mhurhangee/ep-ind-claims huggingface dataset:
Gas cylinder valve (2; 102) comprising: - a body (4; 104) with an inlet (18; 118), an outlet (40; 140) and a passage (20; 120) fluidly interconnecting said inlet and outlet; - a shut-off device (22; 122) with a seat (26; 126) formed in the passage (20; 120) and a shutter (24; 124) movable along a longitudinal axis (7; 107) for cooperating with said seat; - a spindle (12; 112) rotatably mounted on the body (4; 104) along the longitudinal axis (7; 107) and cooperating with the shutter (24; 124) such as to move said shutter upon rotation of said spindle; - a residual pressure device (28; 128) fluidly downstream of the shut-off device (22; 122), with a seat (32; 132) formed in the passage (20; 120) and a piston (30; 130) movable along a transversal axis (38; 138); characterized in that at least one of the shutter (24; 124) and the piston (30; 130) shows a recess (130.4) or opening (24.4) accommodating the other of said shutter and piston. - a body (4; 104) with an inlet (18; 118), an outlet (40; 140) and a passage (20; 120) fluidly interconnecting said inlet and outlet; - a shut-off device (22; 122) with a seat (26; 126) formed in the passage (20; 120) and a shutter (24; 124) movable along a longitudinal axis (7; 107) for cooperating with said seat; - a spindle (12; 112) rotatably mounted on the body (4; 104) along the longitudinal axis (7; 107) and cooperating with the shutter (24; 124) such as to move said shutter upon rotation of said spindle; - a residual pressure device (28; 128) fluidly downstream of the shut-off device (22; 122), with a seat (32; 132) formed in the passage (20; 120) and a piston (30; 130) movable along a transversal axis (38; 138);
A tire suitable for incorporating an air maintenance or self-inflating feature within the tire, the tire comprising a tire cavity; a first and a second sidewall (30, 32) extending to a tire tread region; an elongate sidewall groove extending into the first tire sidewall from an axial outward first sidewall surface, the sidewall groove having an axial outer groove entry opening, a groove entry chamber axially inward from the groove entry opening defined by divergent entry chamber sidewalls (66, 68), and a groove primary chamber axially inward from the groove entry chamber defined by primary chamber sidewalls, the groove entry chamber sidewalls (66, 68) and the groove primary chamber sidewalls intersecting and forming at the intersection a detent channel (72, 74) substantially extending a longitudinal length of the sidewall groove; and an elongate air tube positioned within the elongate sidewall groove in at least partial contacting engagement with the groove primary chamber sidewalls, the air tube having an internal air passageway and a primary air tube body, the primary air tube body having an external surface configuration defined by primary air tube body external sides substantially adjacent and extending in parallel with the groove primary chamber sidewalls, wherein the elongate sidewall groove, the elongate air tube and the internal air passageway at least partially extend in the circumferential direction, characterized in that the primary air tube body has an axially outward air tube body protrusion, the air tube body protrusion having an external surface configuration defined by protrusion external sides substantially adjacent and extending in parallel with the groove entry chamber sidewalls, wherein the primary air tube body external sides and the air tube body protrusion external sides intersect and form at the intersection a shoulder (57, 59) residing within the detent channel (72, 74) of the sidewall groove.
A self-erecting box for containing three bottles or the like or a multiple of three bottles or the like in overlapping rows and in a lying down position, said box comprising four side faces (21, 22, 23 and 24), four lower flaps (26, 27, 28 and 29) which during the assembly of the box come into contact with each other for constituting the bottom of the box itself, the side faces being joined to the corresponding lower flaps through a first fold line, a first flap and a second flap of the said four lower flaps each having a respective pair of protruding elements (34, 35; 36, 37) respectively separated by a groove, and that are joined to the respective first and second flap through a respective second and third fold line, parallel to each other, wherein a protruding element of each pair (34, 35) comes into contact with a protruding element of the other pair (36, 37) during the assembly of the box determining the formation, inside the box itself, of a pair of lower vertical separation elements for the insertion of three bottles lying on their side, characterised in that said groove has an inclined conformation with respect to a virtual line joining at 90° the extensions of the respective second and third fold lines of said protruding element, whereby the vertical arrangement of the lower vertical separation elements is determined on one hand by the reciprocal thrust of two protruding elements (34, 37) and on the other hand by two further protruding elements (35, 36), which by pressing against each other during the assembly step, are lifted positioning themselves vertically starting from a substantially planar position of two of the flaps (26, 28).
Surgical filament tensioning device comprising an axial handle extending in the longitudinal direction of the tensioning device, a shaft connected with the axial handle, a through opening running through the handle and the shaft in the longitudinal direction of the tensioning device and a tensioning element with a filament holder for fixing the filament, wherein the filament holder is arranged on the opposite side of the axial handle to the shaft, wherein the filament holder is connected with the handle by means of a retaining element and the through opening extends through the retaining element, and wherein the filament holder is offset in relation to the handle in the longitudinal direction of the tensioning device, i.e. is arranged not laterally next to the handle but within a virtual extension of the handle in the longitudinal direction in a plan view perpendicular to the longitudinal axis of the tensioning device and perpendicular to the axis of rotation (y) of the filament holder.
Receptacle for the at least partial press-fitting reception of at least one battery cell for a battery module, wherein the receptacle has at least two end plates which can be arranged on two opposite sides of the at least one battery cell, wherein the end plates are connected by a plurality of connecting means, which are fixed to the end plates and which each have at least two plug elements, in such a way that for fixing the connecting means to the end plates, the plug elements of the connecting means engage in sockets of the end plates that extend in a plane arranged substantially at a right angle to the direction of extent of the connecting means, wherein the connecting means are formed in one piece, characterized in that the sockets pass completely through the end plates.
Pipette device (10; 110; 210) comprising at least one pipette channel (18; 118; 218) which has a coupling piece (12; 112; 212) designed to be inserted along an insertion axis in an insertion direction into a coupling sleeve region (16; 116; 216) of a pipette tip (14; 114; 214) which surrounds the outside of the coupling piece (12; 112; 212) when in the coupled state, in order to couple the pipette tip (14; 114; 214) to the pipette channel (18; 118; 218) for operation, characterised in that a region, which is located radially inside the pipette tip (14; 114; 214) when the pipette tip (14; 114; 214) is coupled, of the coupling piece (12; 112; 212) comprises at least one vibration excitation means (38; 138; 238) which is designed to excite a mode of vibration on a component (14; 114; 214) or component portion (16; 116; 216) which is in abutting engagement with the vibration excitation means, and in that a region, which is located radially inside the pipette tip (14; 114; 214) when the pipette tip (14; 114; 214) is coupled, the coupling piece (12; 112; 212) comprises at least one vibration sensor (38; 138; 238) designed to detect a mode of vibration of a component (14; 114; 214) or component portion (16; 116; 216) which is in abutting engagement with the vibration sensor.
A dishwasher comprising: a washing chamber to perform dishwashing; a water collecting portion provided at a lower portion of the washing chamber to gather water used for washing; and a sensing module which is disposed in the water collecting portion and integrally comprises a water sensing sensor to sense whether or not water is present and a temperature sensor to sense a temperature of water, wherein the water sensing sensor comprises a capacitive sensor. a washing chamber to perform dishwashing; a water collecting portion provided at a lower portion of the washing chamber to gather water used for washing; and a sensing module which is disposed in the water collecting portion and integrally comprises a water sensing sensor to sense whether or not water is present and a temperature sensor to sense a temperature of water, wherein the water sensing sensor comprises a capacitive sensor.
A method for the formation of multi-layer paint films which have a colored paint film layer and a clear paint film layer which has: an electro-deposition coating process in which electro-deposition coating is carried out on a base material and a cured electro-deposited paint film of which the L-value is from 30 to 50 is formed, a first colored paint coating process in which, after the electro-deposition coating process, a first aqueous colored paint which is characterized by containing from 50 to 60 mass% with respect to the whole paint solid fraction of titanium oxide of specific surface area not more than 13 m 2 /g is coated over the cured electro-deposited paint film, a preliminary heating process in which preliminary heating is carried out with the first colored paint film which has been formed by means of the first colored paint coating process, a clear coating process in which the coating of a clear paint is carried out over the preliminary heated first colored paint film, and a curing process in which the clear paint film which has been formed in the clear coating process and the preliminary heated first colored paint are heated and cured at the same time, and in which the L-value of the first colored paint film is 85 or above and the difference, when the paint solid fraction content of the first colored paint film, 2 minutes after coating the first aqueous colored paint, is compared with the paint solid fraction content of the first aqueous colored paint, immediately before coating, is not more than 11 mass%. an electro-deposition coating process in which electro-deposition coating is carried out on a base material and a cured electro-deposited paint film of which the L-value is from 30 to 50 is formed, a first colored paint coating process in which, after the electro-deposition coating process, a first aqueous colored paint which is characterized by containing from 50 to 60 mass% with respect to the whole paint solid fraction of titanium oxide of specific surface area not more than 13 m 2 /g is coated over the cured electro-deposited paint film, a preliminary heating process in which preliminary heating is carried out with the first colored paint film which has been formed by means of the first colored paint coating process, a clear coating process in which the coating of a clear paint is carried out over the preliminary heated first colored paint film, and a curing process in which the clear paint film which has been formed in the clear coating process and the preliminary heated first colored paint are heated and cured at the same time, and in which the L-value of the first colored paint film is 85 or above and the difference, when the paint solid fraction content of the first colored paint film, 2 minutes after coating the first aqueous colored paint, is compared with the paint solid fraction content of the first aqueous colored paint, immediately before coating, is not more than 11 mass%.
A computer-implemented method for providing resource usage feedback to a plurality of clients (112, 114) having access to a shared resource, the method comprising: monitoring a rate of usage of the shared resource by at least a portion of the clients (112, 114), wherein each client (112, 114) has been reserved a minimum usage rate for the shared resource; the method comprising: upon detecting that the rate of usage of the shared resource has exceeded a maximum rate supported by the shared resource, determining a congestion metric for each of the clients (112, 114) that are currently attempting to access the shared resource, wherein the congestion metric for each client (112, 114) is based on the client's usage of the shared resource; and transmitting the corresponding determined congestion metric to each of the clients (112, 114) that are currently attempting to access the shared resource, wherein, in response, the congestion metric is used by each of the clients (112, 114) to calculate a zero or non-zero delay period prior attempting another access of the shared resource. monitoring a rate of usage of the shared resource by at least a portion of the clients (112, 114), wherein each client (112, 114) has been reserved a minimum usage rate for the shared resource; the method comprising: upon detecting that the rate of usage of the shared resource has exceeded a maximum rate supported by the shared resource, determining a congestion metric for each of the clients (112, 114) that are currently attempting to access the shared resource, wherein the congestion metric for each client (112, 114) is based on the client's usage of the shared resource; and transmitting the corresponding determined congestion metric to each of the clients (112, 114) that are currently attempting to access the shared resource, wherein, in response, the congestion metric is used by each of the clients (112, 114) to calculate a zero or non-zero delay period prior attempting another access of the shared resource. upon detecting that the rate of usage of the shared resource has exceeded a maximum rate supported by the shared resource, determining a congestion metric for each of the clients (112, 114) that are currently attempting to access the shared resource, wherein the congestion metric for each client (112, 114) is based on the client's usage of the shared resource; and transmitting the corresponding determined congestion metric to each of the clients (112, 114) that are currently attempting to access the shared resource, wherein, in response, the congestion metric is used by each of the clients (112, 114) to calculate a zero or non-zero delay period prior attempting another access of the shared resource.
A method, comprising: receiving, at a self-optimizing network entity, SON, measurements of radio frequency parameters of a distributed antenna system, DAS; determining, with the SON, adjustments to operations and management parameters of a radio base station, RBS, using the measurements of the radio frequency parameters of the DAS; and sending, from the SON, commands to the RBS for changing the operations and management parameters of the RBS using the determined adjustments; wherein the radio frequency parameters of the DAS include an uplink DAS gain, a downlink DAS gain, and an uplink DAS noise power; wherein adjustments to the operations and management parameters include an updated value for an uplink RBS gain; and wherein the updated value for the uplink RBS gain is determined by calculating an uplink DAS noise rise, and summing the uplink DAS noise rise with a difference of the uplink DAS gain and the downlink DAS gain. receiving, at a self-optimizing network entity, SON, measurements of radio frequency parameters of a distributed antenna system, DAS; determining, with the SON, adjustments to operations and management parameters of a radio base station, RBS, using the measurements of the radio frequency parameters of the DAS; and sending, from the SON, commands to the RBS for changing the operations and management parameters of the RBS using the determined adjustments; wherein the radio frequency parameters of the DAS include an uplink DAS gain, a downlink DAS gain, and an uplink DAS noise power; wherein adjustments to the operations and management parameters include an updated value for an uplink RBS gain; and wherein the updated value for the uplink RBS gain is determined by calculating an uplink DAS noise rise, and summing the uplink DAS noise rise with a difference of the uplink DAS gain and the downlink DAS gain.
A core for a high-frequency transformer, having a shape formed by winding an Fe-based nanocrystalline alloy ribbon produced by a single-roll process with an insulating layer interposed, the Fe-based nanocrystalline alloy ribbon having a roll contact surface and a free surface, wherein the free surface of the Fe-based nanocrystalline alloy ribbon has dispersed thereon crater-like projections with a concave, and characterised in that the projections each have a top part that is ground and blunted.
A bearing steel excellent in rolling-contact fatigue properties consisting of in terms of mass% C: 0.95-1.10%; Si: 0.15-0.35%; Mn: 0.2-0.50%; Cr: 1.30-1.60%; P: 0.025% or less, exclusive of 0%; S: 0.025% or less, exclusive of 0%; Ni: 0.02-0.25%; Cu: 0.02-0.25%; optionally Mo: less than 0.08%; Al: 0.001%-0.050%; Ti: 0.0015% or less, exclusive of 0%; O: 0.001% or less, exclusive of 0%; and N: 0.020% or less, exclusive of 0%; with the remainder consisting of iron and inevitable impurities, wherein boundary Si, boundary Mn, boundary Cr, boundary Cu, boundary Ni and boundary Mo included in the matrix phase region (boundary surface region) from the surface of spheroidized cementite to 20 nm away satisfy the formula below. 9.0 ≤ 1, 4 × boundary S i + 1.8 × boudary M n + 5.5 × boundary C u + 4.2 × boundary N i + 4.8 × boundary C r + 5.5 × boundary M o wherein in the formula, boundary Si, boundary Mn, boundary Cu, boundary Ni, boundary Cr, and boundary Mo represent the content in mass% of Si, Mn, Cu, Ni, Cr and Mo, respectively, which are included in the matrix phase region (boundary surface region) from the surface of spheroidized cementite to 20 nm away.
A computing system operable to facilitate software testing assurance, the system comprising: a processor; a memory in operable communication with the processor; and an assurance code, which upon execution with the processor performs a software testing assurance method that includes (a) receiving a code update submission S-current, the submission S-current including a portion P-current which includes an update to a source code, (b) determining that the portion P-current is at least partially covered by a test-set TS-current of a testing suite, (c) ascertaining whether the test-set TS-current differs from a test-set TS-prior which at least partially covered a portion P-prior of a code update submission S-prior, where S-prior is older than S-current, and where P-current updates P-prior, and (d) flagging at least one item to indicate a lack of testing assurance for the P-current update based on the TS-current test-set when the ascertaining ascertains that TS-current does not differ from TS-prior, wherein the flagging raises a flag of at least one of the following items: S-current, P-current, or TS-current. a processor; a memory in operable communication with the processor; and an assurance code, which upon execution with the processor performs a software testing assurance method that includes (a) receiving a code update submission S-current, the submission S-current including a portion P-current which includes an update to a source code, (b) determining that the portion P-current is at least partially covered by a test-set TS-current of a testing suite, (c) ascertaining whether the test-set TS-current differs from a test-set TS-prior which at least partially covered a portion P-prior of a code update submission S-prior, where S-prior is older than S-current, and where P-current updates P-prior, and (d) flagging at least one item to indicate a lack of testing assurance for the P-current update based on the TS-current test-set when the ascertaining ascertains that TS-current does not differ from TS-prior, wherein the flagging raises a flag of at least one of the following items: S-current, P-current, or TS-current.
A converter valve component, comprising a mounting frame, a plurality of Insulated Gate Bipolar Transistor (IGBT) units and a plurality of thyristor units, wherein the plurality of IGBT units forms a string structure extending along a left-right direction, the plurality of thyristor units forms a string structure extending along the left-right direction, and the plurality of thyristor units are positioned below the plurality of IGBT units; IGBTs and radiators of the plurality of IGBT units are crimped together through an IGBT spring crimping structure, every two adjacent IGBT units are spaced out through an insulating part, the IGBT spring crimping structure comprises one IGBT spring crimping unit, and all IGBT units are crimped together through the IGBT spring crimping unit; a thyristor of the thyristor unit is crimped through a thyristor spring crimping structure, the thyristor spring crimping structure comprises a plurarity of thyristor spring crimping units with a same number as same as that of the thyristor units, and the thyristor of each thyristor unit is crimped through the corresponding thyristor spring crimping unit; and the IGBT spring crimping structure is arranged on the mounting frame.
Method for generating a sideslip angle signal, a temporally delayed sideslip angle signal β delayed being determined by evaluating sensor signals, a temporally undelayed sideslip angle signal β undelayed being generated with the aid of said temporally delayed sideslip angle signal β delayed by taking account of available signals of an electronic stability program, a sideslip angle velocity being determined from the available signals of the electronic stability program, and the determined sideslip angle velocity being incorporated into the generation of the temporally undelayed sideslip angle signal β undelayed, characterized in that the sideslip angle is determined with the aid of the following calculation rule: β undelayed = T ⋅ s T ⋅ s + 1 ⋅ T T ⋅ s + 1 ⋅ β ̇ + β delayed + β delayed in which s is the Laplace variable, T is a prescribed constant, β undelayed is the undelayed sideslip angle signal, β delayed is the delayed sideslip angle signal, and β̇ is the sideslip angle velocity. s is the Laplace variable, T is a prescribed constant, β undelayed is the undelayed sideslip angle signal, β delayed is the delayed sideslip angle signal, and β̇ is the sideslip angle velocity.