mhurhangee/ep-ind-claims huggingface dataset:
A method of processing one or more blades of a row of blades which forms part of a rotor for a gas turbine engine, the method including: providing a rotor disc having a slot for mounting one or more blades; loading the blades in the slot; the method being characterised in loading pre-formed wax blocks in or adjacent to the slot; the wax blocks being configured and positioned such that, on loading, the blades shear material from the wax blocks, the sheared wax blocks reducing a range of tilt angles which can be adopted by the blades; and performing a processing operation on the loaded blades. providing a rotor disc having a slot for mounting one or more blades; loading the blades in the slot; the method being characterised in loading pre-formed wax blocks in or adjacent to the slot; the wax blocks being configured and positioned such that, on loading, the blades shear material from the wax blocks, the sheared wax blocks reducing a range of tilt angles which can be adopted by the blades; and performing a processing operation on the loaded blades.
Solar cell (1, 1a, 1b, 1c) having a front side for light incidence and a back side opposite to the front side, said solar cell (1, 1a, 1b, 1c) comprising: - a crystalline semiconductor substrate of a first conductivity type or a second conductivity type being opposite to the first conductivity type; - a front side passivating region formed by at least one passivating layer and at least one conductive layer of the first conductivity type; - a back side passivating region formed by at least one passivating layer and at least one conductive layer of the second conductivity type; - a front side contact formed on the front sided surface of the conductive layer of the passivating region by a front side transparent conductive oxide material and by a pattern of front side electrical contacts formed on top of the front side conductive material; - at least one front side light coupling layer on the front side of the solar cell (1, 1a, 1b, 1c); - a back side contact being opposite the front side contact and being formed by a back side conductive material and at least one back side electrical contact (14, 14a, 14b) formed thereon, characterized in that the front side transparent conductive oxide material is thinner in regions between and/or besides the front side electrical contacts than in regions below the front side electrical contacts, wherein the front side transparent conductive oxide material in regions between and/or besides the front side electrical contacts has a thickness between 0 and 30 nm. - a crystalline semiconductor substrate of a first conductivity type or a second conductivity type being opposite to the first conductivity type; - a front side passivating region formed by at least one passivating layer and at least one conductive layer of the first conductivity type; - a back side passivating region formed by at least one passivating layer and at least one conductive layer of the second conductivity type; - a front side contact formed on the front sided surface of the conductive layer of the passivating region by a front side transparent conductive oxide material and by a pattern of front side electrical contacts formed on top of the front side conductive material; - at least one front side light coupling layer on the front side of the solar cell (1, 1a, 1b, 1c); - a back side contact being opposite the front side contact and being formed by a back side conductive material and at least one back side electrical contact (14, 14a, 14b) formed thereon,
A sealing device provided with a floating ring between an outer periphery of a rotating shaft and an inner periphery of a casing, wherein a turn-stopping means is provided to a single point in a circumferential direction of the floating ring, characterised in that a groove for generating dynamic pressure is provided in unequal distribution in the circumferential direction to an inner peripheral surface of the floating ring, wherein when a direction of rotation of the rotating shaft is in a counterclockwise direction, in a coordinate system in which an origin of X-Y coordinate axes is placed at the center of the rotating shaft when the rotating shaft is seen from one side, the turn-stopping means is provided to positions within a second quadrant and a third quadrant and the groove for generating dynamic pressure is provided to a position in a first quadrant, or to positions in a first quadrant and the second quadrant, of the inner peripheral surface of the floating ring, in a case where there exists a relationship such that the weight of the floating ring is greater than the force for lifting up the floating ring by the wedging effect between the rotating shaft and the floating ring, or the groove for generating dynamic pressure is provided to a position in a fourth quadrant, or to positions in the third quadrant and a fourth quadrant, of the inner peripheral surface of the floating ring, in a case where there exists a relationship such that the weight of the floating ring is less than the force for lifting up the floating ring by the wedging effect between the rotating shaft and the floating ring.
A method of charge detection mass spectrometry, characterised by comprising: monitoring a detector signal from a charge detector of a charge detection mass spectrometry device during a first ion trapping event within an ion trap of the charge detection mass spectrometry device; and determining, based on the monitored detector signal, how many ions are present within the ion trap during the first ion trapping event; characterised in that, when it is determined that more than one ion is present within the ion trap during the first ion trapping event, either: (i) terminating the first ion trapping event early and initiating a second ion trapping event; or (ii) ejecting or otherwise removing one or more of the ions from the ion trap. monitoring a detector signal from a charge detector of a charge detection mass spectrometry device during a first ion trapping event within an ion trap of the charge detection mass spectrometry device; and determining, based on the monitored detector signal, how many ions are present within the ion trap during the first ion trapping event; characterised in that, when it is determined that more than one ion is present within the ion trap during the first ion trapping event, either: (i) terminating the first ion trapping event early and initiating a second ion trapping event; or (ii) ejecting or otherwise removing one or more of the ions from the ion trap. (i) terminating the first ion trapping event early and initiating a second ion trapping event; or (ii) ejecting or otherwise removing one or more of the ions from the ion trap.
A power conversion system comprising: a DC/DC converter configured to charge a battery; and a power conversion device composed of at least one of an inverter or a converter, wherein the DC/DC converter includes a power conversion unit configured to convert input voltage to required voltage, a first control unit configured to drive the power conversion unit, a power supply device configured to supply power to the first control unit and to use an output of the DC/DC converter or the battery as a power supply source, and a power supply function configured to control supply of power to the power supply device, the power supply function is controlled with respect to supply of power, by a second control unit of the power conversion device, during a standby state of the DC/DC converter, wherein the power supply function is formed by a switch. a DC/DC converter configured to charge a battery; and a power conversion device composed of at least one of an inverter or a converter, wherein the DC/DC converter includes a power conversion unit configured to convert input voltage to required voltage, a first control unit configured to drive the power conversion unit, a power supply device configured to supply power to the first control unit and to use an output of the DC/DC converter or the battery as a power supply source, and a power supply function configured to control supply of power to the power supply device, the power supply function is controlled with respect to supply of power, by a second control unit of the power conversion device, during a standby state of the DC/DC converter, wherein the power supply function is formed by a switch.
A laser generator, comprising: a substrate; and an array of light-emitting elements arranged on the substrate, the array of light-emitting elements comprising a basic array and an additional array, the basic array forming a basic area, the additional array forming an additional area, wherein the basic array comprises at least three basic sub-arrays, each basic sub-array forms a basic sub-area (a), the basic area comprises a common area arranged in at least three basic sub-areas (a), and the common area is further arranged within the additional area, characterized in that the at least three basic sub-arrays are identical, and the additional array is identical with the basic sub-array, the light-emitting elements of the basic sub-array are irregularly distributed, the additional array and each basic sub-array are configured to be separately driven to emit light, and the common area is formed by overlapping the at least three basic sub-areas (a). a substrate; and an array of light-emitting elements arranged on the substrate, the array of light-emitting elements comprising a basic array and an additional array, the basic array forming a basic area, the additional array forming an additional area, wherein the basic array comprises at least three basic sub-arrays, each basic sub-array forms a basic sub-area (a), the basic area comprises a common area arranged in at least three basic sub-areas (a), and the common area is further arranged within the additional area, characterized in that the at least three basic sub-arrays are identical, and the additional array is identical with the basic sub-array, the light-emitting elements of the basic sub-array are irregularly distributed, the additional array and each basic sub-array are configured to be separately driven to emit light, and the common area is formed by overlapping the at least three basic sub-areas (a).
A polyisocyanate composition comprising, on the basis of a total mass of the polyisocyanate composition: 97 weight % or more of a polyisocyanate; and 2.0 mass ppm or more and 1.0×10 4 mass ppm or less of a compound having at least one unsaturated bond in which the compound is a different compound from the polyisocyanate, wherein the compound having at least one unsaturated bond is a compound represented by formula wherein, R 5, R 6, R 7 and R 8 each independently represents a hydrogen atom, an aliphatic group having 1 to 10 carbon atoms, or an aromatic group having 6 to 10 carbon atoms, R 5 to R 8 are not simultaneously hydrogen atoms, and d represents an integer of 1 to 3. 97 weight % or more of a polyisocyanate; and 2.0 mass ppm or more and 1.0×10 4 mass ppm or less of a compound having at least one unsaturated bond in which the compound is a different compound from the polyisocyanate, wherein the compound having at least one unsaturated bond is a compound represented by formula wherein, R 5, R 6, R 7 and R 8 each independently represents a hydrogen atom, an aliphatic group having 1 to 10 carbon atoms, or an aromatic group having 6 to 10 carbon atoms, R 5 to R 8 are not simultaneously hydrogen atoms, and d represents an integer of 1 to 3.
A method of inserting a reinforcing rod into a hole in a laminated material, the method comprising: a feed operation in which a feed clamp clamps a rod whilst moving towards the laminated material to feed an end section of the rod through a guide clamp into a hole in the laminated material; a re-supply operation in which the feed clamp releases the rod and moves relative the rod along a return direction away from the laminated material whilst the guide clamp clamps the rod; and placing the guide clamp against a hole guide before the feed operation so that there is a continuous feed path for the rod through the guide clamp and the hole guide. a feed operation in which a feed clamp clamps a rod whilst moving towards the laminated material to feed an end section of the rod through a guide clamp into a hole in the laminated material; a re-supply operation in which the feed clamp releases the rod and moves relative the rod along a return direction away from the laminated material whilst the guide clamp clamps the rod; and placing the guide clamp against a hole guide before the feed operation so that there is a continuous feed path for the rod through the guide clamp and the hole guide.
A heat dissipation system for a communication device with a box type chassis, comprising an upper heat dissipation channel (2; 21, 23) and a lower heat dissipation channel (4; 22) separated by an air baffle, wherein the upper heat dissipation channel (2; 21, 23)) and the lower heat dissipation channel (4; 22) both have an air exhaust vent and an air intake vent, the air intake vent and the air exhaust vent of the upper heat dissipation channel (2; 21, 23) and the lower heat dissipation channel (4; 22) are defined on sidewalls of the box type chassis, and the air intake vent of the upper heat dissipation channel (2; 21, 23) is located above the air exhaust vent of the lower heat dissipation channel (4; 22); wherein the heat dissipation system comprises a first fan (1; 31, 33) and a second fan (3; 32); wherein the upper heat dissipation channel (2; 21, 23) and the lower heat dissipation channel (4; 22) have opposite air flow directions generated by the first fan (1; 31, 33) and the second fan (3; 32); wherein the first fan (1; 31, 33) is located at the air exhaust vent of the upper heat dissipation channel (2; 21, 23) or at the air intake vent of the upper heat dissipation channel (2; 21, 23); wherein the second fan (3; 32) is located at the air exhaust vent of the lower heat dissipation channel (4; 22) or at the air intake vent of the lower heat dissipation channel (4; 22); characterized in that a circuit board slot on the box type chassis is arranged in parallel to the air baffle; and through-holes exist on the air baffle to connect the upper heat dissipation channel (2; 21, 23) and the lower heat dissipation channel (4; 22).
A mobile terminal controllable according to a communication environment, the terminal comprising: a grip sensor unit for generating sensing signals corresponding to a user's grip; and a control unit comprising: a sensor signal collector for collecting grip sensor signals from the grip sensor unit; a pattern identifier for identifying a grip pattern from the collected sensor signals, and for determining a reference grip pattern matching the identified grip pattern; an antenna control part for receiving at least one of power control information and antenna tuning control information associated with the determined reference grip pattern from the pattern identifier; the terminal further comprising communication means to which the power control and the antenna tuning are applied under control of the control unit according to the at least one of power information and antenna tuning control information, and a storage unit for storing a control table that comprises the reference grip patterns and at least one of power control information and antenna tuning control information associated with the reference grip patterns. a grip sensor unit for generating sensing signals corresponding to a user's grip; and a control unit comprising: a sensor signal collector for collecting grip sensor signals from the grip sensor unit; a pattern identifier for identifying a grip pattern from the collected sensor signals, and for determining a reference grip pattern matching the identified grip pattern; an antenna control part for receiving at least one of power control information and antenna tuning control information associated with the determined reference grip pattern from the pattern identifier; the terminal further comprising communication means to which the power control and the antenna tuning are applied under control of the control unit according to the at least one of power information and antenna tuning control information, and a storage unit for storing a control table that comprises the reference grip patterns and at least one of power control information and antenna tuning control information associated with the reference grip patterns. a sensor signal collector for collecting grip sensor signals from the grip sensor unit; a pattern identifier for identifying a grip pattern from the collected sensor signals, and for determining a reference grip pattern matching the identified grip pattern; an antenna control part for receiving at least one of power control information and antenna tuning control information associated with the determined reference grip pattern from the pattern identifier; the terminal further comprising communication means to which the power control and the antenna tuning are applied under control of the control unit according to the at least one of power information and antenna tuning control information, and a storage unit for storing a control table that comprises the reference grip patterns and at least one of power control information and antenna tuning control information associated with the reference grip patterns.
Elastic mount, in particular a wedge mount or thrust mount, for supporting a component of a drive train, comprising a core with at least two supporting bars, which are attached thereto by vulcanization and consist of an elastomeric material, and a housing, which has an accommodating opening for accommodating the core and the supporting bars, wherein a free end of the supporting bars can be fixed in an adjustable manner in the accommodating opening, characterised in that the supporting bars assume an angular position (α) relative to the core that is variable.
Illumination device for vehicies, specifically headlamps, with a housing, multiple light units (1, 2, 3) for creating, at a minimum, a light distribution setup in which the light units (1, 2, 3) are kept in a single housing and each of the light units (1, 2, 3) has a certain number of light sources and ancillary lenses arranged in the main beam direction in front of these light units. The light units (1, 2, and 3) are held by a support frame, which is installed on the housing and used for basic configuration of the illumination device. Each of the light units (1, 2, 3) features a light unit frame (4, 5, 7) in which each of the light sources and attachment lenses assigned to the light units (1, 2, 3) are arranged in a fixed order. The light unit frame of the first light unit is arranged relative to the support frame such that it can swivel around the specified first swivel axis, and the support frame arranged relative to the housing such that it can be swiveled around the specified second swivel axis. This is characterized by the fact that the first swivel axis, around which the light unit frame of the first light unit is arranged in a swiveling position, runs in a horizontal direction and the second swivel axis, around which the support frame is in a swiveling position relative to the housing, runs in a horizontal direction relative to an edge of the support frame that is at a distance from the first swivel axis. The support frame is adjusted using a mechanical adjustment drive and the light unit frame of the first light unit using an electrical adjustment drive.
A clamping device (10, 64, 118, 166, 192, 248, 298, 340) for connecting a first profile such as a square profile to a second profile such as a T profile that runs transversely to the first profile, comprising a clamp (16, 66, 120, 168, 194, 250, 300, 342) with two shanks (18, 20; 68, 70; 124, 126; 196, 198; 252, 254; 302, 304; 344, 346) that can be adjusted to one another and have a recess (28, 30; 76, 78, 200, 202; 256, 258; 48, 350) for receiving and fixing the first profile and with an end section (22, 24; 204, 206; 260, 262; 310, 312; 352) for being fixed to a section of the second profile, and comprising a screw element (42, 104, 154, 214, 270, 320, 360) for moving the shanks toward one another, wherein the clamping device (10, 64, 118, 166, 192, 248, 298, 340) comprises a closing sheet (32, 80, 122, 170; 208, 264, 304, 352) with stops (34, 36, 38, 40; 90, 92, 94, 96; 148; 180, 182; 212; 268; 318; 358), which closing sheet cooperates with the shanks (18, 20; 68, 70; 124, 126; 196, 198; 252, 254; 302, 304; 344, 346) of the clamps (16, 66, 120, 168, 194, 250, 300, 342), the screw element (42, 104, 154, 214, 270, 320, 360) starts from a section connecting the shanks and can be supported against the first profile for adjusting the shanks relative to the closing sheet, and whereby sections (44, 46, 48, 50; 110, 112, 114, 116; 128, 130, 132, 134) starting from the shanks (18, 20; 68, 70; 124, 126; 196, 198; 252, 254; 302, 304; 344, 346) cooperate with the stops and during the adjusting of the clamps (16, 66, 120, 168, 194, 250, 300, 342) the pivoting of the shanks (18, 20; 68, 70; 124, 126; 196, 198; 252, 254; 302, 304; 344, 346) onto one another brings about the positive connection of the end sections (22, 24; 204, 260, 262; 206; 310, 312; 352) to the section of the second profile, characterized in that the sections (44, 46, 48, 50; 110, 112, 114, 116; 128, 130, 132, 134) starting from the shanks (18, 20; 68, 70; 124, 126; 196, 198; 252, 254; 302, 304; 344, 346) are projecting sections and are außenseitig an den shanks vorgesehen with respect to the section of of the second profile and are formed as edges in the form of a flap or as stamping/as an impression (318; 358) in the form of a material curvature.
A composition comprising at least one butene/a-olefin block interpolymer, comprising hard blocks and soft blocks having a difference in mole percent α-olefin content, wherein the butene/a-olefin block interpolymer is characterized by a molecular weight distribution, M w /M n, in the range of from 1.4 to 2.8 by an average block index greater than zero and up to 1.0; wherein the butene/a-olefin block interpolymer is mesophase separated, and wherein the butene/a-olefin block copolymer comprises domains wherein the domains have a smallest dimension in the range of from 40 nm to 300 nm, preferably in the range of from 50 nm to 250 nm, and more preferably in the range of from 60 nm to 200 nm.