mhurhangee/ep-ind-claims huggingface dataset:
A wheel well apparatus for a model vehicle comprising: a wheel well (100, 100A-100D) configured to fit within a wheel well recess of a model vehicle body, the wheel well (100, 100A-100D) including: body attachment bores (2A-2E) for coupling the wheel well (100, 100A-100D) to the model vehicle body; and support member bores (4A-4D); and a support member (10, 16) for removably securing the wheel well to the support member (10, 16), the support member (10, 16) configured to couple to the wheel well via the support member bores (4A-4D). a wheel well (100, 100A-100D) configured to fit within a wheel well recess of a model vehicle body, the wheel well (100, 100A-100D) including: body attachment bores (2A-2E) for coupling the wheel well (100, 100A-100D) to the model vehicle body; and support member bores (4A-4D); and body attachment bores (2A-2E) for coupling the wheel well (100, 100A-100D) to the model vehicle body; and support member bores (4A-4D); and a support member (10, 16) for removably securing the wheel well to the support member (10, 16), the support member (10, 16) configured to couple to the wheel well via the support member bores (4A-4D).
A system, comprising: a compression cylinder configured to mount to a reciprocating compressor, wherein the compression cylinder has an interior volume, and includes intake ports and discharge ports in first and second directions; and a piston assembly disposed within the compression cylinder, wherein the piston assembly comprises a piston configured to compress a fluid in a first compression chamber of the interior volume and in a second compression chamber of the interior volume, characterized by a first flow control member extending axially away from the piston, and a second flow control member extending axially away from the piston; wherein the first flow control member is configured to selectively block a first intake port and first discharge port relative to the first compression chamber upon movement of the piston assembly relative to the compression cylinder; and wherein the second flow control member is configured to selectively block a second intake port and a second discharge port relative to the second compression chamber upon movement of the piston assembly relative to the compression cylinder, and wherein the first flow control member has an internal passage reaching from the piston to an outlet orifice spaced axially away from the interior volume in the first direction, and the second flow control member has an internal passage reaching from the piston to an outlet orifice spaced axially away from the interior volume in the second direction. a compression cylinder configured to mount to a reciprocating compressor, wherein the compression cylinder has an interior volume, and includes intake ports and discharge ports in first and second directions; and a piston assembly disposed within the compression cylinder, wherein the piston assembly comprises a piston configured to compress a fluid in a first compression chamber of the interior volume and in a second compression chamber of the interior volume, characterized by a first flow control member extending axially away from the piston, and a second flow control member extending axially away from the piston; wherein the first flow control member is configured to selectively block a first intake port and first discharge port relative to the first compression chamber upon movement of the piston assembly relative to the compression cylinder; and wherein the second flow control member is configured to selectively block a second intake port and a second discharge port relative to the second compression chamber upon movement of the piston assembly relative to the compression cylinder, and wherein the first flow control member has an internal passage reaching from the piston to an outlet orifice spaced axially away from the interior volume in the first direction, and the second flow control member has an internal passage reaching from the piston to an outlet orifice spaced axially away from the interior volume in the second direction.
A build chamber for an additive manufacturing apparatus for forming a three-dimensional article layer by layer from a powder, the build chamber comprising: a powder table; a build table; a telescopic build tank (10, 310) operatively connected at one end to the powder table and at an opposing other end a portion of the build table, the telescopic build tank (10, 310) including at least two segments telescopically coupled together; characterized by at least one bellows assembly having a first portion operatively connected to a portion of the build table and a second portion operatively connected to an environment outside the build chamber, wherein movement of the build table toward the powder table results in expansion of the at least one bellows assembly and collapsing of the at least two segments of the telescopic build tank (10, 310) relative to one another; wherein the bellows assembly connects a floor of the build chamber to a bottom of an extension of the build table at an opening in the floor to expose the bottom of the extension of the build table to the environment outside the build chamber, wherein a longitudinal axis of the bellows assembly is offset from a longitudinal axis of the telescopic build tank (10, 310), wherein the extension of the build table extends laterally outward from the build table. a powder table; a build table; a telescopic build tank (10, 310) operatively connected at one end to the powder table and at an opposing other end a portion of the build table, the telescopic build tank (10, 310) including at least two segments telescopically coupled together; characterized by at least one bellows assembly having a first portion operatively connected to a portion of the build table and a second portion operatively connected to an environment outside the build chamber, wherein movement of the build table toward the powder table results in expansion of the at least one bellows assembly and collapsing of the at least two segments of the telescopic build tank (10, 310) relative to one another; wherein the bellows assembly connects a floor of the build chamber to a bottom of an extension of the build table at an opening in the floor to expose the bottom of the extension of the build table to the environment outside the build chamber, wherein a longitudinal axis of the bellows assembly is offset from a longitudinal axis of the telescopic build tank (10, 310), wherein the extension of the build table extends laterally outward from the build table.
Tread for a winter-use pneumatic tyre having at least one circumferential groove extending in the circumferential direction of the tyre, a plurality of transverse grooves extending in the transverse direction of the tyre, and a plurality of blocks demarcated by the circumferential grooves and the transverse grooves, this tread has blocks which are aligned in the circumferential direction and in which are formed respectively circumferential direction edges formed by the abovementioned transverse grooves, and has at least one thin incision extends substantially parallel to the abovementioned circumferential direction edges and has a depth equal to or less than the depth of the abovementioned circumferential groove, and has at least one series of small holes comprising at least two small holes which open in a ground contacting surface of the block, said holes extend in the inward radial direction of the tyre and have a depth equal to or less than the depth of the abovementioned circumferential groove, the abovementioned at least one series of small holes being formed in a prescribed neighbouring region of the abovementioned circumferential direction edge, and is formed in an intermediate portion between the abovementioned circumferential direction edge and the abovementioned at least one thin incision, such tread being characterized in that the abovementioned at least one thin incision has a widened portion at its bottom, this widened portion having a width greater than the width of the incision.
Process for the production of carbon fibers from cellulose fibers, characterized in that cellulose fibers, which contain a sulphonic acid salt of formula I wherein R 1 represents a hydrocarbon group and K + represents a cation, are converted into carbon fibers, wherein the cellulose fiber contains the salt of the sulphonic acid in an amount such that the content of sulfur is from 0.1 to 3 wt%, based on the total weight of the dried cellulose fiber.
A method for ACK/NACK reporting of Cat-M mechanism in a LTE network, comprising steps of: - feeding back, by a user equipment (UE; UE10), an ACK/NACK message to an eNB on PUSCH based on received downlink data, wherein when computing a number of resource elements occupied by the ACK/NACK message on PUSCH, the number of OFDM symbols in a guard period is ruled out, wherein when computing a number of SC-FDMA symbols that carry PUSCH data in an initial PUSCH transmission subframe in a transmission block, the number of OFDM symbols in the guard period is ruled out, characterized in that the number of SC-FDMA symbols that carry the PUSCH data in the initial PUSCH transmission subframe is denoted as N symb PUSCH − initial, wherein the step of ruling out the number of OFDM symbols in the guard period specifically comprises: when calculating N symb PUSCH − initial, further subtracting the number of OFDM symbols in the guard period. - feeding back, by a user equipment (UE; UE10), an ACK/NACK message to an eNB on PUSCH based on received downlink data, wherein when computing a number of resource elements occupied by the ACK/NACK message on PUSCH, the number of OFDM symbols in a guard period is ruled out, wherein when computing a number of SC-FDMA symbols that carry PUSCH data in an initial PUSCH transmission subframe in a transmission block, the number of OFDM symbols in the guard period is ruled out, characterized in that the number of SC-FDMA symbols that carry the PUSCH data in the initial PUSCH transmission subframe is denoted as N symb PUSCH − initial, wherein the step of ruling out the number of OFDM symbols in the guard period specifically comprises: when calculating N symb PUSCH − initial, further subtracting the number of OFDM symbols in the guard period.
Use of nanoparticles or nanoparticles' aggregates for the preparation of a pharmaceutical composition for use in a method of altering or destroying target cells in an animal when said cells are exposed to ionizing radiations, wherein each nanoparticle or nanoparticles' aggregate consists of a metal oxide selected from the group consisting of CeO 2, Tm 2 O 3, HfO 2, WO 3 and PdO, wherein the density of said nanoparticle or the density of said nanoparticles' aggregate is of at least 7,1 g/cm 3 when the metal oxide is CeO 2, of at least 8,3 g/cm 3 when the metal oxide is Tm 2 O 3, of at least 7,4 g/cm 3 when the metal oxide is HfO 2, of at least 7,2 g/cm 3 when the metal oxide is WO 3, and of at least 7,9 g/cm 3 when the metal oxide is PdO, and wherein each nanoparticle or nanoparticles' aggregate is covered with a biocompatible coating allowing the nanoparticle or nanoparticles' aggregate stability between pH 6.5 and 7.5 in a physiological fluid.
An apparatus comprising: elongate members connected to a docking structure for a spacecraft; movement systems configured to move the elongate members axially such that the docking structure for the spacecraft moves, wherein each of the elongate members moves independently and wherein the movement systems each comprise a motor configured to move a corresponding elongate member at a commanded rate; and force management systems connecting the movement systems to the elongate members and configured to limit a force applied by the each of the elongate members to a desired threshold during movement of the elongate members, wherein a force management system in the force management systems comprises a slip clutch configured to slip when the force reaches the desired threshold such that the corresponding elongate member moves from a first position to a second position. elongate members connected to a docking structure for a spacecraft; movement systems configured to move the elongate members axially such that the docking structure for the spacecraft moves, wherein each of the elongate members moves independently and wherein the movement systems each comprise a motor configured to move a corresponding elongate member at a commanded rate; and force management systems connecting the movement systems to the elongate members and configured to limit a force applied by the each of the elongate members to a desired threshold during movement of the elongate members, wherein a force management system in the force management systems comprises a slip clutch configured to slip when the force reaches the desired threshold such that the corresponding elongate member moves from a first position to a second position.
A method of providing cooled air to electronic equipment, comprising: heating air from a volume containing electronic equipment by passing the air over the electronic equipment, wherein the air is heated from about 25 degrees Celsius to more than 45 degrees Celsius, wherein the electronic equipment comprises a plurality of rack servers in a data center; capturing heated air from the volume containing electronic equipment; cooling the heated air by more than fifteen degrees Celsius in an air-to-water heat exchanger; supplying cooling water to the air-to-water heat exchanger at a temperature at between 15-35 degrees Celsius, and above a dew point temperature of the heated air; and returning water from the air-to-water-heat exchanger and transferring heat, using a water-to-water heat exchanger in fluid communication with a free cooling water source, from the returned water to water supplied from the free cooling water source. heating air from a volume containing electronic equipment by passing the air over the electronic equipment, wherein the air is heated from about 25 degrees Celsius to more than 45 degrees Celsius, wherein the electronic equipment comprises a plurality of rack servers in a data center; capturing heated air from the volume containing electronic equipment; cooling the heated air by more than fifteen degrees Celsius in an air-to-water heat exchanger; supplying cooling water to the air-to-water heat exchanger at a temperature at between 15-35 degrees Celsius, and above a dew point temperature of the heated air; and returning water from the air-to-water-heat exchanger and transferring heat, using a water-to-water heat exchanger in fluid communication with a free cooling water source, from the returned water to water supplied from the free cooling water source.
A load bearing assembly (100, 200, 300) for use in an elevator system comprising - at least one steel rope (102, 202, 302), - a jacket (110, 210, 310) surrounding said at least one steel rope (102, 202, 302), said jacket (110, 210, 310) comprising at least one layer of a thermoplastic elastomer, characterized in that said at least one layer of a thermoplastic elastomer comprises polymer particles (112, 212, 312), and said polymer particles (112, 212, 312)have a molecular weight higher than 0.5*10 6 g/mol. - at least one steel rope (102, 202, 302), - a jacket (110, 210, 310) surrounding said at least one steel rope (102, 202, 302), said jacket (110, 210, 310) comprising at least one layer of a thermoplastic elastomer,
Device for verifying image-related information of a medical image, said device comprising: - an image input for obtaining a medical image and associated image-related information, - a translator for translating, by means of a look-up table storing the relationship between image-related information and expected anatomical feature information, one or more pieces of image-related information into expected anatomical feature information including the number and/or kind of anatomical features, distribution and/or location of one or more expected anatomical features, and/or variability in the spatial relations of one or more expected anatomical features, - a detector for detecting one or more given anatomical features in the obtained medical image and comparing them with the expected anatomical feature information, wherein the detector is configured to detect the number and/or kind of anatomical features, the distribution and/or the location of the one or more expected anatomical features, and/or the variability in the spatial relations of the one or more expected anatomical features, - an evaluator for evaluating the result of the detector to generate a consistency measure indicating the consistency of the image-related information with the associated medical image, and - an output interface for outputting an inconsistency indication if the generated consistency measure is lower than a predetermined consistency threshold. - an image input for obtaining a medical image and associated image-related information, - a translator for translating, by means of a look-up table storing the relationship between image-related information and expected anatomical feature information, one or more pieces of image-related information into expected anatomical feature information including the number and/or kind of anatomical features, distribution and/or location of one or more expected anatomical features, and/or variability in the spatial relations of one or more expected anatomical features, - a detector for detecting one or more given anatomical features in the obtained medical image and comparing them with the expected anatomical feature information, wherein the detector is configured to detect the number and/or kind of anatomical features, the distribution and/or the location of the one or more expected anatomical features, and/or the variability in the spatial relations of the one or more expected anatomical features, - an evaluator for evaluating the result of the detector to generate a consistency measure indicating the consistency of the image-related information with the associated medical image, and - an output interface for outputting an inconsistency indication if the generated consistency measure is lower than a predetermined consistency threshold.
Elastomer composition having a self-sealing property which can be used in particular as puncture-resistant layer in an inflatable article, based on at least (phr meaning parts by weight per 100 parts of solid elastomer): - a solid unsaturated diene elastomer; - between 30 and 90 phr of a hydrocarbon resin; - from 0 to less than 30 phr of filler; - between 0.5 and 15 phr of thiuram polysulphide. - a solid unsaturated diene elastomer; - between 30 and 90 phr of a hydrocarbon resin; - from 0 to less than 30 phr of filler; - between 0.5 and 15 phr of thiuram polysulphide.
A printing apparatus comprising: a base; a moving stage linearly movable along the base, wherein the moving stage has a lithographic plate seated on the top surface thereof, the lithographic plate having a printing pattern thereon; an automatic printing sheet feeder installed on the moving stage, wherein the automatic printing sheet feeder includes an unwinding roll, which supplies the printing sheet, a rewinding roll, which collects the printing sheet, and a plurality of guide rolls, which guide the printing sheet to pass through a printing area of the moving stage; and a printing roll installed on the base, characterized in that the printing roll is installed by a bracket, which is fixed on the base, and is elevatable by a first elevating member, in that the printing apparatus further comprises an engraving roll installed on the bracket above the printing roll, the engraving roll being elevatable by a second elevating member, wherein the printing roll is between the engraving roll and the lithographic plate, in that the automatic printing sheet feeder includes a support fixedly installed on the moving stage, wherein the unwinding roll is installed on the support and the rewinding roll is installed on the support, and in that the guide rolls guide the printing sheet to pass along a space below the moving stage, and the moving stage has a first through-hole and a second through-hole through which the printing sheet can pass. a base; a moving stage linearly movable along the base, wherein the moving stage has a lithographic plate seated on the top surface thereof, the lithographic plate having a printing pattern thereon; an automatic printing sheet feeder installed on the moving stage, wherein the automatic printing sheet feeder includes an unwinding roll, which supplies the printing sheet, a rewinding roll, which collects the printing sheet, and a plurality of guide rolls, which guide the printing sheet to pass through a printing area of the moving stage; and a printing roll installed on the base,
A method of purifying a target analyte with an apatite solid surface, the method comprising: (a) contacting the apatite solid surface with the target analyte, thereby separating the target analyte from one or more contaminants; (b) collecting the target analyte; and (c) regenerating the apatite solid surface, the regenerating comprising: (i) contacting the apatite solid surface with a buffered calcium solution comprising a calcium ion at a concentration of at least 10 mM and a non-zwitterionic buffer having a primary, secondary or tertiary amine, wherein the ratio of the buffer concentration to the calcium ion concentration is at least 0.2, and wherein the pH of the buffered calcium solution is between 7 and 9; followed by (ii) contacting the apatite solid surface with a phosphate buffered solution at a pH of at least 6.5; followed by (iii) contacting the apatite solid surface with a solution comprising an alkaline hydroxide. (a) contacting the apatite solid surface with the target analyte, thereby separating the target analyte from one or more contaminants; (b) collecting the target analyte; and (c) regenerating the apatite solid surface, the regenerating comprising: (i) contacting the apatite solid surface with a buffered calcium solution comprising a calcium ion at a concentration of at least 10 mM and a non-zwitterionic buffer having a primary, secondary or tertiary amine, wherein the ratio of the buffer concentration to the calcium ion concentration is at least 0.2, and wherein the pH of the buffered calcium solution is between 7 and 9; followed by (ii) contacting the apatite solid surface with a phosphate buffered solution at a pH of at least 6.5; followed by (iii) contacting the apatite solid surface with a solution comprising an alkaline hydroxide. (i) contacting the apatite solid surface with a buffered calcium solution comprising a calcium ion at a concentration of at least 10 mM and a non-zwitterionic buffer having a primary, secondary or tertiary amine, wherein the ratio of the buffer concentration to the calcium ion concentration is at least 0.2, and wherein the pH of the buffered calcium solution is between 7 and 9; followed by (ii) contacting the apatite solid surface with a phosphate buffered solution at a pH of at least 6.5; followed by (iii) contacting the apatite solid surface with a solution comprising an alkaline hydroxide.