mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a solid component, in particular a solid cage for a roller bearing, the solid component defining a component axis of rotation and having a plurality of pockets, the pockets each having a first and a second pocket side (5a, b), comprising the steps: forming of a component blank in a rough machining step by means of a rough machining tool, the component blank forming a plurality of raw pockets; forming of the first pocket sides in the final contour by means of a tool blade, wherein, in a first cycloidal machining step, the tool blade is guided relative to the component blank rotating about the component rotation axis in a component rotation direction along a first cycloidal path for machining the rough pockets, wherein the first pocket sides are cut by means of the tool blade, and wherein a cutting angle of the tool blade is in the range of -15° to 0°; reversing of the component rotation direction of the component blank and rotating the component blank in a component counter-rotation direction; configuring of the second pocket sides in the final contour by means of a further tool blade, wherein the further tool blade, in a second cycloidal machining step, is guided relative to the component blank rotating about the component rotation axis in a component counter-rotation direction along a second cycloidal path for machining the rough pockets, wherein the second pocket sides are cut by means of the further tool blade, and/or wherein a cutting angle of the further tool blade is in the range of -15° to 0°. forming of a component blank in a rough machining step by means of a rough machining tool, the component blank forming a plurality of raw pockets; forming of the first pocket sides in the final contour by means of a tool blade, wherein, in a first cycloidal machining step, the tool blade is guided relative to the component blank rotating about the component rotation axis in a component rotation direction along a first cycloidal path for machining the rough pockets, wherein the first pocket sides are cut by means of the tool blade, and wherein a cutting angle of the tool blade is in the range of -15° to 0°; reversing of the component rotation direction of the component blank and rotating the component blank in a component counter-rotation direction; configuring of the second pocket sides in the final contour by means of a further tool blade, wherein the further tool blade, in a second cycloidal machining step, is guided relative to the component blank rotating about the component rotation axis in a component counter-rotation direction along a second cycloidal path for machining the rough pockets, wherein the second pocket sides are cut by means of the further tool blade, and/or wherein a cutting angle of the further tool blade is in the range of -15° to 0°.
A method for clearly marking an object, wherein a random distribution of individual pigment domains is applied to a surface of the object, and wherein a list of distances (ΔXY) of the individual pigment domains from each other is measured and stored in a database (DB1, DB2, DB3, DBj, DB765, DBk), with the following steps: - Recording an image of the pigment domains, - Identifying the two-dimensional coordinates (X, Y) of each of the pigment domains recorded in the image, - Determining the two-dimensional distances (ΔXY) of each pair of two pigment domains, and/or - Determining the angle (α) of each triple of pigment domains, - Storing the distances (ΔXY) and/or angles (α) determined beforehand in one of the steps in a list, - Storing the list in the database, characterized in that the list is enriched with meta information about the manufacturing and/or refining parameters of the object, as well as by - Applying a database identification as the information unit onto the surfaces of the object, wherein the information unit can clearly be allocated to the database. wherein a random distribution of individual pigment domains is applied to a surface of the object, and wherein a list of distances (ΔXY) of the individual pigment domains from each other is measured and stored in a database (DB1, DB2, DB3, DBj, DB765, DBk), with the following steps: - Recording an image of the pigment domains, - Identifying the two-dimensional coordinates (X, Y) of each of the pigment domains recorded in the image, - Determining the two-dimensional distances (ΔXY) of each pair of two pigment domains, and/or - Determining the angle (α) of each triple of pigment domains, - Storing the distances (ΔXY) and/or angles (α) determined beforehand in one of the steps in a list, - Storing the list in the database, - Recording an image of the pigment domains, - Identifying the two-dimensional coordinates (X, Y) of each of the pigment domains recorded in the image, - Determining the two-dimensional distances (ΔXY) of each pair of two pigment domains, and/or - Determining the angle (α) of each triple of pigment domains, - Storing the distances (ΔXY) and/or angles (α) determined beforehand in one of the steps in a list, - Storing the list in the database, characterized in that the list is enriched with meta information about the manufacturing and/or refining parameters of the object, as well as by - Applying a database identification as the information unit onto the surfaces of the object, wherein the information unit can clearly be allocated to the database. - Applying a database identification as the information unit onto the surfaces of the object, wherein the information unit can clearly be allocated to the database.
A steering assistance device, comprising: a steering assistance unit, which is capable of assisting steering of a vehicle (v) to make the vehicle travel in the center of a lane; a measurement unit, which measures an amount of lateral deviation of the vehicle (v) from the center of the lane; a control unit which, in a case where the measured amount of lateral deviation is within a predetermined range from a predetermined amount for a predetermined period of time, controls the amount of steering assistance by the steering assistance unit such that the vehicle (v) travels with deviation from the center of the lane by the predetermined amount; and a calculation unit, which calculates curvature of the lane; wherein the control unit makes the steering assistance unit to continue controlling the amount of steering assistance while the curvature is smaller than or equal to a predetermined value in a case where the amount of assistance is controlled by the steering assistance unit; and wherein the control unit stops the controlling of the amount of steering assistance based on the amount of lateral deviation in a case where the curvature of the lane is greater than the predetermined value. a steering assistance unit, which is capable of assisting steering of a vehicle (v) to make the vehicle travel in the center of a lane; a measurement unit, which measures an amount of lateral deviation of the vehicle (v) from the center of the lane; a control unit which, in a case where the measured amount of lateral deviation is within a predetermined range from a predetermined amount for a predetermined period of time, controls the amount of steering assistance by the steering assistance unit such that the vehicle (v) travels with deviation from the center of the lane by the predetermined amount; and a calculation unit, which calculates curvature of the lane; wherein the control unit makes the steering assistance unit to continue controlling the amount of steering assistance while the curvature is smaller than or equal to a predetermined value in a case where the amount of assistance is controlled by the steering assistance unit; and wherein the control unit stops the controlling of the amount of steering assistance based on the amount of lateral deviation in a case where the curvature of the lane is greater than the predetermined value.
A video processing apparatus, comprising: an input portion, which is configured to input a input video signal therein; and a video correcting portion, which is configured to correct said input video signal, wherein said video correcting portion is constructed to conduct a Retinex process and a resolution restoration process, for example a deconvolution process, by using a common circuit, characterized in that: said Retinex process is conducted based on the input video signal, a first filtered signal which is a filtered video signal of the input video signal by a first filter, and a second filtered signal which is a filtered video signal of the input video signal by a second filter, wherein the second filter has a larger scale than a scale of the first filter, and said resolution restoration process is conducted based on the input video signal, an output of said Retinex process, and one of the first filtered signal or the second filtered signal. an input portion, which is configured to input a input video signal therein; and a video correcting portion, which is configured to correct said input video signal, wherein said Retinex process is conducted based on the input video signal, a first filtered signal which is a filtered video signal of the input video signal by a first filter, and a second filtered signal which is a filtered video signal of the input video signal by a second filter, wherein the second filter has a larger scale than a scale of the first filter, and said resolution restoration process is conducted based on the input video signal, an output of said Retinex process, and one of the first filtered signal or the second filtered signal.
A multi-layer card comprising a polymeric inlay layer having a first surface and a second surface, further comprising a first multi-layer film which is disposed on the first surface of the polymeric inlay layer, and further comprising a first polymeric overlay layer which is disposed on said first multi-layer film, such that the layer order is polymeric inlay layer, first multi-layer film and first polymeric overlay layer, wherein said first multi-layer film comprises: (i) a polyester base layer comprising a crystallisable polyester (P B), and further comprising titanium dioxide in an amount of from about 1 to about 30 wt% by total weight of the base layer; (ii) a first heat-sealable copolyester layer disposed on a first surface of said polyester base layer; and (iii) optionally a second heat-sealable copolyester layer disposed on a second surface of said polyester base layer, wherein the copolyester (CP A) of each of the first and optional second heat-sealable copolyester layers is independently selected from amorphous copolyesters (ACP A) derived from an aliphatic diol and a cycloaliphatic diol and at least one aromatic dicarboxylic acid, and/or the polyester base layer further comprises a copolyester (CP B) in an amount of at least about 10% by weight based on the total weight of the base layer, wherein the copolyester (CP B) does not contain polyether segments. (i) a polyester base layer comprising a crystallisable polyester (P B), and further comprising titanium dioxide in an amount of from about 1 to about 30 wt% by total weight of the base layer; (ii) a first heat-sealable copolyester layer disposed on a first surface of said polyester base layer; and (iii) optionally a second heat-sealable copolyester layer disposed on a second surface of said polyester base layer, wherein the copolyester (CP A) of each of the first and optional second heat-sealable copolyester layers is independently selected from amorphous copolyesters (ACP A) derived from an aliphatic diol and a cycloaliphatic diol and at least one aromatic dicarboxylic acid, and/or the polyester base layer further comprises a copolyester (CP B) in an amount of at least about 10% by weight based on the total weight of the base layer, wherein the copolyester (CP B) does not contain polyether segments. wherein the copolyester (CP A) of each of the first and optional second heat-sealable copolyester layers is independently selected from amorphous copolyesters (ACP A) derived from an aliphatic diol and a cycloaliphatic diol and at least one aromatic dicarboxylic acid, and/or the polyester base layer further comprises a copolyester (CP B) in an amount of at least about 10% by weight based on the total weight of the base layer, wherein the copolyester (CP B) does not contain polyether segments.
Method for recovery of nitrogen oxides formed in an internal combustion engine, comprising the adsorption of nitrogen oxides (NO x) from an exhaust gas stream of the internal combustion engine in an adsorber unit, which contains an adsorber material comprising at least one zeolite, removing the adsorber unit loaded with nitrogen oxides (NO x) or the adsorber material from the adsorber unit, desorption of adsorbed nitrogen oxides (NO x) from the adsorber material, and converting the nitrogen oxides (NO x) to liquid or solid nitrogenous compounds.
A method of controlling a director switch of a voltage source converter wherein the director switch comprises a plurality of series connected director switch units each comprising a semiconductor switching element and an associated clamp capacitor connected across the semiconductor switching element, the method comprising: switching the semiconductor switching elements of the director switch units to transition the director switch between conducting and non-conducting states; wherein the timing of switching of a semiconductor switching element is based on the voltage level of the associated clamp capacitor and the degree of any voltage imbalance between the clamp capacitors of the director switch units; wherein the method further comprises turning-off the semiconductor switching elements of the director switch units to transition the director switch from a fully conducting state to a fully non-conducting state; characterized in that the director switch is connected in series in a converter arm with a chain-link circuit for voltage wave-shaping and the method comprises modulating a voltage generated by the chain-link circuit during the transition of the director switch from the fully conducting state to the fully non-conducting state; and in that the chain-link voltage is modulated to increase the rate of voltage increase across the director switch after a given semiconductor switching element has been turned off. switching the semiconductor switching elements of the director switch units to transition the director switch between conducting and non-conducting states; wherein the timing of switching of a semiconductor switching element is based on the voltage level of the associated clamp capacitor and the degree of any voltage imbalance between the clamp capacitors of the director switch units; wherein the method further comprises turning-off the semiconductor switching elements of the director switch units to transition the director switch from a fully conducting state to a fully non-conducting state; characterized in that the director switch is connected in series in a converter arm with a chain-link circuit for voltage wave-shaping and the method comprises modulating a voltage generated by the chain-link circuit during the transition of the director switch from the fully conducting state to the fully non-conducting state; and in that the chain-link voltage is modulated to increase the rate of voltage increase across the director switch after a given semiconductor switching element has been turned off. characterized in that the director switch is connected in series in a converter arm with a chain-link circuit for voltage wave-shaping and the method comprises modulating a voltage generated by the chain-link circuit during the transition of the director switch from the fully conducting state to the fully non-conducting state; and in that the chain-link voltage is modulated to increase the rate of voltage increase across the director switch after a given semiconductor switching element has been turned off.
Disc brake, preferably actuated by compressed air, in particular for a motor vehicle, having an application device preferably comprising a brake rotary lever, at least two spindle units (5, 5') each having a threaded bar (6, 6'), wherein the threaded bars (6, 6') are screwed into a cross-piece, wherein the said cross-piece co-operates with the application device, preferably with the brake rotary lever, and an adjustment device for the compensation of lining and disc wear and a synchronizing device for transmitting the rotation movement of the adjustment device to the threaded bars (6, 6') and/or for synchronizing the rotation movements of the threaded bars (6, 6'), wherein the synchronizing device is arranged on the cross-piece between the brake rotary lever and the cross-piece and coupling wheels (20, 20'a), of which in each case one is coupled in a rotationally fixed manner to the associated threaded bar (6, 6') of one of the at least two spindle units (5, 5'), and comprising synchronizing means, such that each coupling wheel (20, 20'a) has a synchronizing section (20b, 20'b) which co-operates with the synchronizing means, characterised in that at least one, two or more bearing block(s) (22, 22') is/are formed on the cross-piece and at least one of the bearing blocks (22, 22') has at least one lateral recess (22e, 22'e) for guiding or holding the synchronizing means.
A wound dressing (200, 300) having a lateral (x) and a longitudinal (y) extension; said dressing comprising: - a backing layer; - a wound pad (102, 302) contoured by a pair of lateral edges (103, 303) extending in parallel to each other in the longitudinal direction, and a pair of longitudinal edges (104, 304) extending in parallel to each other in the lateral direction; - an adhesive layer (105, 305) having a wound facing surface (106, 306) and a non-wound facing surface; said wound pad being arranged between said backing layer and said adhesive layer, wherein at least said backing layer extends beyond the periphery of said wound pad to define a border portion (107, 307, 323) along the contour of said wound pad; - a release liner (108, 211, 308) releasably attached to said wound facing surface of said adhesive layer; wherein said release liner is divided by a dividing line (109, 116, 309) extending in the lateral direction (x) of the dressing to form at least a first removable portion (110, 210, 310), and a second removable portion (111, 211, 311); said first and second removable portions overlapping along said dividing line to form a grip member (112, 118, 312, 318); wherein said dividing line extends across said wound pad and is provided at a distance of less than 15 mm from at least one of said longitudinal edges of said wound pad. - a backing layer; - a wound pad (102, 302) contoured by a pair of lateral edges (103, 303) extending in parallel to each other in the longitudinal direction, and a pair of longitudinal edges (104, 304) extending in parallel to each other in the lateral direction; - an adhesive layer (105, 305) having a wound facing surface (106, 306) and a non-wound facing surface; said wound pad being arranged between said backing layer and said adhesive layer, wherein at least said backing layer extends beyond the periphery of said wound pad to define a border portion (107, 307, 323) along the contour of said wound pad; - a release liner (108, 211, 308) releasably attached to said wound facing surface of said adhesive layer; wherein said release liner is divided by a dividing line (109, 116, 309) extending in the lateral direction (x) of the dressing to form at least a first removable portion (110, 210, 310), and a second removable portion (111, 211, 311); said first and second removable portions overlapping along said dividing line to form a grip member (112, 118, 312, 318); wherein said dividing line extends across said wound pad and is provided at a distance of less than 15 mm from at least one of said longitudinal edges of said wound pad.
A proximity map request method for a server, the method comprising: receiving a proximity map request message of a device to device, D2D, discovery to request a network level user identifier, ID, of a discoveree, wherein the proximity map request message comprises an application layer user ID of a discoverer and an application layer user ID of the discoveree; setting a notification flag according to the application layer user ID of the discoverer and the application layer user ID of the discoveree in response to receiving the proximity map request message; and transmitting a proximity map response message comprising the network level user ID of the discoveree and the notification flag in response to setting the notification flag, characterized in that said setting a notification flag according to the application layer user ID of the discoverer and the application layer user ID of the discoveree in response to receiving the proximity map request message further comprising: setting the notification flag to configure a response type of a proximity request validation of the D2D discovery. receiving a proximity map request message of a device to device, D2D, discovery to request a network level user identifier, ID, of a discoveree, wherein the proximity map request message comprises an application layer user ID of a discoverer and an application layer user ID of the discoveree; setting a notification flag according to the application layer user ID of the discoverer and the application layer user ID of the discoveree in response to receiving the proximity map request message; and transmitting a proximity map response message comprising the network level user ID of the discoveree and the notification flag in response to setting the notification flag, characterized in that said setting a notification flag according to the application layer user ID of the discoverer and the application layer user ID of the discoveree in response to receiving the proximity map request message further comprising: setting the notification flag to configure a response type of a proximity request validation of the D2D discovery. setting the notification flag to configure a response type of a proximity request validation of the D2D discovery.
A sample trituration vessel used for homogenization, said sample trituration vessel being adapted for use with a trituration rod, said sample trituration vessel comprising: a tubular body for holding a sample, said tubular body including an opening at one end of said tubular body and a bottom part at the other end of said tubular body; wherein said tubular body comprises a first rugged portion formed on an upper surface of the bottom part, a second rugged portion formed on the inside of said tubular body; and wherein said tubular body is formed of flexible material such that upon application of external force from outside to said tubular body holding a sample, said tubular body is deformed, thereby breaking down the sample held in said tubular body; wherein said first rugged portion is composed of a plurality of protrusions able to meet a first rugged portion formed on a trituration rod. a tubular body for holding a sample, said tubular body including an opening at one end of said tubular body and a bottom part at the other end of said tubular body; wherein said tubular body comprises a first rugged portion formed on an upper surface of the bottom part, a second rugged portion formed on the inside of said tubular body; and wherein said tubular body is formed of flexible material such that upon application of external force from outside to said tubular body holding a sample, said tubular body is deformed, thereby breaking down the sample held in said tubular body; wherein said first rugged portion is composed of a plurality of protrusions able to meet a first rugged portion formed on a trituration rod.