mhurhangee/ep-ind-claims huggingface dataset:
Process for preparing a pearl having a diameter of less than one or equal to 10mm and having a mass per unit volume of less than or equal to 0.8 g/cm 3 based on expanded polyamide and having a continuous skin, comprising the following successive steps: a) extruding through a die an expandable composition comprising a thermoplastic polyamide and an expanding agent, in melt form, to produce the expansion b) cooling and chopping the expanded material obtained at the die outlet using a knife, a diameter of less than or equal to 10 mm and having a mass per unit volume of less than or equal to 0.8 g/cm 3, step b) being performed using a granulating chopping device arranged at the die outlet, comprising at least one chopping device opposite the die plate, through which the polyamide is extruded, and a cooling device, in which the chopping device and the die plate are arranged in a water-filled chamber and characterized in that the expanding agent is a chemical compound that can react chemically with the polyamide by heating, to generate a gas. a) extruding through a die an expandable composition comprising a thermoplastic polyamide and an expanding agent, in melt form, to produce the expansion b) cooling and chopping the expanded material obtained at the die outlet using a knife, a diameter of less than or equal to 10 mm and having a mass per unit volume of less than or equal to 0.8 g/cm 3, step b) being performed using a granulating chopping device arranged at the die outlet, comprising at least one chopping device opposite the die plate, through which the polyamide is extruded, and a cooling device, in which the chopping device and the die plate are arranged in a water-filled chamber and characterized in that the expanding agent is a chemical compound that can react chemically with the polyamide by heating, to generate a gas.
A method for testing a software application program, comprising: recording a sequence of functional tests that are applied to the program; automatically identifying and collapsing sessions within the recorded functional tests; creating modified tests by replacing parameters in the collapsed sessions with malicious inputs; and applying the modified tests to the program in order to detect security vulnerabilities in the program; wherein collapsing the sessions comprises representing resource identifiers in each session by corresponding numbers, and eliminating repeating numbers and repeating sequences of the numbers in order to derive the collapsed sessions. recording a sequence of functional tests that are applied to the program; automatically identifying and collapsing sessions within the recorded functional tests; creating modified tests by replacing parameters in the collapsed sessions with malicious inputs; and applying the modified tests to the program in order to detect security vulnerabilities in the program; wherein collapsing the sessions comprises representing resource identifiers in each session by corresponding numbers, and eliminating repeating numbers and repeating sequences of the numbers in order to derive the collapsed sessions.
A pad-equipped lift device (10, 150, 160, 170) comprising a body and a pad (42, 48, 54, 60, 66, 82, 90, 100, 108, 116, 124, 132, 182), and sucking an article by Bernoulli Effect, wherein the pad includes a connecting portion (44, 50, 56, 62, 68, 84, 92, 102, 110, 118, 126, 134, 184) attached to an end of the body, and a skirt portion (46, 52, 58, 64, 70, 86, 94, 104, 112, 120, 128, 138, 188) that is flexible and expands toward a distal end of the skirt portion, and air flowing along an end surface of the body flows on an inner side of the skirt portion of the pad, whereby the distal end of the skirt portion is deformed to shrink inward. wherein the pad includes a connecting portion (44, 50, 56, 62, 68, 84, 92, 102, 110, 118, 126, 134, 184) attached to an end of the body, and a skirt portion (46, 52, 58, 64, 70, 86, 94, 104, 112, 120, 128, 138, 188) that is flexible and expands toward a distal end of the skirt portion, and a connecting portion (44, 50, 56, 62, 68, 84, 92, 102, 110, 118, 126, 134, 184) attached to an end of the body, and a skirt portion (46, 52, 58, 64, 70, 86, 94, 104, 112, 120, 128, 138, 188) that is flexible and expands toward a distal end of the skirt portion, and air flowing along an end surface of the body flows on an inner side of the skirt portion of the pad, whereby the distal end of the skirt portion is deformed to shrink inward.
A method for a domain name system, DNS, server, for configuring the DNS server to correspond to a name server, NS, partition of at least two NS partitions divided according to network carriers and/or regions, the method comprising: based on an IP address of the DNS server, obtaining an NS partition on which the DNS server has traffic by comparing an IP address of the DNS server with a name server, NS, configuration table to determine a name server, NS, region served by the DNS server to obtain the corresponding NS partition; during registration or updating the domain name configuration information, from local records or a local database, filtering out domain name configuration information belonging to the NS partition corresponding to the DNS server; wherein the local records or the local database stores all the domain name configuration information; and loading the filtered-out domain name configuration information into a memory of the DNS server and avoiding loading domain name configuration information belonging to other NS partition into the memory of the DNS server. based on an IP address of the DNS server, obtaining an NS partition on which the DNS server has traffic by comparing an IP address of the DNS server with a name server, NS, configuration table to determine a name server, NS, region served by the DNS server to obtain the corresponding NS partition; during registration or updating the domain name configuration information, from local records or a local database, filtering out domain name configuration information belonging to the NS partition corresponding to the DNS server; wherein the local records or the local database stores all the domain name configuration information; and loading the filtered-out domain name configuration information into a memory of the DNS server and avoiding loading domain name configuration information belonging to other NS partition into the memory of the DNS server.
Device for recontouring a gas turbine blade, comprising: - at least one support (6a, 6b) configured to rest on an edge of the gas turbine blade during the recontouring, - at least one side bearing (5a, 5b) configured to rest against the suction- and/or pressure side (3b, 3c) of the gas turbine blade in a lateral direction during the recontouring, - a machining unit via which the gas turbine blade is cutting machined in a machining direction along the edge, wherein the machining unit can be displaced perpendicularly to the machining direction, characterised in that the side bearings (5a, 5b) each comprise at least two contact points and/or contact faces. - at least one support (6a, 6b) configured to rest on an edge of the gas turbine blade during the recontouring, - at least one side bearing (5a, 5b) configured to rest against the suction- and/or pressure side (3b, 3c) of the gas turbine blade in a lateral direction during the recontouring, - a machining unit via which the gas turbine blade is cutting machined in a machining direction along the edge,
A snowboard comprising a board with a tip (2,6) comprising a central sole surface and a lateral sole surface, a sliding surface (1,5) and steel edges along the outer edge of the board, the board is arranged for mounting two bindings on the board's surface, the board is provided with inwardly curved edge portions, the board having greater width at both ends at transition lines E, V to the tip(s) than at a middle, and the sliding surface (1,5) towards the transition lines E,V of the snowboard has a three-dimensional sliding surface which is substantially tripartite, with a right lateral sliding surface, a central sliding surface and a left lateral sliding surface towards the transition lines E,V to the tip(s) and the lateral sliding surfaces extend over a length which altogether at both ends of the board forms at least 10% of the sliding surface's total length, which is taken relative to a plane defined by the sliding surface when it is pressed down against the ground, such as when the snowboard is lying flat and without camber, characterized in that the steel edges at the tip's lateral sole surface, viewed in cross section, has an increasing uplift relative to the tip's central sole surface from the transition line E situated between the central sliding surface and the tip's central sole surface, to a cross section line C in the tip located in front of the transition line E, where the uplift of the steel edges in the cross section line C, measured in mm, is at least 20% greater than in transition line E.
A control device for a hybrid vehicle comprising an engine, a motor which drives by power of a battery, and an air conditioner which operates by power of the battery, comprising: a target driving force calculation unit configured to calculate a target value of driving force transmitted to a drive wheel from a driving source as target driving force (P t0); an air conditioner managing unit for managing ON/OFF state of the air conditioner; and a control unit configured to calculate a request output (P d) by adding the target driving force (P t0) to a system output requested to the drive source by a system request, calculate an operation point of the engine for optimally driving the engine in response to the request output, control the engine to drive at the operation point, and control the motor based on the request output (P d); characterized in that the control unit calculates the request output (P d) by subtracting a driving force which corresponds to power consumption consumed by the air conditioner from the target driving force (P t0) and by adding an engine output (P E) required to generate the power consumption by the motor to the system output and controls the driving force transmitted to a drive wheel, when the air conditioner is in the ON state, and the control unit calculates the request output (P d) without subtracting the driving force which corresponds to the power consumption from the target driving force (P t0) when the air conditioner is in the ON state, a vehicle speed of the hybrid vehicle is equal to or below a predetermined vehicle speed (V th), and an accelerator opening is equal to or below a predetermined value (APO th). a target driving force calculation unit configured to calculate a target value of driving force transmitted to a drive wheel from a driving source as target driving force (P t0); an air conditioner managing unit for managing ON/OFF state of the air conditioner; and a control unit configured to calculate a request output (P d) by adding the target driving force (P t0) to a system output requested to the drive source by a system request, calculate an operation point of the engine for optimally driving the engine in response to the request output, control the engine to drive at the operation point, and control the motor based on the request output (P d); characterized in that the control unit calculates the request output (P d) by subtracting a driving force which corresponds to power consumption consumed by the air conditioner from the target driving force (P t0) and by adding an engine output (P E) required to generate the power consumption by the motor to the system output and controls the driving force transmitted to a drive wheel, when the air conditioner is in the ON state, and the control unit calculates the request output (P d) without subtracting the driving force which corresponds to the power consumption from the target driving force (P t0) when the air conditioner is in the ON state, a vehicle speed of the hybrid vehicle is equal to or below a predetermined vehicle speed (V th), and an accelerator opening is equal to or below a predetermined value (APO th).
An air conditioner comprising: a housing having a first blowing port and a second blowing port (210, 410); a blowing fan configured to suction air into the housing to flow the air to the first blowing port or the second blowing port (210, 410); a first door configured to open or close the first blowing port; a second door (220, 420) configured to open or close the second blowing port (210,410); and a guide blade configured to be movable to a first position in which the air blown from the blowing fan is guided to the first blowing port and a second position in which the air blown from the blowing fan is guided to the second blowing port (210, 410), wherein the first door includes a first blade configured to open or close the first blowing port, and a second blade spaced apart from the first blade and configured to overlap at least a part of the first blade, and the guide blade is configured to close a path toward the first blowing port together with the second blade at the second position. a housing having a first blowing port and a second blowing port (210, 410); a blowing fan configured to suction air into the housing to flow the air to the first blowing port or the second blowing port (210, 410); a first door configured to open or close the first blowing port; a second door (220, 420) configured to open or close the second blowing port (210,410); and a guide blade configured to be movable to a first position in which the air blown from the blowing fan is guided to the first blowing port and a second position in which the air blown from the blowing fan is guided to the second blowing port (210, 410), wherein the first door includes a first blade configured to open or close the first blowing port, and a second blade spaced apart from the first blade and configured to overlap at least a part of the first blade, and the guide blade is configured to close a path toward the first blowing port together with the second blade at the second position.
Assembly comprising a sanitary single-lever washstand fitting and a washstand, wherein the sanitary single-lever washstand fitting comprises a single-lever cartridge, a fitting body having a water outlet, a fitting handle and inlet hoses for cold water and hot water, wherein the single-lever cartridge has a cartridge housing, a cartridge base, a cartridge bearing, sealing washers, a pivot and a mixed water outlet and the cartridge housing is formed in one piece with the cartridge base, wherein the fitting body is placed over the single-lever cartridge, and wherein the single-lever cartridge is fastened directly to the washstand and the fitting body is fastened to the single-lever cartridge, and wherein the cartridge base is expanded in the axial direction of the single-lever cartridge toward the washstand and the inlet hoses are fastened only to the expanded cartridge base by means of a snap connection, and wherein channels are arranged in the cartridge base, to which channels the inlet hoses are connected, and which channels lead to the sealing washers in the single-lever cartridge.
A method for transmitting uplink, UL, data using a hybrid automatic repeat request, HARQ, scheme by a user equipment, UE, in a wireless communication system supporting Multiple Input Multiple Output, MIMO, transmission, the method comprising: transmitting a plurality of data blocks to a base station, BS, on the basis of an uplink, UL, grant; receiving control information indicating a negative acknowledgement, NACK, of some data block from among the plurality of data blocks from the BS; selecting a precoding matrix to be applied to a data block indicated by the NACK according to a predetermined rule shared between the UE and the BS; and retransmitting the NACK-indicated data block to the BS using the selected precoding matrix, wherein the predetermined rule is configured to determine a codebook index on the basis of an index of a redundancy version, RV, of the retransmitted data block, wherein a precoding matrix corresponding to the determined codebook index is selected from among a codebook corresponding to a rank of the retransmission, wherein the predetermined rule satisfies "i = a × r + b", where 'i' is the codebook index, 'r' is an index of the RV, and 'a' and 'b' are determined according to the number of transmission antennas of the UE, wherein in case of the number of transmission antennas is 2, 'a' is determined as 1 and 'b' is determined as 0, and wherein in case of the number of transmission antennas is 4, 'a' is determined as 4 and 'b' is determined as one of 0, 1, 2 and 3. transmitting a plurality of data blocks to a base station, BS, on the basis of an uplink, UL, grant; receiving control information indicating a negative acknowledgement, NACK, of some data block from among the plurality of data blocks from the BS; selecting a precoding matrix to be applied to a data block indicated by the NACK according to a predetermined rule shared between the UE and the BS; and retransmitting the NACK-indicated data block to the BS using the selected precoding matrix,
A numbering unit of a numbering device, said numbering unit comprising rotatable numbering wheels carrying alpha-numerical symbols thereon, which numbering wheels are disposed next to each other for rotation about a common rotation axis and a common shaft (17; 17*), wherein said numbering unit comprises a releasable indexing mechanism (50'; 7a', 510, 520) for mechanically aligning and maintaining the position of said numbering wheels during a numbering operation, once the numbering wheels have been rotated to their target positions, characterized in that the common shaft (17; 17*) does not rotate, and wherein the releasable indexing mechanism (50'; 7a', 510, 520) comprises a movable indexing member (50'; 510) extending parallel to said rotation axis, which movable indexing member (50'; 510) is disposed in a radial opening (17c; 17c*) provided in the common shaft (17; 17*) and is adapted to be pushed vertically into indexing grooves provided on an inner periphery of said numbering wheels.
Ball seat valve for adjusting a throughflow of a fluid medium, having a valve seat and having a rounded closing element, in particular a valve ball, furthermore having an inlet with a prethrottle and having a diffuser arranged between the prethrottle and the valve seat, wherein the inlet furthermore has a constriction, characterized in that the constriction has a frustoconical section with a sharp-edged shoulder on the side facing towards the valve seat, at which side the frustoconical section transitions into a cylindrical diffuser valve seat section, wherein the frustoconical section encloses an angle of between 5° and 25° with the diffuser, the shoulder is connected to the diffuser valve seat section via a cylindrical-disc-shaped shoulder wall, and the shoulder wall is oriented or arranged at right angles to the diffuser longitudinal axis.
A sport ball comprising: a casing that forms at least a portion of an exterior surface of the ball, the casing being formed from a plurality of fluid-filled chambers, and wherein the exterior of the sport ball is formed from the plurality of fluid-filled chambers; and a bladder located within the casing, the bladder having a sealed and valveless structure that encloses a pressurized gas. a casing that forms at least a portion of an exterior surface of the ball, the casing being formed from a plurality of fluid-filled chambers, and wherein the exterior of the sport ball is formed from the plurality of fluid-filled chambers; and a bladder located within the casing, the bladder having a sealed and valveless structure that encloses a pressurized gas.
A testing arrangement for performing an in-situ adhesion test of a cold spray deposit on a surface of a structure, the testing arrangement comprising: a specimen member comprising a number of apertures defined therein; and a loading arrangement coupled to the specimen member, the loading arrangement being configured to provide a mechanical force of a known magnitude to the specimen member. a specimen member comprising a number of apertures defined therein; and a loading arrangement coupled to the specimen member, the loading arrangement being configured to provide a mechanical force of a known magnitude to the specimen member.
A composition comprising: (a) 5 isolated FlaB peptides that each comprise a Borrelia T-cell epitope and are selected from the FlaB peptides as defined in SEQ ID NOS:1-5, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS:1-5; (b) 13 isolated DbpB peptides that each comprise a Borrelia T-cell epitope and are selected from the DbpB peptides as defined in SEQ ID NOS:6-18, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS:6-18; (c) 13 isolated p66 peptides that each comprise a Borrelia T-cell epitope and are selected from the p66 peptides as defined in SEQ ID NOS: 19-31, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS: 19-31; and (d) 2 isolated OspC peptides that each comprise a Borrelia T-cell epitope and are selected from the OspC peptides as defined in SEQ ID NOS:32-33, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS:32-33. (a) 5 isolated FlaB peptides that each comprise a Borrelia T-cell epitope and are selected from the FlaB peptides as defined in SEQ ID NOS:1-5, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS:1-5; (b) 13 isolated DbpB peptides that each comprise a Borrelia T-cell epitope and are selected from the DbpB peptides as defined in SEQ ID NOS:6-18, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS:6-18; (c) 13 isolated p66 peptides that each comprise a Borrelia T-cell epitope and are selected from the p66 peptides as defined in SEQ ID NOS: 19-31, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS: 19-31; and (d) 2 isolated OspC peptides that each comprise a Borrelia T-cell epitope and are selected from the OspC peptides as defined in SEQ ID NOS:32-33, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS:32-33.