mhurhangee/ep-ind-claims huggingface dataset:
A cylinder device comprising: an inner tube into which working fluid is filled; an outer tube provided so as to cover the inner tube, the outer tube forming a reservoir tank for retaining the working fluid between the outer tube and the inner tube; a piston slidably inserted into the inner tube, the piston partitioning an interior of the inner tube into a rod-side chamber and a piston-side chamber; a piston rod movably inserted into the inner tube, the piston rod being connected to the piston; a first common passage through which the working fluid passes, the working fluid being supplied/discharged to/from the rod-side chamber; and a pipe provided in the reservoir tank, the pipe forming a part of the first common passage; a rod guide into which the piston rod is inserted, the rod guide closing first ends of the inner tube and the outer tube characterised by a pipe holder provided between the pipe and the rod guide, the pipe holder holding a first end of the pipe; and a plug provided on a side of the pipe holder opposite from the pipe, the plug having a throttle passage, the throttle passage allowing the first common passage to communicate with the reservoir tank. an inner tube into which working fluid is filled; an outer tube provided so as to cover the inner tube, the outer tube forming a reservoir tank for retaining the working fluid between the outer tube and the inner tube; a piston slidably inserted into the inner tube, the piston partitioning an interior of the inner tube into a rod-side chamber and a piston-side chamber; a piston rod movably inserted into the inner tube, the piston rod being connected to the piston; a first common passage through which the working fluid passes, the working fluid being supplied/discharged to/from the rod-side chamber; and a pipe provided in the reservoir tank, the pipe forming a part of the first common passage; a rod guide into which the piston rod is inserted, the rod guide closing first ends of the inner tube and the outer tube characterised by a pipe holder provided between the pipe and the rod guide, the pipe holder holding a first end of the pipe; and a plug provided on a side of the pipe holder opposite from the pipe, the plug having a throttle passage, the throttle passage allowing the first common passage to communicate with the reservoir tank.
A nanostructure, characterized by comprising: an Au nanorod; a shell encapsulating the Au nanorod and being an Au/Ag_alloy; and an empty gap having a width ranging from 1.0 nm to 6.0 nm, and located between the Au nanorod and the shell, wherein the nanostructure absorbs a near infrared ray of 1,000 nm to 1,350 nm in wavelength. an Au nanorod; a shell encapsulating the Au nanorod and being an Au/Ag_alloy; and an empty gap having a width ranging from 1.0 nm to 6.0 nm, and located between the Au nanorod and the shell, wherein the nanostructure absorbs a near infrared ray of 1,000 nm to 1,350 nm in wavelength.
A data packet transmission method, comprising: receiving (A101; A201), by a proxy program, a request data packet via a listening port of the proxy program, and after marking (A102; A202) the request data packet, sending out (A103; A203), by the proxy program, the marked request data packet; and receiving (S101; S201), by a local system, a plurality of request data packets sent by the proxy program or an application program, and matching (S102; S202), by the local system, a mark in each request data packet, wherein when the matching is successful, the request data packet is forwarded out directly, and when the matching is unsuccessful, the request data packet is re-directed to the listening port of the proxy program, to be received and marked by the proxy program; wherein a kernel of the local system is a Linux kernel, the proxy program and the application program run on the local system. receiving (A101; A201), by a proxy program, a request data packet via a listening port of the proxy program, and after marking (A102; A202) the request data packet, sending out (A103; A203), by the proxy program, the marked request data packet; and receiving (S101; S201), by a local system, a plurality of request data packets sent by the proxy program or an application program, and matching (S102; S202), by the local system, a mark in each request data packet, wherein when the matching is successful, the request data packet is forwarded out directly, and when the matching is unsuccessful, the request data packet is re-directed to the listening port of the proxy program, to be received and marked by the proxy program; wherein a kernel of the local system is a Linux kernel, the proxy program and the application program run on the local system.
A method of investigating a specimen using charged-particle microscopy, comprising the following steps: (a) On a surface of the specimen, selecting a virtual sampling grid extending in an XY plane and comprising grid nodes to be impinged upon by a charged-particle probing beam during a two-dimensional scan of said surface; (b) Selecting a landing energy E i for said probing beam, with an associated nominal Z penetration depth d i below said surface; (c) At each of said nodes, irradiating the specimen with said probing beam and detecting output radiation emanating from the specimen in response thereto, thereby generating a scan image l i; (d) Repeating steps (b) and (c) for a series {E i} of different landing energies, corresponding to an associated series {d i} of different penetration depths, characterized by the following steps: (e) Pre-selecting an initial energy increment ΔE i by which E i is to be altered after a first iteration of steps (b) and (c); (f) Associating energy increment ΔE i with a corresponding depth increment Δd in the value of d i; (g) Selecting said sampling grid to have a substantially equal node pitch p in X and Y, which pitch p is matched to the value of Δd so as to produce a substantially cubic sampling voxel; (h) Selecting subsequent energy values in the series {E i} so as to maintain a substantially constant depth increment Δd between consecutive members of the series {d i}, within the bounds of selected minimum and maximum landing energies E min and E max, respectively. (a) On a surface of the specimen, selecting a virtual sampling grid extending in an XY plane and comprising grid nodes to be impinged upon by a charged-particle probing beam during a two-dimensional scan of said surface; (b) Selecting a landing energy E i for said probing beam, with an associated nominal Z penetration depth d i below said surface; (c) At each of said nodes, irradiating the specimen with said probing beam and detecting output radiation emanating from the specimen in response thereto, thereby generating a scan image l i; (d) Repeating steps (b) and (c) for a series {E i} of different landing energies, corresponding to an associated series {d i} of different penetration depths, characterized by the following steps: (e) Pre-selecting an initial energy increment ΔE i by which E i is to be altered after a first iteration of steps (b) and (c); (f) Associating energy increment ΔE i with a corresponding depth increment Δd in the value of d i; (g) Selecting said sampling grid to have a substantially equal node pitch p in X and Y, which pitch p is matched to the value of Δd so as to produce a substantially cubic sampling voxel; (h) Selecting subsequent energy values in the series {E i} so as to maintain a substantially constant depth increment Δd between consecutive members of the series {d i}, within the bounds of selected minimum and maximum landing energies E min and E max, respectively.
A computer-implemented method comprising: transmitting a speaker-profile-data inquiry to a mobile device associated with a first user; in response to the speaker-profile-data inquiry, receiving first speaker profile data associated with the first user, the first speaker profile data including voice-recognition data of the first user; receiving audio data representing a voice input; identifying the first user as providing the voice input, the identification being based on a comparison of characteristics of the received audio data with speaker profile data of a plurality of speakers for whom speaker profile data is stored, including the first speaker profile data; determining an instruction from the received audio data, wherein the instruction references a second user other than the first user and includes a speaker-relative signifier, and wherein determining the instruction includes determining a referent of the speaker-relative signifier based on second stored speaker profile data comprising data related to customization information associated with the second user; and performing an action indicated by the instruction. transmitting a speaker-profile-data inquiry to a mobile device associated with a first user; in response to the speaker-profile-data inquiry, receiving first speaker profile data associated with the first user, the first speaker profile data including voice-recognition data of the first user; receiving audio data representing a voice input; identifying the first user as providing the voice input, the identification being based on a comparison of characteristics of the received audio data with speaker profile data of a plurality of speakers for whom speaker profile data is stored, including the first speaker profile data; determining an instruction from the received audio data, wherein the instruction references a second user other than the first user and includes a speaker-relative signifier, and wherein determining the instruction includes determining a referent of the speaker-relative signifier based on second stored speaker profile data comprising data related to customization information associated with the second user; and performing an action indicated by the instruction.
An exhaust gas purification filter that includes a substrate and a catalyst layer including a nitrogen oxide purification catalyst supported by the substrate, wherein the substrate includes: a honeycomb structure portion that includes a partition wall in which numerous pores are formed, and a plurality of cells that are partitioned by the partition walls and form a flow path for an exhaust gas; and a plug portion that alternately seals an inflow end surface or an outflow end surface for the exhaust gas in the cells, the partition wall has a gas permeability coefficient that is equal to or greater than 0.35 × 10 -12 m 2, a pore volume ratio of pore diameters of 9 μm or less that is equal to or less than 25%, and an average pore diameter that is equal to or greater than 12 μm, the catalyst layer is supported on the partition wall of the substrate, a supported amount of the catalyst layer is 30 to 150 g/L, and an average thickness of the catalyst layer is equal to or less than 6 μm. the substrate includes: a honeycomb structure portion that includes a partition wall in which numerous pores are formed, and a plurality of cells that are partitioned by the partition walls and form a flow path for an exhaust gas; and a plug portion that alternately seals an inflow end surface or an outflow end surface for the exhaust gas in the cells, a honeycomb structure portion that includes a partition wall in which numerous pores are formed, and a plurality of cells that are partitioned by the partition walls and form a flow path for an exhaust gas; and a plug portion that alternately seals an inflow end surface or an outflow end surface for the exhaust gas in the cells, the partition wall has a gas permeability coefficient that is equal to or greater than 0.35 × 10 -12 m 2, a pore volume ratio of pore diameters of 9 μm or less that is equal to or less than 25%, and an average pore diameter that is equal to or greater than 12 μm, the catalyst layer is supported on the partition wall of the substrate, a supported amount of the catalyst layer is 30 to 150 g/L, and an average thickness of the catalyst layer is equal to or less than 6 μm.
An automatic emitter point cleaning system, comprising: a fan configured to direct a stream of air through an air path; a point emitter configured to produce at least one of positive ions or negative ions within or proximate to the air path; an emitter frame configured to hold the point emitter radially inward from the emitter frame and into the air path; an emitter point brush (402,404); a first gear coupled to the brush and configured to move the brush into contact with the point emitter; a second gear to engage the first gear; and a motor to actuate the second gear such that the second gear actuates the first gear to move the brush past the point emitter. a fan configured to direct a stream of air through an air path; a point emitter configured to produce at least one of positive ions or negative ions within or proximate to the air path; an emitter frame configured to hold the point emitter radially inward from the emitter frame and into the air path; an emitter point brush (402,404); a first gear coupled to the brush and configured to move the brush into contact with the point emitter; a second gear to engage the first gear; and a motor to actuate the second gear such that the second gear actuates the first gear to move the brush past the point emitter.
Method for removing long fibres from a fibrous material suspension, wherein a jet of the fibrous material suspension is aimed at the rotor blades of a rotor, the jet direction forms an angle of less than 45° with the axis of rotation, and longer fibres remaining stuck to the rotor blades are thrown off the rotor blades as a result of the centrifugal force and are caught separately.
A reusable diaper comprising: a forward waist portion; a rearward waist portion; an intermediate portion between the forward waist portion and the rearward waist portion; a sealing apparatus including a pair of outer gussets (420, 426) each including a channel (429, 433), the pair of outer gussets (420, 426) including a left outer gusset and a right outer gusset, the pair of outer gussets (420, 426) formed in the intermediate portion along a periphery of the reusable diaper, a pair of inner gussets (422, 424) each including a channel (449, 453), the pair of inner gussets (422, 424) including a left outer gusset and a right outer gusset, the pair of inner gussets formed in the intermediate portion inboard of the outer gussets (420, 426) on the intermediate portion, a first elastic member configured to pass through the respective channels (449, 429) of the left inner gusset of the pair of inner gussets and the left outer gusset of the pair of outer gussets, a second elastic member configured to pass through the respective channels (453, 433) of the right inner gusset of the pair of inner gussets and the right outer gusset of the pair of outer gussets, and one or more adjustment mechanisms (465, 469) configured to adjust a tension of the first and second elastic members (463, 467), a forward waist portion; a rearward waist portion; an intermediate portion between the forward waist portion and the rearward waist portion; a sealing apparatus including a pair of outer gussets (420, 426) each including a channel (429, 433), the pair of outer gussets (420, 426) including a left outer gusset and a right outer gusset, the pair of outer gussets (420, 426) formed in the intermediate portion along a periphery of the reusable diaper, a pair of inner gussets (422, 424) each including a channel (449, 453), the pair of inner gussets (422, 424) including a left outer gusset and a right outer gusset, the pair of inner gussets formed in the intermediate portion inboard of the outer gussets (420, 426) on the intermediate portion, a first elastic member configured to pass through the respective channels (449, 429) of the left inner gusset of the pair of inner gussets and the left outer gusset of the pair of outer gussets, a second elastic member configured to pass through the respective channels (453, 433) of the right inner gusset of the pair of inner gussets and the right outer gusset of the pair of outer gussets, and one or more adjustment mechanisms (465, 469) configured to adjust a tension of the first and second elastic members (463, 467),
A method of managing polarity switching, comprising: operating in a first mode an ion mobility spectrometer comprising a repelling grid with a first voltage, a gating grid with a second voltage, and a fixed grid with a third voltage, and wherein the first mode is characterized by the first voltage being more positive than the second voltage, and the second voltage is more positive than the third voltage, and the third voltage is greater than zero; operating in a second mode the ion mobility spectrometer, wherein the second mode is characterized by the first voltage is more negative than the second voltage, and the second voltage is more negative than the third voltage, and the third voltage is less than zero; transitioning between the first and second modes, wherein during the transitioning the first voltage is more positive than the second voltage when the second voltage is approximately equal to the third voltage, and the second voltage is more negative than the first voltage when the first voltage is approximately equal to the third voltage. operating in a first mode an ion mobility spectrometer comprising a repelling grid with a first voltage, a gating grid with a second voltage, and a fixed grid with a third voltage, and wherein the first mode is characterized by the first voltage being more positive than the second voltage, and the second voltage is more positive than the third voltage, and the third voltage is greater than zero; operating in a second mode the ion mobility spectrometer, wherein the second mode is characterized by the first voltage is more negative than the second voltage, and the second voltage is more negative than the third voltage, and the third voltage is less than zero; transitioning between the first and second modes, wherein during the transitioning the first voltage is more positive than the second voltage when the second voltage is approximately equal to the third voltage, and the second voltage is more negative than the first voltage when the first voltage is approximately equal to the third voltage.
A polypeptide solution in which a polypeptide derived from natural spider silk proteins is dissolved in a solvent, wherein the polypeptide is a natural spider silk protein or a recombinant spider silk protein and the solvent contains at least one selected from the following (i)-(iii): (i) Dimethyl sulfoxide; (ii) Dimethyl sulfoxide with an inorganic salt; and (iii) N, N-dimethylformamide with an inorganic salt; and wherein, when the polypeptide solution is 100 mass%, the percentage of the polypeptide is in a range of 3 to 45 mass%. (i) Dimethyl sulfoxide; (ii) Dimethyl sulfoxide with an inorganic salt; and (iii) N, N-dimethylformamide with an inorganic salt; and
An isolated nucleic acid comprising a nucleotide sequence encoding a polypeptide with FVIII activity, wherein the nucleotide sequence comprises at least 95% sequence identity to nucleotides 58-2277 and 2320-4374 of SEQ ID NO: 71.
Method for continuous casting of a metallic strip in a continuous casting plant, in which the metal formed into a slab and with still molten core is discharged in a casting machine vertically from a mould, wherein the slab is guided behind the mould in conveying direction by a number of segments (4, 5, 6, 7, 8, 9, 10, 11) wherein each segment (4, 5, 6, 7, 8, 9, 10, 11) comprises a number of segment rollers (12, 13) constructed for contacting the slab surface, and wherein in the region ahead of the casting machine end a number of segment rollers (12, 13) is lifted off the slab surface or not installed in provided mounts so that contact between slab and segment roller (12, 13) is interrupted or not provided, characterised in that a thermal insulating element (15, 16) is mounted between the slab surface and the at least one segment roller (12, 13) lifted off the slab or not installed.
A compressor, comprising: a crankshaft; and a connecting structure arranged on the crankshaft, the connecting structure comprises a first bearing, a second bearing and a piston, wherein an avoidance part is arranged on the connecting structure and/or the crankshaft, the avoidance part is located at the part that the connecting structure is matched with the crankshaft, and the avoidance part is configured to be suitable for avoiding at least one of the connecting structure and the crankshaft; wherein a gap is formed between the crankshaft and the connecting structure, and the gap corresponding to the avoidance part is enlarged to the direction far away from the middle part of the connecting structure along the axial direction of the crankshaft; and characterised in that the sum of gaps at the two sides of the axis of the crankshaft is defined as a bilateral gap at the same axial height in the cross section of the compressor in the axial direction of the crankshaft; the minimum value of the bilateral gap corresponding to the avoidance part is δ 0, the difference between the maximum value of the bilateral gap corresponding to the avoidance part and δ 0 is δ, the diameter of the crankshaft corresponding to the minimum part of the bilateral gap corresponding to the avoidance part is D, and the length of the avoidance part is h along the axial direction of the crankshaft, wherein the product of δ/δ 0 and D/h is more than or equal to 0.2 and less than or equal to 5. wherein a gap is formed between the crankshaft and the connecting structure, and the gap corresponding to the avoidance part is enlarged to the direction far away from the middle part of the connecting structure along the axial direction of the crankshaft; and characterised in that the sum of gaps at the two sides of the axis of the crankshaft is defined as a bilateral gap at the same axial height in the cross section of the compressor in the axial direction of the crankshaft; the minimum value of the bilateral gap corresponding to the avoidance part is δ 0, the difference between the maximum value of the bilateral gap corresponding to the avoidance part and δ 0 is δ, the diameter of the crankshaft corresponding to the minimum part of the bilateral gap corresponding to the avoidance part is D, and the length of the avoidance part is h along the axial direction of the crankshaft, wherein the product of δ/δ 0 and D/h is more than or equal to 0.2 and less than or equal to 5.