mhurhangee/ep-ind-claims huggingface dataset:
A container (1; 21; 41; 81) containing a product (5; 85) to be extracted, more particularly ground coffee beans or cut tea leaves, the container being provided with a plurality of walls (7-11; 23-29; 43-49; 83) of which at least one wall portion comprises a foil (13, 15; 29; 49; 87) of liquid impermeable material, the foil being provided with a multitude of local weakenings (14; 65) in the form of laser-caused recesses provided with a bottom, characterized in that the weakenings are formed by craters and around each weakening (14; 65) a thickening and/or strengthening of the foil (13, 15; 29; 49; 87) is present having the form of a raised edge around the crater, where the material removed from the middle wholly or in part forms the raised edge around the weakened portion.
A hydrogen tank with a tank structure which at least partially delimits a tank chamber and which comprises a region designed using lightweight construction methods, hereinafter designated a cooling shield, in which a conduit system of a pressure relief system which is connected to the tank chamber is formed for discharging gaseous hydrogen (W g) from the tank chamber, wherein at least one para-ortho catalyst for the accelerated conversion of parahydrogen into orthohydrogen is disposed in the conduit system, characterized in that the cooling shield has at least two separate layers of material (14a, 14b, 14c) which form a sandwich structure, between which layers at least one hollow intermediate space, which forms at least a portion of the conduit system, is formed.
A foamed and stretched plastic container having a mouth portion and a body wall continuous to said mouth portion and is stretch-formed, said body wall forming a foamed region where foamed cells are distributed, and said mouth portion being an unfoamed region where no foamed cell is present, wherein: the foamed cells present in said foamed region have a flat shape being stretched in the direction of stretch, and said foamed cells positioned in the central portion in the direction of thickness of the container wall have the largest lengths in the direction of maximum stretch; and characterized in that the lengths of the foamed cells in the direction of maximum stretch positioned on the innermost surface side and on the outermost surface side relative to the central portion in the direction of thickness of the container wall, are smaller than the lengths of the foamed cells in the direction of maximum stretch positioned in the central portion. the foamed cells present in said foamed region have a flat shape being stretched in the direction of stretch, and said foamed cells positioned in the central portion in the direction of thickness of the container wall have the largest lengths in the direction of maximum stretch; and characterized in that the lengths of the foamed cells in the direction of maximum stretch positioned on the innermost surface side and on the outermost surface side relative to the central portion in the direction of thickness of the container wall, are smaller than the lengths of the foamed cells in the direction of maximum stretch positioned in the central portion.
An intraoral X-ray detector comprising: a sensor configured to detect X-rays; a sensor unit accommodating the sensor; a hinge unit formed on the sensor unit and, a cable connecting unit configured to be connected to an external cable and rotatably attached to the hinge unit, characterized in that the hinge unit is a connecting terminal connected to the sensor, said connecting terminal being protruded at both sides of the sensor unit; both sides of the cable connecting unit are branched in an "U" shape to be rotatably attached to the connecting terminal; and the cable connecting unit further includes a terminal connecting electrode electrically connecting the connecting terminal and the external cable. a sensor configured to detect X-rays; a sensor unit accommodating the sensor; a hinge unit formed on the sensor unit and, a cable connecting unit configured to be connected to an external cable and rotatably attached to the hinge unit, characterized in that the hinge unit is a connecting terminal connected to the sensor, said connecting terminal being protruded at both sides of the sensor unit; both sides of the cable connecting unit are branched in an "U" shape to be rotatably attached to the connecting terminal; and the cable connecting unit further includes a terminal connecting electrode electrically connecting the connecting terminal and the external cable.
A reproduction device comprising: an information reading unit configured to read sensitivity information from a storage unit of a headphone device which has a speaker reproducing an electric signal of an audible signal as a sound and the storage unit storing the sensitivity information for the speaker; an adjustment unit (2, 9a, 9b, 9c, 9d) configured to adjust an output level of the electric signal supplied to the headphone device; and a control unit configured to read the sensitivity information from the storage unit via the information reading unit, and controls the adjustment unit such that the electric signal lies in an allowable maximal output level based on the sensitivity information, characterised in that the information reading unit includes: an L channel terminal, an R channel terminal, a ground terminal, and a power and control terminal as a connection unit with the headphone device; and a connection switching unit configured to perform connection switching for the L channel terminal and the R channel terminal between a terminal state for connecting the control unit to the storage unit of the headphone device and a terminal state for supplying the audible signal to the headphone device; and wherein the control unit can communicate with the storage unit via the L channel terminal and the R channel terminal by switching the terminal states of the connection switching unit. an information reading unit configured to read sensitivity information from a storage unit of a headphone device which has a speaker reproducing an electric signal of an audible signal as a sound and the storage unit storing the sensitivity information for the speaker; an adjustment unit (2, 9a, 9b, 9c, 9d) configured to adjust an output level of the electric signal supplied to the headphone device; and a control unit configured to read the sensitivity information from the storage unit via the information reading unit, and controls the adjustment unit such that the electric signal lies in an allowable maximal output level based on the sensitivity information, an L channel terminal, an R channel terminal, a ground terminal, and a power and control terminal as a connection unit with the headphone device; and a connection switching unit configured to perform connection switching for the L channel terminal and the R channel terminal between a terminal state for connecting the control unit to the storage unit of the headphone device and a terminal state for supplying the audible signal to the headphone device; and wherein the control unit can communicate with the storage unit via the L channel terminal and the R channel terminal by switching the terminal states of the connection switching unit.
An installation mounting, featuring an upper part which comprises a bearing bracket, and a lower part which comprises a drive rod, a brace bracket and a sleeve pipe, characterised in that the upper part is attached to the sleeve pipe and the drive rod of the lower part by means of a removable plug connection, wherein the upper part comprises a sleeve pipe engaging member and a drive rod engaging member which transfers an activation onto the drive rod, wherein the sleeve pipe engaging member and the drive rod engaging member are substantially level axially.
A reinforced gabion having a box structure capable of containing inert material, comprising two adjacent walls (20, 23) with a common edge made using a single sheet of double twisted metal mesh fabric formed of metal wires (13, 14) whose diameters differ from each other in the two walls.
A pouch for fluid comprising: a first film and a second film connected to each other by means of a stronger seal (1300, 5301-5303, 6300, 7300, 8300, 9300) and a weaker seal (2700, 3700, 4700, 5701-5703, 7700, 9700, 10700, 11700) so as to form a cavity for a fluid; and an opening structure configured so as to facilitate opening of the first film and/or of the second film at least along a first length, wherein: the cavity has a perimeter and said perimeter comprises at least a part of the stronger seal (1300, 5301-5303, 6300, 7300, 8300, 9300) and at least a part of the weaker seal (2700, 3700, 4700, 5701-5703, 7700, 9700, 10700, 11700); the weaker seal (2700, 3700, 4700, 5701-5703, 7700, 9700, 10700, 11700) is in proximity of the stronger seal (1300, 5301-5303, 6300, 7300, 8300, 9300); the weaker seal (2700, 3700, 4700, 5701-5703, 7700, 9700, 10700, 11700) and the stronger seal (1300, 5301-5303, 6300, 7300, 8300, 9300) are configured such that the weaker seal (2700, 3700, 4700, 5701-5703, 7700, 9700, 10700, 11700) opens only if at least a first portion of the stronger seal (1300, 5301-5303, 6300, 7300, 8300, 9300) is opened or removed, characterised in that: the first length crosses at least the first portion of the stronger seal (1300, 5301-5303, 6300, 7300, 8300, 9300); and the first length further crosses at least a part of the weaker seal (2700, 3700, 4700, 5701-5703, 7700, 9700, 10700, 11700). the cavity has a perimeter and said perimeter comprises at least a part of the stronger seal (1300, 5301-5303, 6300, 7300, 8300, 9300) and at least a part of the weaker seal (2700, 3700, 4700, 5701-5703, 7700, 9700, 10700, 11700); the weaker seal (2700, 3700, 4700, 5701-5703, 7700, 9700, 10700, 11700) is in proximity of the stronger seal (1300, 5301-5303, 6300, 7300, 8300, 9300); the weaker seal (2700, 3700, 4700, 5701-5703, 7700, 9700, 10700, 11700) and the stronger seal (1300, 5301-5303, 6300, 7300, 8300, 9300) are configured such that the weaker seal (2700, 3700, 4700, 5701-5703, 7700, 9700, 10700, 11700) opens only if at least a first portion of the stronger seal (1300, 5301-5303, 6300, 7300, 8300, 9300) is opened or removed, the first length crosses at least the first portion of the stronger seal (1300, 5301-5303, 6300, 7300, 8300, 9300); and the first length further crosses at least a part of the weaker seal (2700, 3700, 4700, 5701-5703, 7700, 9700, 10700, 11700).
A data backup method, performed by a server, the method comprising: receiving a backup task, the backup task being used for backing up a data item of a target data table; obtaining a first snapshot difference between a first historical transaction snapshot and a second historical transaction snapshot in a case that a backup time of the backup task is a historical time period, the first historical transaction snapshot and the second historical transaction snapshot being transaction snapshots respectively at a start moment and an end moment of the historical time period; and performing the backup task according to the first snapshot difference, to obtain backup data, the backup data comprising at least a visible version of the data item in the target data table, wherein performing the backup task according to the first snapshot difference, to obtain backup data, the backup data comprising at least a visible version of the data item in the target data table, comprises: determining a first data block, the first data block storing historical state data of the target data table; and backing up the first data block by means of block copy in a case of determining, based on the first snapshot difference, that the historical state data stored in the first data block are all visible versions, to obtain the backup data. receiving a backup task, the backup task being used for backing up a data item of a target data table; obtaining a first snapshot difference between a first historical transaction snapshot and a second historical transaction snapshot in a case that a backup time of the backup task is a historical time period, the first historical transaction snapshot and the second historical transaction snapshot being transaction snapshots respectively at a start moment and an end moment of the historical time period; and performing the backup task according to the first snapshot difference, to obtain backup data, the backup data comprising at least a visible version of the data item in the target data table, wherein performing the backup task according to the first snapshot difference, to obtain backup data, the backup data comprising at least a visible version of the data item in the target data table, comprises: determining a first data block, the first data block storing historical state data of the target data table; and backing up the first data block by means of block copy in a case of determining, based on the first snapshot difference, that the historical state data stored in the first data block are all visible versions, to obtain the backup data. determining a first data block, the first data block storing historical state data of the target data table; and backing up the first data block by means of block copy in a case of determining, based on the first snapshot difference, that the historical state data stored in the first data block are all visible versions, to obtain the backup data.
A chain wear monitor comprising: two sensors [L1, L2] for sensing predetermined spaced measuring points on a chain, said two sensors [L1, L2] being spaced apart from one another a predetermined distance which is less than the distance between adjacent ones of said spaced measuring points on said chain; one of said sensors being the upstream sensor, as determined by the direction of travel of the chain, and the other of said sensors being the downstream sensor; two timers [T1, T2], one of which is a chain speed timer and the other of which is a chain wear timer, both said timers being controlled by said spaced sensors [L1, L2]; said upstream sensor configured to turn said chain speed timer on and said wear timer off when sensing the passage of every one of said spaced measuring points on said chain; said downstream sensor configured to turn said speed timer off and said wear timer on when it senses the passage of every one of said spaced measuring points on said chain; a computing module which is configured to determine the speed at which the chain is moving as a function of the length of time, as determined by said speed timer, it takes a measuring point on the chain to pass from said upstream sensor to said downstream sensor; said computing module configured to determine the degree of wear on said chain as a function of the speed of the chain and the wear time which said wear timer is on, as compared to the baseline value for the same function when the chain is new. two sensors [L1, L2] for sensing predetermined spaced measuring points on a chain, said two sensors [L1, L2] being spaced apart from one another a predetermined distance which is less than the distance between adjacent ones of said spaced measuring points on said chain; one of said sensors being the upstream sensor, as determined by the direction of travel of the chain, and the other of said sensors being the downstream sensor; two timers [T1, T2], one of which is a chain speed timer and the other of which is a chain wear timer, both said timers being controlled by said spaced sensors [L1, L2]; said upstream sensor configured to turn said chain speed timer on and said wear timer off when sensing the passage of every one of said spaced measuring points on said chain; said downstream sensor configured to turn said speed timer off and said wear timer on when it senses the passage of every one of said spaced measuring points on said chain; a computing module which is configured to determine the speed at which the chain is moving as a function of the length of time, as determined by said speed timer, it takes a measuring point on the chain to pass from said upstream sensor to said downstream sensor; said computing module configured to determine the degree of wear on said chain as a function of the speed of the chain and the wear time which said wear timer is on, as compared to the baseline value for the same function when the chain is new.
A liquid electrophotographic varnish composition comprising: a polymer resin; an epoxy-based cross-linking agent; a metal catalyst for catalysing the cross-linking of the polymer resin with the epoxy-based cross-linking agent; and a carrier liquid. a polymer resin; an epoxy-based cross-linking agent; a metal catalyst for catalysing the cross-linking of the polymer resin with the epoxy-based cross-linking agent; and a carrier liquid.
A bearing comprising: a generally cylindrical sidewall having a thickness, t sw; a feature projecting radially outward from the generally cylindrical sidewall, wherein the feature has an axial height of at least 2.0 t sw; and a flange disposed at an axial end of the generally cylindrical sidewall and spaced apart from the feature, wherein the generally cylindrical sidewall has a first axial end and a second axial end, wherein the flange is disposed at the second axial end of the generally cylindrical sidewall, and wherein a distance between the first axial end of the generally cylindrical sidewall and a first axial end of the feature is different from a distance between a second axial end of the feature and the second axial end of the generally cylindrical sidewall, wherein the generally cylindrical sidewall comprises a substrate and a low friction layer disposed along at least a portion of the substrate, wherein the low friction layer is disposed along an inner surface of the generally cylindrical sidewall, wherein the feature is disposed adjacent to a first component in the assembled state, wherein an outermost surface of the flange is disposed adjacent to a second component, and an outermost diameter, OD FL, of the flange is greater than the outermost diameter, OD F, of the feature. a generally cylindrical sidewall having a thickness, t sw; a feature projecting radially outward from the generally cylindrical sidewall, wherein the feature has an axial height of at least 2.0 t sw; and a flange disposed at an axial end of the generally cylindrical sidewall and spaced apart from the feature, wherein the generally cylindrical sidewall has a first axial end and a second axial end, wherein the flange is disposed at the second axial end of the generally cylindrical sidewall, and wherein a distance between the first axial end of the generally cylindrical sidewall and a first axial end of the feature is different from a distance between a second axial end of the feature and the second axial end of the generally cylindrical sidewall, wherein the generally cylindrical sidewall comprises a substrate and a low friction layer disposed along at least a portion of the substrate, wherein the low friction layer is disposed along an inner surface of the generally cylindrical sidewall, wherein the feature is disposed adjacent to a first component in the assembled state, wherein an outermost surface of the flange is disposed adjacent to a second component, and an outermost diameter, OD FL, of the flange is greater than the outermost diameter, OD F, of the feature.
A backlight unit (120, 200, 800a, 800b, 800c, 900, 1100, 1200) comprising: a plurality of light sources (217, 542, 622, 810a, 910a, 1110a, 1210a) configured to emit primary light (10, 10a, 11 a, 12a); and a quantum dot composite (840a, 840b, 840c, 940, 1040, 1140, 1240), wherein the quantum dot composite (840a, 840b, 840c, 940, 1040, 1140, 1240) comprises: quantum dot phosphors (841, 841a, 841b, 941, 941a, 941b, 1041, 1041a, 1041b) excited by the primary light (10, 10a, 11 a, 12a) supplied from the plurality of light sources (217, 542, 622, 810a, 910a, 1110a, 1210a) so as to emit secondary light (20b, 20c, 21b, 21c) having a different wavelength than the primary light (10, 10a, 11a, 12a); and scattering particles (1042, 1042a, 1042b) configured to scatter the primary light (10, 10a, 11a, 12a), wherein the scattering particles (1042, 1042a, 1042b) comprise: first scattering particles; and second scattering particles different from the first scattering particles in size and characterised in that; the second scattering particles are composed of particles each having a diameter in the range of 5 nm to 50 nm. a plurality of light sources (217, 542, 622, 810a, 910a, 1110a, 1210a) configured to emit primary light (10, 10a, 11 a, 12a); and a quantum dot composite (840a, 840b, 840c, 940, 1040, 1140, 1240), wherein the quantum dot composite (840a, 840b, 840c, 940, 1040, 1140, 1240) comprises: quantum dot phosphors (841, 841a, 841b, 941, 941a, 941b, 1041, 1041a, 1041b) excited by the primary light (10, 10a, 11 a, 12a) supplied from the plurality of light sources (217, 542, 622, 810a, 910a, 1110a, 1210a) so as to emit secondary light (20b, 20c, 21b, 21c) having a different wavelength than the primary light (10, 10a, 11a, 12a); and scattering particles (1042, 1042a, 1042b) configured to scatter the primary light (10, 10a, 11a, 12a), wherein the scattering particles (1042, 1042a, 1042b) comprise: first scattering particles; and second scattering particles different from the first scattering particles in size and characterised in that; the second scattering particles are composed of particles each having a diameter in the range of 5 nm to 50 nm. quantum dot phosphors (841, 841a, 841b, 941, 941a, 941b, 1041, 1041a, 1041b) excited by the primary light (10, 10a, 11 a, 12a) supplied from the plurality of light sources (217, 542, 622, 810a, 910a, 1110a, 1210a) so as to emit secondary light (20b, 20c, 21b, 21c) having a different wavelength than the primary light (10, 10a, 11a, 12a); and scattering particles (1042, 1042a, 1042b) configured to scatter the primary light (10, 10a, 11a, 12a), wherein the scattering particles (1042, 1042a, 1042b) comprise: first scattering particles; and second scattering particles different from the first scattering particles in size and characterised in that; the second scattering particles are composed of particles each having a diameter in the range of 5 nm to 50 nm. first scattering particles; and second scattering particles different from the first scattering particles in size and characterised in that; the second scattering particles are composed of particles each having a diameter in the range of 5 nm to 50 nm.
A disc shaped throwing object comprising a soft disc having a central section, a bridging section and a rim, where the central section forms a disc centre through which a central axis is defined and which central section is joined to the rim via the bridging section, the disc further comprising a holding structure placed radially around the central axis, the holding structure being joined with and stretching out along the axis in a direction away from an inner surface (CSIS) of the central section, said holding structure being adapted to hold a module with electrically powered elements in abutment with the inner surface (CSIS), wherein the holding structure is shaped as a flexible wall projecting out from said inner surface (CSIS) along said axis at a radial distance (R3a, R3b, R3c) from the axis and encircling a holding area where the module is to be held, the disc centre at the central axis has a first thickness and the wall of the holding structure has a second thickness that is 8 - 16 times higher, with advantage 10 times higher, than the first thickness.