mhurhangee/ep-ind-claims huggingface dataset:
A secondary battery, comprising: a positive electrode; a negative electrode; and an electrolyte, wherein the negative electrode includes a carbon material, a first silicon-containing material, and a second silicon-containing material, the first silicon-containing material includes a silicate phase, and first silicon phases dispersed in the silicate phase, and the second silicon-containing material includes a carbon phase, and second silicon phases dispersed in the carbon phase. a positive electrode; a negative electrode; and an electrolyte, wherein the negative electrode includes a carbon material, a first silicon-containing material, and a second silicon-containing material, the first silicon-containing material includes a silicate phase, and first silicon phases dispersed in the silicate phase, and the second silicon-containing material includes a carbon phase, and second silicon phases dispersed in the carbon phase.
Method for outputting POI datasets from a navigation system of a motor vehicle on the basis of input datasets (201, 301, 401) input by an operator, wherein the input datasets are input by the operator so as to obtain one or more matching target datasets, so as to select an intended target therefrom, wherein a dataset scope present in a database is structured using a tree structure (200, 300, 400) and nodes (202, 219; 302, 319; 402, 434) of the tree structure that are not end nodes (216, 229; 232, 235, 238; 316, 329, 332, 335, 338; 419, 435, 438, 441, 444) are assigned search criteria for determining a POI result dataset or POI result datasets (203, 204, 205, 220, 221, 222; 303, 304, 305, 320, 321, 322; 403, 404, 405, 422, 423, 424) and further search criteria that are further filter information and additional selection criteria of the POI result dataset or of the POI result datasets (206, 208, 210, 212, 2134, 223, 224, 225; 306, 308, 314, 323, 324, 325; 409, 410, 411, 412, 413, 426, 429, 432), wherein, if the search criterion (203, 204, 205, 220, 221, 222; 303, 304, 305, 320, 321, 322; 403, 404, 405, 422, 423, 424) and the further filter information (206, 208, 210, 212, 214, 223, 224, 225; 306, 308, 314, 323, 324, 325; 409, 410, 411, 412, 413, 426, 429, 432) assigned thereto are satisfied, as a result a POI result dataset containing name information (217, 230, 233, 236, 239; 317, 330, 333, 336, 339; 420, 436, 439, 442, 445) and additional information (218, 231, 234, 237, 240; 318, 331, 334, 337, 340; 421, 437, 440, 443, 446) that corresponds to the additional filter information is forwarded such that a display of the navigation system is based on the input dataset, the search criteria and the additional filter information.
An electrical motor comprising: a motor case; a rotor that is housed in the motor case and rotatable about a rotor shaft; a stator that is provided around the rotor in the motor case and configured by winding a stator coil around a stator core; and a first spray nozzle that is provided in the motor case for spraying liquid coolant toward an inner circumferential surface of the motor case, wherein the stator coil has a first coil end protruded from the stator core along a direction of the rotor shaft, and the first spray nozzle is configured to spread the coolant as mist by splashing the coolant on the inner circumferential surface to make the spread mist over the first coil end, the first spray nozzle is configured to spray the coolant in a rotational direction of the rotor characterized in that; an inside of the motor case is segmented into a first chamber located on one side of the rotor and the stator and a second chamber on another side of the rotor and the stator, the first coil end is protruded into the first chamber, the first spray nozzle is provided in the first chamber to spray the coolant into the first chamber, and the electrical motor further comprises a gas injection nozzle for injecting high-pressure gas into the second chamber. a motor case; a rotor that is housed in the motor case and rotatable about a rotor shaft; a stator that is provided around the rotor in the motor case and configured by winding a stator coil around a stator core; and a first spray nozzle that is provided in the motor case for spraying liquid coolant toward an inner circumferential surface of the motor case, wherein the stator coil has a first coil end protruded from the stator core along a direction of the rotor shaft, and the first spray nozzle is configured to spread the coolant as mist by splashing the coolant on the inner circumferential surface to make the spread mist over the first coil end, the first spray nozzle is configured to spray the coolant in a rotational direction of the rotor characterized in that; an inside of the motor case is segmented into a first chamber located on one side of the rotor and the stator and a second chamber on another side of the rotor and the stator, the first coil end is protruded into the first chamber, the first spray nozzle is provided in the first chamber to spray the coolant into the first chamber, and the electrical motor further comprises a gas injection nozzle for injecting high-pressure gas into the second chamber.
Downhole receptacle for tracer installation, comprising: a. a housing; b. a tracer material arranged within the housing, wherein the tracer material is water soluble; and wherein c. the housing has an outer shape that corresponds to an outer shape of a standard gas lift valve. a. a housing; b. a tracer material arranged within the housing, wherein the tracer material is water soluble; and wherein c. the housing has an outer shape that corresponds to an outer shape of a standard gas lift valve.
An intervertebral implant for implantation in an intervertebral space between adjacent vertebrae, the implant comprising: a frame having a front portion and a plurality of arms extending from the front portion and joined together to form a ring-like structure, the front portion at least partially defining a fastener aperture sized and dimensioned for receiving a fastener; and at least one endplate including at least one outer surface having a contact area configured to engage adjacent vertebrae, the at least one endplate being affixed to the frame such that the at least one endplate contacts at least a portion of the plurality of arms, wherein the frame comprises a rear portion that extends from an upper surface to a lower surface, so configured that the arms meet at the rear portion, the rear portion being sized to be equal to a height of the at least one endplate so as to contact adjacent vertebral bodies. a frame having a front portion and a plurality of arms extending from the front portion and joined together to form a ring-like structure, the front portion at least partially defining a fastener aperture sized and dimensioned for receiving a fastener; and at least one endplate including at least one outer surface having a contact area configured to engage adjacent vertebrae, the at least one endplate being affixed to the frame such that the at least one endplate contacts at least a portion of the plurality of arms, wherein the frame comprises a rear portion that extends from an upper surface to a lower surface, so configured that the arms meet at the rear portion, the rear portion being sized to be equal to a height of the at least one endplate so as to contact adjacent vertebral bodies.
A method for forming a zone of a Fresnel type gradient index lens in an intraocular lens, IOL, before placement into a patient's eye, the zone (R0-R1) having a ring shape and a predefined radial profile of optical pathlength, OPL, difference, the method comprising: scanning a pulsed laser beam in the IOL in multiple consecutive passes, wherein in each pass, the laser beam is scanned in concentric circles of varying radii within all or part of the zone, characterised in that in each of all except a smallest one of the multiple passes, within a first radius range of the zone, an energy of the pulsed laser beam for each circle is below a predefined maximum energy and is dependent on the predefined radial profile of the OPL difference, and within a second radius range of the zone which is non-overlapping with the first radius range, the energy of the pulsed laser beam for each circle is the predefined maximum energy, and wherein in the smallest one of the multiple passes, within a first radius range of the zone, the energy of the pulsed laser beam for each circle is below the predefined maximum energy and is dependent on the predefined radial profile of the OPL difference. scanning a pulsed laser beam in the IOL in multiple consecutive passes, wherein in each pass, the laser beam is scanned in concentric circles of varying radii within all or part of the zone, characterised in that in each of all except a smallest one of the multiple passes, within a first radius range of the zone, an energy of the pulsed laser beam for each circle is below a predefined maximum energy and is dependent on the predefined radial profile of the OPL difference, and within a second radius range of the zone which is non-overlapping with the first radius range, the energy of the pulsed laser beam for each circle is the predefined maximum energy, and wherein in the smallest one of the multiple passes, within a first radius range of the zone, the energy of the pulsed laser beam for each circle is below the predefined maximum energy and is dependent on the predefined radial profile of the OPL difference.
A finished pharmaceutical product adapted for oral delivery of a physiologically active peptide agent, said product comprising: (a) a therapeutically effective amount of said active peptide selected from the group consisting of calcitonins, parathyroid hormones, H-Tyrosine-D-Arginine-Phenylalanine-Lysine-NH 2 and its derivatives, insulin and vasopressin; (b) at least one pharmaceutically acceptable pH-lowering agent selected from the group consisting of citric acid, tartaric acid and an acid salt of an amino acid; and (c) at least one absorption enhancer selected from the group consisting of acylcarnitines, wherein the pH-lowering agent is present in said finished pharmaceutical product in a quantity which, if said product were added to 10 milliliters of 0.1M aqueous sodium bicarbonate solution, would be sufficient to lower the pH of said solution to no higher than 5.5, and wherein an outer surface of said product is free of an acid-resistant protective vehicle, provided that said product does not comprise a blend consisting of citric acid, lauroyl carnitine, talc, salmon calcitonin and H-2,6-dimethyltyrosine-D-Arginine-Phenylalanine-Lysine-NH 2 ("Dmt-DALDA"). (a) a therapeutically effective amount of said active peptide selected from the group consisting of calcitonins, parathyroid hormones, H-Tyrosine-D-Arginine-Phenylalanine-Lysine-NH 2 and its derivatives, insulin and vasopressin; (b) at least one pharmaceutically acceptable pH-lowering agent selected from the group consisting of citric acid, tartaric acid and an acid salt of an amino acid; and (c) at least one absorption enhancer selected from the group consisting of acylcarnitines,
A method of landing an unmanned aerial vehicle on another vehicle, wherein the unmanned aerial vehicle has a crash cage, wherein the vehicle has a base station configured to receive the crash cage of the unmanned aerial vehicle, and wherein the crash cage is a resilient structure, the method comprising: determining a velocity of the unmanned aerial vehicle; determining a velocity of the other vehicle; adjusting the velocity of at least one of the unmanned aerial vehicle and the other vehicle to ensure that a difference between the velocity of the unmanned aerial vehicle and the velocity of the other vehicle is greater than a predetermined amount as the unmanned aerial vehicle physically engages on the other vehicle; adjusting the velocity of at least one of the unmanned aerial vehicle and the vehicle to ensure that the difference between the velocity of the unmanned aerial vehicle and the velocity of the vehicle is above a predetermined value as the crash cage engages the base station; determining the spring rate of the crash cage; determining the force at which the crash cage engages the base station; determining the maximum deformation of the crash cage as the crash cage engages the base station; and deploying a deployable restraint before the crash cage reaches its maximum deformation. determining a velocity of the unmanned aerial vehicle; determining a velocity of the other vehicle; adjusting the velocity of at least one of the unmanned aerial vehicle and the other vehicle to ensure that a difference between the velocity of the unmanned aerial vehicle and the velocity of the other vehicle is greater than a predetermined amount as the unmanned aerial vehicle physically engages on the other vehicle; adjusting the velocity of at least one of the unmanned aerial vehicle and the vehicle to ensure that the difference between the velocity of the unmanned aerial vehicle and the velocity of the vehicle is above a predetermined value as the crash cage engages the base station; determining the spring rate of the crash cage; determining the force at which the crash cage engages the base station; determining the maximum deformation of the crash cage as the crash cage engages the base station; and deploying a deployable restraint before the crash cage reaches its maximum deformation.
A waterproof terminal structure including a contact (14, 34, 71, 72, 74) having a spring contact point (14C, 34C), the waterproof terminal structure comprising: a terminal member (13, 33, 51, 52, 53, 54) that holds the contact, an insulating waterproof member (15, 61, 62, 64) disposed at least along a circumference of an opening (11A, 41B, 42A, 44A) of a housing (11, 41, 42, 44) of the waterproof terminal structure, and a substrate (12, 81, 82, 84) having a wiring portion (12B, 81A, 82A, 84A), the terminal member including: a contact connection portion (13B, 33B, 51A, 52C, 54C) having conductivity and connected to the contact; a seal portion (13D, 33D, 52C) tightly attached to the insulating waterproof member (15, 61, 62, 64); and a substrate mount portion (13E, 51B, 52C, 54D) having conductivity and connected to the wiring portion (12B, 81A, 82A, 84A) of the substrate (12, 81, 82, 84), characterized in that the contact connection portion (13B, 33B, 51A, 52C, 54C) and the substrate mount portion (13E, 51B, 52C, 54D) are electrically connected to each other and positioned such that a water entering path from the contact connection portion toward the substrate mount portion is cut by the seal portion (13D, 33D, 52C), and the contact does not penetrate the terminal member. a terminal member (13, 33, 51, 52, 53, 54) that holds the contact, an insulating waterproof member (15, 61, 62, 64) disposed at least along a circumference of an opening (11A, 41B, 42A, 44A) of a housing (11, 41, 42, 44) of the waterproof terminal structure, and a substrate (12, 81, 82, 84) having a wiring portion (12B, 81A, 82A, 84A), the terminal member including: a contact connection portion (13B, 33B, 51A, 52C, 54C) having conductivity and connected to the contact; a seal portion (13D, 33D, 52C) tightly attached to the insulating waterproof member (15, 61, 62, 64); and a substrate mount portion (13E, 51B, 52C, 54D) having conductivity and connected to the wiring portion (12B, 81A, 82A, 84A) of the substrate (12, 81, 82, 84), a contact connection portion (13B, 33B, 51A, 52C, 54C) having conductivity and connected to the contact; a seal portion (13D, 33D, 52C) tightly attached to the insulating waterproof member (15, 61, 62, 64); and a substrate mount portion (13E, 51B, 52C, 54D) having conductivity and connected to the wiring portion (12B, 81A, 82A, 84A) of the substrate (12, 81, 82, 84), characterized in that the contact connection portion (13B, 33B, 51A, 52C, 54C) and the substrate mount portion (13E, 51B, 52C, 54D) are electrically connected to each other and positioned such that a water entering path from the contact connection portion toward the substrate mount portion is cut by the seal portion (13D, 33D, 52C), and the contact does not penetrate the terminal member.
A saddle-riding type vehicle comprising: an engine that serves as a driving source; and an air cleaner configured to purify intake air, wherein the engine includes an engine case provided with an outlet which communicates with an outside of the engine and through which blow-by gas in the engine is discharged to the outside, the air cleaner includes a cleaner case provided with an introduction port through which the blow-by gas is introduced into the air cleaner, the engine case includes a crank case that supports an engine rotary shaft, a cylinder block that protrudes upward from an upper face of a front portion of the crank case, and a cylinder head disposed above the cylinder block, and the engine case is substantially L-shaped as viewed in a vehicle widthwise direction, the air cleaner is disposed rearwardly of the cylinder block and above the crank case, with respect to the vehicle lengthwise travelling direction, the outlet and the introduction port are connected by a connecting pipe, the introduction port is disposed in an adjacent region, below an upper end of the cylinder head and in front of a rear end of the crank case, the outlet is formed in a rear portion of the cylinder block, facing rearward with respect to the vehicle lengthwise travelling direction, the cleaner case includes: an air intake passage through which the intake air is guided; and a gas-liquid separator chamber in which the blow-by gas guided through the introduction port is separated into gas and liquid, and the air intake passage and the gas-liquid separator chamber are disposed in the air cleaner in-line in a longitudinal direction of the vehicle, with the gas-liquid separator chamber being formed forwardly of the air intake passage.
A valve opening and closing timing control apparatus comprising: a drive-side rotational member rotating synchronously with a crankshaft of an internal combustion engine; a driven-side rotational member integrally rotating with a camshaft of the internal combustion engine and rotating on a rotation axis same as a rotation axis of the drive-side rotational member; a phase control mechanism controlling to change a relative rotational phase between the drive-side rotational member and the driven-side rotational member; a torsion coil spring provided at an accommodation chamber which is defined by a front member provided at the drive-side rotational member and a tubular void provided at the driven-side rotational member in a state where the tubular void faces the front member, the torsion coil spring engaging with the front member and the driven-side rotational member to bias the driven-side rotational member in an advanced angle direction or a retarded angle direction relative to the driven-side rotational member; and characterised in an oil reservoir portion defined by an outer surface of the torsion coil spring facing the driven-side rotational member and at least one recess portion provided at the driven-side rotational member, the recess portion being provided in a radially outer direction from a position at a radially outer side of an inner diameter of the torsion coil spring and at a radially inner side of an outer diameter of the torsion coil spring. a drive-side rotational member rotating synchronously with a crankshaft of an internal combustion engine; a driven-side rotational member integrally rotating with a camshaft of the internal combustion engine and rotating on a rotation axis same as a rotation axis of the drive-side rotational member; a phase control mechanism controlling to change a relative rotational phase between the drive-side rotational member and the driven-side rotational member; a torsion coil spring provided at an accommodation chamber which is defined by a front member provided at the drive-side rotational member and a tubular void provided at the driven-side rotational member in a state where the tubular void faces the front member, the torsion coil spring engaging with the front member and the driven-side rotational member to bias the driven-side rotational member in an advanced angle direction or a retarded angle direction relative to the driven-side rotational member; and characterised in an oil reservoir portion defined by an outer surface of the torsion coil spring facing the driven-side rotational member and at least one recess portion provided at the driven-side rotational member, the recess portion being provided in a radially outer direction from a position at a radially outer side of an inner diameter of the torsion coil spring and at a radially inner side of an outer diameter of the torsion coil spring.
An information coding apparatus which codes information bits which are inputted, the apparatus comprising a code block conversion unit which codes the inputted information bits as a pluraility of code blocks of a two-dimensional image made up from m (where m is a natural number) x n (where n is a natural number) pixels, wherein the code block conversion unit arranges pixels which represent the information bits in a code area, which is an area of (m-o) x (n-p) pixels within a code block of m x n pixels (where o and p are natural numbers which satisfy 0<o<m and 0<p<n); and arranges the plurality of code blocks in a plurality of rows and a plurality of columns with the plurality of code blocks adjoined to each other, characterized in that the code block conversion unit arranges pixels which represent predetermined information bits in a guide area, which is an area other than the code area within the code block of m x n pixels.
A reactor apparatus comprising: an internal mixing chamber including a first chamber section having a cross-sectional area expanding from a biomass inlet for the internal mixing chamber to a second chamber section, the second chamber section having a substantially uniform internal cross-sectional area from an end of the first chamber section opposite the inlet to a discharge end of the mixing chamber, wherein the biomass inlet is arranged for being coupled to a source of pre-treated biomass external to the reactor apparatus; and a rotating mixing device in the internal mixing chamber and coaxial with an axis of the first chamber section. an internal mixing chamber including a first chamber section having a cross-sectional area expanding from a biomass inlet for the internal mixing chamber to a second chamber section, the second chamber section having a substantially uniform internal cross-sectional area from an end of the first chamber section opposite the inlet to a discharge end of the mixing chamber, wherein the biomass inlet is arranged for being coupled to a source of pre-treated biomass external to the reactor apparatus; and a rotating mixing device in the internal mixing chamber and coaxial with an axis of the first chamber section.