to further send a service flow packet processed by the next function module to a next function module by using the next function module and according to the processing sequence and the route identifier; obtaining (S104, S208), by the access device, the service flow packet processed by the multiple function modules; and sending (S105, S208), by the access device, the service flow packet processed by the multiple function modules to a target node. receiving (S101, S201), by an access device, a service flow packet sent by a terminal; determining, by the access device according to a flow table and the received service flow packet, multiple function modules built in the access device for processing the service flow packet; determining, by the access device, a processing sequence of the multiple function modules according to the flow table and the received service flow packet; adding, by the access device, a route identifier of each of the multiple function modules into the service flow packet corresponding to the processing sequence; and sending, by the access device, the service flow packet to the first function module corresponding to the processing sequence; sending, by the access device, a service flow packet processed by the first function module to a next function module by using the first function module and according to a route identifier corresponding to the next function module indicated by the processing sequence, to further send a service flow packet processed by the next function module to a next function module by using the next function module and according to the processing sequence and the route identifier; obtaining (S104, S208), by the access device, the service flow packet processed by the multiple function modules; and sending (S105, S208), by the access device, the service flow packet processed by the multiple function modules to a target node.
A bearing unit for a bearing assembly of a yawing system of a wind turbine, the wind turbine comprising a tower and a nacelle connected by the yawing system, wherein the yawing system comprises a gear ring comprising gear-toothed arrangement configured to interact with a gear wheel of a motor to allow orientation of the nacelle with respect to the tower, the bearing unit comprising: an adjuster element arranged to be moveably secured to the bearing assembly; a body element translatable relative to the adjuster element; a bearing element in contact with the body element, the bearing element comprising a bearing surface for contacting a surface (26, 28) of the gear ring during use; and, a biasing means positioned between the body element and the adjuster element for applying a tension force to the bearing unit to bias the bearing element into contact with the surface (26, 28) of the gear ring during use, wherein the adjuster element is configured to adjust the tension force applied to the bearing unit by controlling the translation of the body element, the bearing unit being configured such that respective surfaces (25, 21) of the adjuster element and the body element are visible during use, characterized in that the biasing means is configured to apply a predetermined tension force to the bearing unit when the bearing unit is installed in the bearing assembly prior to use, and wherein the bearing unit is configured such that the respective surfaces (25, 21) of the adjuster element and the body element are coplanar when the predetermined tension force is applied. an adjuster element arranged to be moveably secured to the bearing assembly; a body element translatable relative to the adjuster element; a bearing element in contact with the body element, the bearing element comprising a bearing surface for contacting a surface (26, 28) of the gear ring during use; and, a biasing means positioned between the body element and the adjuster element for applying a tension force to the bearing unit to bias the bearing element into contact with the surface (26, 28) of the gear ring during use, wherein the adjuster element is configured to adjust the tension force applied to the bearing unit by controlling the translation of the body element, the bearing unit being configured such that respective surfaces (25, 21) of the adjuster element and the body element are visible during use, characterized in that the biasing means is configured to apply a predetermined tension force to the bearing unit when the bearing unit is installed in the bearing assembly prior to use, and wherein the bearing unit is configured such that the respective surfaces (25, 21) of the adjuster element and the body element are coplanar when the predetermined tension force is applied.
An injection-moulded multilayer transparent plastic container having air and water barrier properties, and comprising at least three adjacent layers: a barrier layer being sandwiched between two polymeric layers (Lin, Lout), the barrier layer comprising a fluoropolymer, and wherein the apparent shear viscosity of the fluoropolymer in the barrier layer is lower than the apparent shear viscosity of the polymeric material in the adjacent polymeric layers (L in, L out) at least for some values of apparent shear rate lower than 5000 s - 1.
A light fixture (601, 701, 1001, 1201, 1301, 1401, 1501) comprising: - at least one light source (103, 1403) generating light; - a light collector (105, 1405) configured to collect at least a part of said light and to convert said light into a light beam (107, 1407) propagating a long an optical axis (109, 1409), where said light beam is concentrated at an optical gate (111, 1411) arranged along said optical axis; and - an optical assembly (113, 1413) comprising at least one optical front lens (115, 1415), said optical assembly is configured to project at least a part of said light beam along said optical axis; wherein said light fixture comprises a prism effect system (642, 742, 1042, 1217, 1317) arranged between said optical gate and said optical front lens, characterized in that said prism effect system comprises - a multi-faceted prism (643, 843, 943, 1043) and - a multi-regional color filter (644, 844, 944, 1044) comprising a plurality of color filter regions (846, 949, 950) having at least two different color filtering properties, wherein said multi-faceted prism and said multi-regional color filter are arranged adjacent each other. - at least one light source (103, 1403) generating light; - a light collector (105, 1405) configured to collect at least a part of said light and to convert said light into a light beam (107, 1407) propagating a long an optical axis (109, 1409), where said light beam is concentrated at an optical gate (111, 1411) arranged along said optical axis; and - an optical assembly (113, 1413) comprising at least one optical front lens (115, 1415), said optical assembly is configured to project at least a part of said light beam along said optical axis; - a multi-faceted prism (643, 843, 943, 1043) and - a multi-regional color filter (644, 844, 944, 1044) comprising a plurality of color filter regions (846, 949, 950) having at least two different color filtering properties,
Surface cleaning head for cleaning a surface, having a hood-shaped housing, which comprises a cleaning space that is surrounded by a peripheral wall and is open toward the bottom, in which cleaning space at least one cleaning nozzle (39, 40) is mounted on a spraying arm (37, 38) so as to be freely rotatable about an axis of rotation for applying cleaning liquid to the surface to be cleaned, wherein arranged on the peripheral wall is a splash protection device having a peripheral bristle strip and a flow resistance element extending over the periphery of the bristle strip abuts against the bristle strip, wherein a free rim region of the bristle strip projects in the direction toward the surface to be cleaned beyond the flow resistance element, wherein the flow resistance element is configured as a self-contained annular strip, which abuts against the outer side of the bristle strip, wherein the annular strip is elastically extensible and is made of a rubber-elastic material and is stretchable onto a rigid holding ring of the splash protection device and is removable as necessary from the holding ring on which the bristle strip is held, wherein the annular strip is configured in the manner of an elastically deformable sealing lip that abuts against the outer side of the bristle strip, wherein the annular strip together with the holding ring forms a positive connection on the outside, wherein the annular strip forms a U-shaped profile, characterized in that the U-shaped profile abuts with an upper leg against the top side of the holding ring and with a lower leg against the bottom side of the holding ring and completely surrounds the holding ring in the peripheral direction with a web that connects the upper leg to the lower leg in one piece, wherein the U-shaped profile is adjoined in the axial direction by a collar of the annular strip, which abuts against the outer side of the bristle strip and completely surrounds it in the peripheral direction, wherein the free rim region of the bristle strip projects beyond the lower end of the collar, such that the free rim region is not surrounded by the annular strip.
A vitreous silica crucible, including a cylindrical straight body portion, a corner portion formed at bottom end of the straight body portion, and a bottom portion connected with the straight body portion via the corner portion, the vitreous silica crucible comprising: a bubble-containing opaque layer constituting an outer layer of the crucible, and a bubble-free transparent layer constituting an inner layer of the crucible, a boundary surface between the opaque layer and the transparent layer of at least the straight body portion forming a periodic wave surface in at least one direction, characterized in that a change period of the wave surface is 20 mm or more and 100 mm or less. a bubble-containing opaque layer constituting an outer layer of the crucible, and a bubble-free transparent layer constituting an inner layer of the crucible, a boundary surface between the opaque layer and the transparent layer of at least the straight body portion forming a periodic wave surface in at least one direction, characterized in that a change period of the wave surface is 20 mm or more and 100 mm or less.
A data synchronization method for a distributed control system of a nuclear power plant, the method comprising: after failure recovery of any one of the control stations, locking an output of a faulted control station in the distributed control system of the nuclear power plant to enable the faulted control station to be in a bypass state, wherein the distributed control system of the nuclear power plant comprises a plurality of control stations configured for parallel redundancy; and the method being characterized in further comprising: comparing a variable of the faulted control station with a variable of a selected normally functioning control station to determine data to be synchronized (S 120); and establishing a data transmission channel with the faulted control station, and performing data synchronization on data to be synchronized based on the established data transmission channel (S 130); comparing the variable of the faulted control station with the variable of the selected normally functioning control station to determine data to be synchronized comprises: acquiring an online value of a first variable of at least one variable of the normally functioning control station and an online value of a second variable of a corresponding variable of the faulted control station; and determining the data to be synchronized by comparing the online value of a first variable of the each at least one variable of the normally functioning control station with the online value of a second variable of a corresponding variable of the faulted control station. comparing a variable of the faulted control station with a variable of a selected normally functioning control station to determine data to be synchronized (S 120); and establishing a data transmission channel with the faulted control station, and performing data synchronization on data to be synchronized based on the established data transmission channel (S 130); comparing the variable of the faulted control station with the variable of the selected normally functioning control station to determine data to be synchronized comprises: acquiring an online value of a first variable of at least one variable of the normally functioning control station and an online value of a second variable of a corresponding variable of the faulted control station; and determining the data to be synchronized by comparing the online value of a first variable of the each at least one variable of the normally functioning control station with the online value of a second variable of a corresponding variable of the faulted control station. acquiring an online value of a first variable of at least one variable of the normally functioning control station and an online value of a second variable of a corresponding variable of the faulted control station; and determining the data to be synchronized by comparing the online value of a first variable of the each at least one variable of the normally functioning control station with the online value of a second variable of a corresponding variable of the faulted control station.
Device for the production by machine of a three dimensional packaging product from a section of a single or multiple layer paper web reshaped in a predetermined manner, comprising a pre-shaping station which reshapes the paper web into a three-dimensional packaging product with at least one hollow crumple space extending in the direction of the web, and a separating station which adjoins the pre-shaping station in the direction of travel of the paper web and from the pre-shaped paper web cuts a paper web section to the required length of the packaging product characterised in that the separating station has a rotary cutter the blade of which is positioned at right angles to the direction of travel in which the paper web section leaves the pre-shaping station, wherein a rotational path of the blade is arranged in such a way that during rotation the blade crosses a travel path of the paper web section, wherein the rotary cutter is combined with a perforation and/or embossing station which carries out the same rotational movement as the blade and adjacent to the separation edge of the packaging product produces a perforation and/or embossing point through overlapping paper web section layers.
A method for use in a wireless transmit/receive unit, WTRU, the method comprising: generating a scheduling information message, wherein the scheduling information message includes buffer status information, the buffer status information indicates a total amount of data including an amount of data that is available for transmission in a segmentation entity of a medium access control, MAC, sub-layer for enhanced dedicated channel, MAC-i/is, and an amount of data available for transmission and retransmission in a radio link control, RLC, entity; and transmitting the scheduling information message to a Node B. generating a scheduling information message, wherein the scheduling information message includes buffer status information, the buffer status information indicates a total amount of data including an amount of data that is available for transmission in a segmentation entity of a medium access control, MAC, sub-layer for enhanced dedicated channel, MAC-i/is, and an amount of data available for transmission and retransmission in a radio link control, RLC, entity; and transmitting the scheduling information message to a Node B.
Electrical connection terminal comprising a holder and at least one clamping lever which is pivotably arranged on said holder and has at least one clamping unit for clamping at least one conductor between the clamping unit and a current bar, characterized in that a manual lever is provided, which is pivotably accommodated on the clamping lever, and that an auxiliary lever is provided, which pivotably connects the manual lever to the holder, in order to enable a dynamic transformation ratio in the closing operation and a high clamping force.
A method of manufacturing light guides, the method comprising: injecting a first polymer so as to cover four sides of each of a plurality of rectangular prism-shaped bars while the bars are disposed side-by-side in a vacuum injection tool; dicing through the first polymer in regions between adjacent ones of the bars wherein, after the dicing, at least a portion of the first polymer still covers each of the four sides of the bars; injecting a second polymer so as to cover the first polymer on the four sides of the bars; and dicing through the second polymer in regions between adjacent ones of the bars wherein, after dicing through the second polymer, at least a portion of the first polymer forms a first cladding on the four sides of the bars, and at least a portion of the second polymer forms a second cladding on the first cladding. injecting a first polymer so as to cover four sides of each of a plurality of rectangular prism-shaped bars while the bars are disposed side-by-side in a vacuum injection tool; dicing through the first polymer in regions between adjacent ones of the bars wherein, after the dicing, at least a portion of the first polymer still covers each of the four sides of the bars; injecting a second polymer so as to cover the first polymer on the four sides of the bars; and dicing through the second polymer in regions between adjacent ones of the bars wherein, after dicing through the second polymer, at least a portion of the first polymer forms a first cladding on the four sides of the bars, and at least a portion of the second polymer forms a second cladding on the first cladding.