mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for providing streaming media from an origin server to a client, the method comprising: receiving, at the server, a manifest request from the client; building (420, 535), at the server, a client manifest to satisfy the client request, the client manifest being based on media fragments and encoder information the server has received, the client manifest comprising information on the encodings of an event available for streaming from the server and information regarding media fragments related to the event that have been received at the server at the time the manifest request is received; providing (430, 540), from the server, the built client manifest to the client in response to the manifest request; receiving (440, 545), at the server, a fragment request from the client that identifies a particular media fragment; building, at the server, an incremental manifest by retrieving manifest information that describes the requested media fragment, the incremental manifest further including information about one or more media fragments subsequent to the requested media fragment that have been received at the server at the time the fragment request is received; sending (460, 550), from the server, a response to the client fragment request that includes the requested media fragment and the built incremental manifest; wherein the preceding steps are performed by at least one processor and without storing state information regarding the client, the server being adapted to provide media fragments to multiple clients without storing state information regarding any of the clients. receiving, at the server, a manifest request from the client; building (420, 535), at the server, a client manifest to satisfy the client request, the client manifest being based on media fragments and encoder information the server has received, the client manifest comprising information on the encodings of an event available for streaming from the server and information regarding media fragments related to the event that have been received at the server at the time the manifest request is received; providing (430, 540), from the server, the built client manifest to the client in response to the manifest request; receiving (440, 545), at the server, a fragment request from the client that identifies a particular media fragment; building, at the server, an incremental manifest by retrieving manifest information that describes the requested media fragment, the incremental manifest further including information about one or more media fragments subsequent to the requested media fragment that have been received at the server at the time the fragment request is received; sending (460, 550), from the server, a response to the client fragment request that includes the requested media fragment and the built incremental manifest; wherein the preceding steps are performed by at least one processor and without storing state information regarding the client, the server being adapted to provide media fragments to multiple clients without storing state information regarding any of the clients.
A processing method for cutting the pad slide surfaces (40a, 40b) of the brake rotor of a brake rotor-equipped wheel bearing device which comprises an outer member having a car body attaching flange in the outer periphery and two rows of raceways in the inner periphery, an inner member consisting of a hub ring having a wheel attaching flange in the outer periphery and an inner ring disposed in the small diameter section of the hub ring and abutting against an inner ring abutment surface of the hub ring, the inner member having raceways (32, 34) in the outer periphery of the hub ring and the inner ring corresponding to the raceways of the outer member, two rows of rolling elements interposed between the raceways (14, 32, 34) of the outer and inner members (10, 20) for relatively rotatably supporting the two members (10, 20), and a brake rotor fixed to the wheel attaching flange of the hub ring, said processing method being characterised in that it comprises the steps of lathing, with the hub ring present singly, the wheel pilot end surface of the hub ring with the reference provided by the inner ring abutment surface of the hub ring, assembling the outer and inner members (10, 20) and the rolling elements together, fixing the brake rotor to the hub ring of the inner member, and lathing the pad slide surfaces (40a, 40b) (40a, 40b) of the brake rotor with the reference provided by the wheel pilot end surface of the hub ring, wherein the brake rotor-equipped wheel bearing device is held by a chuck device and wherein the chuck device is abutted against a wheel pilot end surface of the hub ring.
Conveying installation having a conveying belt comprising at least one side wall constructed from in each case one polymeric material with elastic properties, and/or at least one cleat constructed from in each case one polymeric material with elastic properties, and also, furthermore, having drums, carrying rollers and having carrying structures, the conveying installation forming a materials-conveying upper strand with a charging location for the conveyed materials, and a usually materials-free lower strand, where the polymeric material of the conveying belt and the polymeric material of the side wall and/or of the cleat in each case comprise at least one EPR rubber, and in that the side wall and/or the cleat is joined to the conveying belt via an adhesion layer, characterized in that the adhesion layer comprises at least one EPR rubber, and the cleat takes the geometric form of a standard T cleat, block T cleat, inclined C cleat, offset TC cleat or of a wedge guide strip.
A method for automatically classifying scanned hardcopy media, comprising: scanning a piece of hardcopy media using a digital image capture device to provide a scanned digital image having a plurality of image pixels having pixel values; determining a physical size of the piece of hardcopy media; receiving a common photo sizes database specifying common physical sizes for photographs; receiving a common document sizes database specifying common physical sizes for documents; classifying the scanned piece of hardcopy media as a photograph if the determined physical size matches one of the common physical sizes for photographs to within a predetermined tolerance; classifying the scanned piece of hardcopy media as a document if the determined physical size matches one of the common physical sizes for documents to within a predetermined tolerance; wherein if the determined physical size does not match any of the common physical sizes for photographs and any of the common physical sizes for documents to within a predetermined tolerance: using a data processor to analyze the scanned digital image to detect the presence of any alphanumeric characters present in the piece of hardcopy media; classifying the scanned piece of hardcopy media as a document if the detected alphanumeric characters satisfy a predefined criterion; and storing an indication of the determined classification in a processor-accessible memory. scanning a piece of hardcopy media using a digital image capture device to provide a scanned digital image having a plurality of image pixels having pixel values; determining a physical size of the piece of hardcopy media; receiving a common photo sizes database specifying common physical sizes for photographs; receiving a common document sizes database specifying common physical sizes for documents; classifying the scanned piece of hardcopy media as a photograph if the determined physical size matches one of the common physical sizes for photographs to within a predetermined tolerance; classifying the scanned piece of hardcopy media as a document if the determined physical size matches one of the common physical sizes for documents to within a predetermined tolerance; wherein if the determined physical size does not match any of the common physical sizes for photographs and any of the common physical sizes for documents to within a predetermined tolerance: using a data processor to analyze the scanned digital image to detect the presence of any alphanumeric characters present in the piece of hardcopy media; classifying the scanned piece of hardcopy media as a document if the detected alphanumeric characters satisfy a predefined criterion; and storing an indication of the determined classification in a processor-accessible memory. using a data processor to analyze the scanned digital image to detect the presence of any alphanumeric characters present in the piece of hardcopy media; classifying the scanned piece of hardcopy media as a document if the detected alphanumeric characters satisfy a predefined criterion; and storing an indication of the determined classification in a processor-accessible memory.
A method for a first storage device to backup data to a second storage device, comprising: obtaining, by a processor of the first storage device, new data included in a plurality of write data requests according to a first number from a cache of the first storage device, wherein the first number corresponds to a current replication task, wherein each of the write data requests is attached to the first number; identifying, by the processor, a second number, wherein the second number is associated with a previous replication task up to which data of write data requests received by the first storage device have been duplicated to the second storage device; obtaining, by the processor, from the cache old data of write data requests stored in the cache that is received after the previous replication task corresponding to the second number; and sending, by the processor, the new data and the old data to a second storage device. obtaining, by a processor of the first storage device, new data included in a plurality of write data requests according to a first number from a cache of the first storage device, wherein the first number corresponds to a current replication task, wherein each of the write data requests is attached to the first number; identifying, by the processor, a second number, wherein the second number is associated with a previous replication task up to which data of write data requests received by the first storage device have been duplicated to the second storage device; obtaining, by the processor, from the cache old data of write data requests stored in the cache that is received after the previous replication task corresponding to the second number; and sending, by the processor, the new data and the old data to a second storage device.
A composition comprising a neem extract or biomass comprising azadirachtin, preferably azadirachtin A and azadirachtin B, and a water-soluble organosilicone surfactant in an amount effective to fully dissolve the azadirachtin, wherein at least 90% of the azadirachtin remains present after an accelerated aging test of 14 days at 54°C in a sealed container, and wherein the composition is a non-aqueous, liquid concentrate.
A method for establishing and maintaining a security policy for a device (50, 104, 300), the method comprising: establishing a secure channel between a secure execution environment, SEE (70, 102), operating on the device (50, 104, 300) and a security entity external to the device (50, 104, 300); configuring, by a security manager executing on the SEE (70, 102), access to sensitive operations of an environment interactor (60, 62, 114, 314, 316) coupled to the device (50, 104, 300) based on a security policy provided from the security entity; resetting, by the security manager, a secure watchdog timer in response to a reset authorization token provided from the secure entity; wherein the SSE (70, 102) stores and applies the security policy whereby, if the secure watchdog timer expires a given predetermined number of times since a last reset authorization token is received, the security manager executes a given prescriptive operation dictated by the security policy, and, if the secure watchdog timer expires another predetermined number of times since the last reset authorization token is received, the security manager executes another prescriptive operation dictated by the security policy. establishing a secure channel between a secure execution environment, SEE (70, 102), operating on the device (50, 104, 300) and a security entity external to the device (50, 104, 300); configuring, by a security manager executing on the SEE (70, 102), access to sensitive operations of an environment interactor (60, 62, 114, 314, 316) coupled to the device (50, 104, 300) based on a security policy provided from the security entity; resetting, by the security manager, a secure watchdog timer in response to a reset authorization token provided from the secure entity; wherein the SSE (70, 102) stores and applies the security policy whereby, if the secure watchdog timer expires a given predetermined number of times since a last reset authorization token is received, the security manager executes a given prescriptive operation dictated by the security policy, and, if the secure watchdog timer expires another predetermined number of times since the last reset authorization token is received, the security manager executes another prescriptive operation dictated by the security policy.
Method for forming a 3D image, from a lenticular structure comprising: - a support layer on which an arrangement of subpixels of at least two distinct colours (C1, C2, C3) is formed, each subpixel having a single colour among said at least two distinct colours; and - a lenticular array comprising convergent lenses arranged opposite the subpixel arrangement; the method comprising: a) visual inspection of the lenticular structure, by means of a camera, said visual inspection comprising the following steps for each of M distinct directions of observation relative to the lenticular array, M being an integer equal to at least 2: a1) positioning the camera according to the direction of observation; a2) detecting subpixels that can be viewed through the lenses according to said direction of observation; b) determining, from the colour of the subpixels detected in a2) for each direction of observation, grey levels to be generated to reveal, from the arrangement of subpixels, M images viewable through the lenticular array according to the M directions of observation respectively; and c) personalising the arrangement of subpixels during which the grey levels determined in b) are etched opposite the subpixels in the support layer by focusing a laser radiation through the lenticular array so as to reveal, from the subpixel arrangement combined with the grey levels, the M images viewable through the lenticular array according to the M observation directions respectively, said M images collectively forming the 3D image. - a support layer on which an arrangement of subpixels of at least two distinct colours (C1, C2, C3) is formed, each subpixel having a single colour among said at least two distinct colours; and - a lenticular array comprising convergent lenses arranged opposite the subpixel arrangement; a) visual inspection of the lenticular structure, by means of a camera, said visual inspection comprising the following steps for each of M distinct directions of observation relative to the lenticular array, M being an integer equal to at least 2: a1) positioning the camera according to the direction of observation; a2) detecting subpixels that can be viewed through the lenses according to said direction of observation; a1) positioning the camera according to the direction of observation; a2) detecting subpixels that can be viewed through the lenses according to said direction of observation; b) determining, from the colour of the subpixels detected in a2) for each direction of observation, grey levels to be generated to reveal, from the arrangement of subpixels, M images viewable through the lenticular array according to the M directions of observation respectively; and c) personalising the arrangement of subpixels during which the grey levels determined in b) are etched opposite the subpixels in the support layer by focusing a laser radiation through the lenticular array so as to reveal, from the subpixel arrangement combined with the grey levels, the M images viewable through the lenticular array according to the M observation directions respectively, said M images collectively forming the 3D image.
An apparatus for controlling a fuel cell system, wherein the fuel cell system includes a plurality of fuel cell stacks including at least one parallel connection, and supplies output power of the stacks to a power conditioning system, the apparatus comprising: a plurality of stack state detecting units for detecting respective states of the plurality of fuel cell stacks; a switching unit for connecting at least parts of the plurality of fuel cell stacks to each other in series or in parallel; and a control unit for detecting at least one degraded stack based on the states of the stacks detected by the plurality of stack state detecting units, and controlling the switching unit in order that the degraded stack is connected to the other normal stacks in series from in parallel. a plurality of stack state detecting units for detecting respective states of the plurality of fuel cell stacks; a switching unit for connecting at least parts of the plurality of fuel cell stacks to each other in series or in parallel; and a control unit for detecting at least one degraded stack based on the states of the stacks detected by the plurality of stack state detecting units, and controlling the switching unit in order that the degraded stack is connected to the other normal stacks in series from in parallel.
An isolated synthetic nucleic acid adapter comprising a first strand comprising a first sequence; and a second strand comprising a second sequence that is complementary or substantially complementary to the first sequence; wherein the isolated synthetic nucleic acid adapter comprises a transposase recognition sequence having one or more modifications as compared to a native recognition sequence for a transposase, said one or more modifications being at the 5' terminus (position 1) of the first sequence, or at the 3' terminus of the second sequence, or at both; wherein position 1 is the nucleotide position closest to the cut at the transposition event, wherein the adapter is recognized by the transposase, and wherein the first sequence and the second sequence are, respectively, SEQ ID NOs: 73 and 74, SEQ ID NOs: 75 and 76, SEQ ID NOs: 28 and 36, SEQ ID NOs: 28 and 22, SEQ ID NOs: 2 and 36, SEQ ID NOs: 2 and 74, SEQ ID NOs: 2 and 76, SEQ ID NOs: 26 and 22, SEQ ID NOs: 26 and 36, SEQ ID NOs: 26 and 39, SEQ ID NOs: 26 and 41, SEQ ID NOs: 24 and 22, SEQ ID NOs: 24 and 36, SEQ ID NOs: 24 and 39, SEQ ID NOs: 24 and 41, SEQ ID NOs: 28 and 39, SEQ ID NOs: 28 and 41, SEQ ID NOs: 2 and 39, SEQ ID NOs: 2 and 41, SEQ ID NOs: 75 and 36, or SEQ ID NOs: 73 and 36.
An optical element (10, 50, 110, 160) comprising a transmission diffraction portion (20, 60, 70, 80, 90, 100, 120, 130, 140, 150, 170), which includes a plurality of reflective portions (12, 12a, 31, 41, 61, 61a, 71, 71a, 81, 81a, 91, 91a, 101, 101a, 121, 131, 141, 151, 171) arranged at equal intervals along a given axis, wherein each of the reflective portions reflects light included in visible light, and the light reflected by the reflective portions forms a reflection image, and a plurality of transmissive portions (13, 62, 72, 82, 92, 102, 122, 132, 142, 152, 172), each sandwiched by two corresponding reflective portions that are adjacent to each other along the given axis, wherein the transmissive portions transmit the visible light, wherein at least part of each reflective portion forms the reflection image by rendering a reflection angle of the light reflected by the reflective portions different from an angle of light incident on the reflective portions, and the transmission diffraction portion forms a plurality of diffraction images having different colors with diffraction light that is produced by diffracting light transmitted through the transmissive portions in a predetermined direction, each reflective portion (12, 12a, 31, 41, 61, 61a, 71, 71a, 81, 81a, 91, 91a, 101, 101a, 121, 131, 141, 151, 171) and a corresponding one of the transmissive portions (13, 62, 72, 82, 92, 102, 122, 132, 142, 152, 172) that is adjacent to the reflective portion along the given axis form one transmission periodic portion (17, 33, 44, 73, 83, 93, 103, 123, 133, 143, 153), characterised in that a width of the transmission periodic portion along the given axis is between 0.35 μm and 20 μm inclusive.
Positioning device for positioning at least one roller for a steering assistance system using rollers, comprising a first element carrying at least one roller for supporting a switch point, characterized in that the device comprises: - a second element forming an arm which has at its end a fastening interface designed to be mounted on a bearing of the switch point, the arm being able to withstand a deformation in a plane including the axis along which the switch point bears against at least one roller. - a second element forming an arm which has at its end a fastening interface designed to be mounted on a bearing of the switch point, the arm being able to withstand a deformation in a plane including the axis along which the switch point bears against at least one roller.
A 3D ink jet printing method, comprising steps of: S100: constructing an ideal 3D digital model of a product to be printed; S200: obtaining parameters of a conductive pattern to be printed on a surface of the product based on the constructed ideal 3D digital model; S300: planning a printing path for the conductive pattern based on the obtained parameters of the conductive pattern; S400: calculating working parameters of a robot and an ink jet print head based on the panned printing path; S500: manipulating the robot and the ink jet print head to print the conductive pattern based on the calculated working parameters; and S600: monitoring a print quality of the conductive pattern printed on the surface of the product and adjusting the working parameters in real time, so that the print quality meets preset requirements, wherein the surface of the product comprises a 3D surface region, and the conductive pattern comprises a first conductive pattern printed on the 3D surface region of the product, and wherein the robot adjusts a position and a posture of the product during printing, so that the product moves along the panned printing path relative to the ink jet print head in a state where the ink jet print head is always substantially perpendicular to a currently printed target surface region of the product. S100: constructing an ideal 3D digital model of a product to be printed; S200: obtaining parameters of a conductive pattern to be printed on a surface of the product based on the constructed ideal 3D digital model; S300: planning a printing path for the conductive pattern based on the obtained parameters of the conductive pattern; S400: calculating working parameters of a robot and an ink jet print head based on the panned printing path; S500: manipulating the robot and the ink jet print head to print the conductive pattern based on the calculated working parameters; and S600: monitoring a print quality of the conductive pattern printed on the surface of the product and adjusting the working parameters in real time, so that the print quality meets preset requirements,