mhurhangee/ep-ind-claims huggingface dataset:
A lockable electronics cabinet, comprising a body and a door, said door being arranged to be opened in a sequence of motions, comprising, first, a linear motion perpendicular to the plane of the door and then, a rotational motion around a pivot axis, wherein said cabinet comprises a linear motion mechanism, said linear motion mechanism comprising a moving frame connected to said door, a stationary frame connected to a main part of said body, a first guiding track (41, 32) provided by one of said moving frame and said stationary frame, and a guiding arrangement (29, 30) provided by the other of said moving frame and said stationary frame, characterized by said first guiding track (41, 32) and said guiding arrangement (29, 30) thereby being movable with respect to each other in direction of said linear motion, said linear motion mechanism further comprising a driving member (45, 49, 51) configured to drive said linear motion by running along a pre-determined path defined by the driving member engaging with the guiding arrangement (29, 30) while simultaneously engaging with said first guiding track (41, 42), wherein, with a first location along said pre-determined path corresponding to a second location along said first guiding track such that said driving member (45, 49, 51), while running along said pre-determined path (29, 30) through said first location, engages with said first guiding track (41, 42) at said second location, a tangent direction of said first pre-determined path (29, 30) at said first location is different from a tangent direction of said first guiding track (41, 42) at said second location.
A fan stage for a gas turbine engine, the fan stage defining axial, radial and circumferential directions, the fan stage comprising a plurality of fan blades extending from a hub, characterized in that: each fan blade comprises an aerofoil portion having a leading edge extending from a root to a tip, the radial distance between the leading edge at the root and the leading edge at the tip defining a blade span; for any two points (P1, P2) on the leading edge of a fan blade that are in the radially outer 40% of the blade span and are radially separated by at least 5% of the blade span, the radially outer of the two points is axially forward of the radially inner point; when viewed along a circumferential direction, the angle (α (P1, P2)) formed between the radial direction and a line drawn between the two points (P1, P2) on the leading edge is in the range of from -6°and 0°, where a negative angle indicates that the respective line has an axial component that is in the same direction as the axial component of the direction from a trailing edge to the leading edge of the blade; and the radius of the leading edge of a given fan blade at the hub divided by the radius of the leading edge of the fan blade at the tip is in the range of from 0.24 to 0.32. each fan blade comprises an aerofoil portion having a leading edge extending from a root to a tip, the radial distance between the leading edge at the root and the leading edge at the tip defining a blade span; for any two points (P1, P2) on the leading edge of a fan blade that are in the radially outer 40% of the blade span and are radially separated by at least 5% of the blade span, the radially outer of the two points is axially forward of the radially inner point; when viewed along a circumferential direction, the angle (α (P1, P2)) formed between the radial direction and a line drawn between the two points (P1, P2) on the leading edge is in the range of from -6°and 0°, where a negative angle indicates that the respective line has an axial component that is in the same direction as the axial component of the direction from a trailing edge to the leading edge of the blade; and the radius of the leading edge of a given fan blade at the hub divided by the radius of the leading edge of the fan blade at the tip is in the range of from 0.24 to 0.32.
A head protection device for a user, comprising: a hard hat; a hard hat adapter coupled to the hard hat; and a helmet shell comprising: an outer face shield and an inner face shield coupled to the hard hat adapter at a first pivot point; and a blower shell coupled to the hard hat adapter via a lower arm of the hard hat adapter, wherein at least a portion of the blower shell is vertically below the outer face shield and the inner face shield. a hard hat; a hard hat adapter coupled to the hard hat; and a helmet shell comprising: an outer face shield and an inner face shield coupled to the hard hat adapter at a first pivot point; and a blower shell coupled to the hard hat adapter via a lower arm of the hard hat adapter, wherein at least a portion of the blower shell is vertically below the outer face shield and the inner face shield. an outer face shield and an inner face shield coupled to the hard hat adapter at a first pivot point; and a blower shell coupled to the hard hat adapter via a lower arm of the hard hat adapter, wherein at least a portion of the blower shell is vertically below the outer face shield and the inner face shield.
Power transmission belt comprising a hydrogenated nitrile-butadiene-PEG acrylate copolymer containing: a) 25% to 38% by weight of at least one α,β-ethylenically unsaturated nitrile unit, b) 40% to 60% by weight of at least one conjugated diene unit and c) 10% to 25% by weight of at least one PEG acrylate unit derived from a PEG acrylate of the general formula where R is hydrogen or branched or unbranched C1-C20-alkyl, preferably methyl, ethyl, butyl or ethylhexyl, n is 1 to 8 and R1 is hydrogen or CH3-, where the hydrogenated nitrile-butadiene-PEG acrylate copolymer, if n is 1, does not contain any further copolymerizable monomer unit having a free carboxylic acid group. a) 25% to 38% by weight of at least one α,β-ethylenically unsaturated nitrile unit, b) 40% to 60% by weight of at least one conjugated diene unit and c) 10% to 25% by weight of at least one PEG acrylate unit derived from a PEG acrylate of the general formula where R is hydrogen or branched or unbranched C1-C20-alkyl, preferably methyl, ethyl, butyl or ethylhexyl, n is 1 to 8 and R1 is hydrogen or CH3-, where the hydrogenated nitrile-butadiene-PEG acrylate copolymer, if n is 1, does not contain any further copolymerizable monomer unit having a free carboxylic acid group. R is hydrogen or branched or unbranched C1-C20-alkyl, preferably methyl, ethyl, butyl or ethylhexyl, n is 1 to 8 and R1 is hydrogen or CH3-, where the hydrogenated nitrile-butadiene-PEG acrylate copolymer, if n is 1, does not contain any further copolymerizable monomer unit having a free carboxylic acid group.
A hoisting machine comprising: a trolley that is transported by self-propulsion means; a hoisting motor mounted on the trolley; a hoisting drum attached to the hoisting motor; a rope attached to the hoisting drum; a hook attached to the rope; a center-of-gravity distance inputting unit, in which a center-of-gravity distance is input; and a controller configured to specify a transport speed of the trolley, wherein the controller is configured to specify the transport speed of the trolley based on the center-of-gravity distance between a center-of-gravity position of a suspended load suspended from the hook and a predetermined position located distant from the center-of-gravity position in longitudinal direction of the rope in an area from the hoisting drum to a floor surface, wherein the center-of-gravity position and the center-of-gravity distance are estimated by an operator, wherein the center-of-gravity distance inputting unit includes a suspended-load ID inputting section in which an ID of the suspended load is input, an inputting section in which the estimated center-of-gravity distance is input, and a storage section that stores the ID of the suspended load and the center-of-gravity distance in an associating manner, and wherein the center-of-gravity distance associated with the ID of the suspended load input from the suspended-load ID inputting section is read from the storage section, and the read center-of-gravity distance is transmitted to the controller via the communication unit. a trolley that is transported by self-propulsion means; a hoisting motor mounted on the trolley; a hoisting drum attached to the hoisting motor; a rope attached to the hoisting drum; a hook attached to the rope; a center-of-gravity distance inputting unit, in which a center-of-gravity distance is input; and a controller configured to specify a transport speed of the trolley, wherein the controller is configured to specify the transport speed of the trolley based on the center-of-gravity distance between a center-of-gravity position of a suspended load suspended from the hook and a predetermined position located distant from the center-of-gravity position in longitudinal direction of the rope in an area from the hoisting drum to a floor surface, wherein the center-of-gravity position and the center-of-gravity distance are estimated by an operator, wherein the center-of-gravity distance inputting unit includes a suspended-load ID inputting section in which an ID of the suspended load is input, an inputting section in which the estimated center-of-gravity distance is input, and a storage section that stores the ID of the suspended load and the center-of-gravity distance in an associating manner, and wherein the center-of-gravity distance associated with the ID of the suspended load input from the suspended-load ID inputting section is read from the storage section, and the read center-of-gravity distance is transmitted to the controller via the communication unit.
Method of detecting a partial flame failure in a gas turbine engine having a gas duct for guiding propulsion gas and several combustors, each of which combustors leads into said gas duct and comprises a burner, said method comprising the steps of: measuring a first temperature over time at each of at least two probing points (32a; 32b) located downstream from said combustors in said gas duct, measuring a second temperature over time in each of at least two of said burners, and detecting a partial flame failure from said first temperature measurements and said second temperature measurements, wherein said detecting of a partial flame failure includes the step of determining a first detection parameter, said first detection parameter being determined from a rate of change of a variation between said first temperature measurements at different probing points (32a; 32b). measuring a first temperature over time at each of at least two probing points (32a; 32b) located downstream from said combustors in said gas duct, measuring a second temperature over time in each of at least two of said burners, and detecting a partial flame failure from said first temperature measurements and said second temperature measurements, wherein said detecting of a partial flame failure includes the step of determining a first detection parameter, said first detection parameter being determined from a rate of change of a variation between said first temperature measurements at different probing points (32a; 32b).
An article of footwear, comprising: an upper; a sole structure connected to the upper, the sole structure including: a midsole; an outsole (300, 400), wherein the outsole includes a plurality of hexagonal lugs (310a, 310b, 410a, 410b, 410c) extending from a base surface and arranged to form a ground contacting surface of the outsole and to cover at least 80% of the base surface, the outsole further including at least a first lug region with a first plurality of lugs having at least a first lug characteristic and a second lug region with a second plurality of lugs having at least a second lug characteristic different from the first lug characteristic, wherein the first lug region includes hexagonal lugs closely nested together, and wherein the size and/or spacing of the hexagonal lugs in the first lug region differs from the size and/or spacing of the hexagonal lugs in the second lug region in order to provide different impact attenuation characteristics. an upper; a sole structure connected to the upper, the sole structure including: a midsole; an outsole (300, 400), wherein the outsole includes a plurality of hexagonal lugs (310a, 310b, 410a, 410b, 410c) extending from a base surface and arranged to form a ground contacting surface of the outsole and to cover at least 80% of the base surface, the outsole further including at least a first lug region with a first plurality of lugs having at least a first lug characteristic and a second lug region with a second plurality of lugs having at least a second lug characteristic different from the first lug characteristic, wherein the first lug region includes hexagonal lugs closely nested together, and wherein the size and/or spacing of the hexagonal lugs in the first lug region differs from the size and/or spacing of the hexagonal lugs in the second lug region in order to provide different impact attenuation characteristics. a midsole; an outsole (300, 400), wherein the outsole includes a plurality of hexagonal lugs (310a, 310b, 410a, 410b, 410c) extending from a base surface and arranged to form a ground contacting surface of the outsole and to cover at least 80% of the base surface, the outsole further including at least a first lug region with a first plurality of lugs having at least a first lug characteristic and a second lug region with a second plurality of lugs having at least a second lug characteristic different from the first lug characteristic, wherein the first lug region includes hexagonal lugs closely nested together, and wherein the size and/or spacing of the hexagonal lugs in the first lug region differs from the size and/or spacing of the hexagonal lugs in the second lug region in order to provide different impact attenuation characteristics.
Actuation magnet, with a magnet housing comprising a jacket and with at least one coil form arranged in the magnet housing, said coil form, when energised, moving a solenoid armature at least in one direction along an actuation axis, the jacket of the magnet housing comprising a material accumulation along its longitudinal extension parallel to the actuation axis when viewed in cross-section at at least one point, said material accumulation differing from the other material distribution in the jacket of the magnet housing, characterised in that the jacket of the magnet housing enlarges at one end into a flange plate with two web-like fixing parts diametrically opposite one another along the actuation axis, said fixing parts protruding in the same direction as the respective assignable material accumulation.
An apparatus for a demand management monitoring system, the apparatus comprising: at least one remote measurement device, the remote measurement device comprising a microprocessor configured to calculate RMS voltage data from digital samples and a wireless communications device and a server system comprising a database configured to store the RMS voltage data from at least one remote measurement device, a listening process configured to receive data comprising the RMS voltage data and other data from the remote measurement devices through a network characterized by a dataset preprocessor configured to preprocess the data before inserting the data into the database, wherein the preprocessing comprises at least one of decimating the data and chunking the data, wherein decimating the data includes using a decimation factor x and storing the maximum and minimum values in each set of x data points, and wherein chunking the data includes accumulating and storing incoming data in chunks with a desired chunk size. at least one remote measurement device, the remote measurement device comprising a microprocessor configured to calculate RMS voltage data from digital samples and a wireless communications device and a server system comprising a database configured to store the RMS voltage data from at least one remote measurement device, a listening process configured to receive data comprising the RMS voltage data and other data from the remote measurement devices through a network characterized by a dataset preprocessor configured to preprocess the data before inserting the data into the database, wherein the preprocessing comprises at least one of decimating the data and chunking the data, wherein decimating the data includes using a decimation factor x and storing the maximum and minimum values in each set of x data points, and wherein chunking the data includes accumulating and storing incoming data in chunks with a desired chunk size.
A method for allocating QoS resources comprising the steps of: detecting, by a radio access network, that a communication request from an application server for a communication requiring QoS resources with an access terminal has been marked as requiring QoS resources; and in response to detecting that the communication request has been marked as requiring QoS resources: allocating, by the radio access network, the QoS resources prior to receiving any QoS resource allocation request from the access terminal to allocate the required QoS resources.
A light emitting device package comprising: a first lead frame and a second lead frame disposed spaced from each other; a light emitting device disposed on the first lead frame; and a reflective sidewall including two long first and second (101-1, 101-2) and two short third and fourth (101-3, 101-4) side walls disposed on the first lead frame and the second lead frame to surround the light emitting device, wherein a portion of the reflective sidewall has a different height from the other portion of the reflective sidewall and the reflective sidewall has a protrusion disposed on one of the long side walls (101-1, 101-2) and a portion of each of the short side walls (101-3, 101-4) adjacent to the one of the long side walls (101-1, 101-2) wherein a first angle (θ1) is the same with a second angle (θ2), and a third angle is the same with the first angle, and the first angle is a slope angle of the first side wall from the first lead frame, and the second angle is a slope angle of the second side wall from the first lead frame and the third angle is a slope angle of the protrusion from the first lead frame, and the first side wall and the second sidewall are opposite side walls. a first lead frame and a second lead frame disposed spaced from each other; a light emitting device disposed on the first lead frame; and a reflective sidewall including two long first and second (101-1, 101-2) and two short third and fourth (101-3, 101-4) side walls disposed on the first lead frame and the second lead frame to surround the light emitting device, wherein a portion of the reflective sidewall has a different height from the other portion of the reflective sidewall and the reflective sidewall has a protrusion disposed on one of the long side walls (101-1, 101-2) and a portion of each of the short side walls (101-3, 101-4) adjacent to the one of the long side walls (101-1, 101-2) wherein a first angle (θ1) is the same with a second angle (θ2), and a third angle is the same with the first angle, and the first angle is a slope angle of the first side wall from the first lead frame, and the second angle is a slope angle of the second side wall from the first lead frame and the third angle is a slope angle of the protrusion from the first lead frame, and the first side wall and the second sidewall are opposite side walls.
A hand-held device for electrically powered skin treatment, comprising; A base which is designed to be grasped by a hand, a first outer electrode which is in contact with the hand when the device is held in the user's hand for use, said first outer electrode being provided on the base, a second outer electrode which can be placed on the area of skin to be treated, an electrical energy source, the poles of which are electrically connected to the electrodes (7, 20) during operation of the device, said electrical energy source being arranged in the base, a cap (3, 9) to be fitted detachably on the base, said cap comprising the second outer electrode, which can be placed on the area of skin to be treated, and an electrically operated vibrator characterised in that the electrically operated vibrator is fixed in or on the cap (3, 9) and is adapted to strongly vibrate the part of the device located on the area of skin to be treated so that, during operation, the device produces an intensified massaging effect on the skin to be treated, wherein the skin pores are widened, and that contact means on the cap and on the base, which serve to establish an electrical connection between the second electrode and the electrical energy source, are designed and arranged in such a manner that they are brought into contact when the cap is placed on the base, and in that the vibrator is in switchable electrically conducting contact with the electrical energy source in the base. A base which is designed to be grasped by a hand, a first outer electrode which is in contact with the hand when the device is held in the user's hand for use, said first outer electrode being provided on the base, a second outer electrode which can be placed on the area of skin to be treated, an electrical energy source, the poles of which are electrically connected to the electrodes (7, 20) during operation of the device, said electrical energy source being arranged in the base, a cap (3, 9) to be fitted detachably on the base, said cap comprising the second outer electrode, which can be placed on the area of skin to be treated, and an electrically operated vibrator characterised in that the electrically operated vibrator is fixed in or on the cap (3, 9) and is adapted to strongly vibrate the part of the device located on the area of skin to be treated so that, during operation, the device produces an intensified massaging effect on the skin to be treated, wherein the skin pores are widened, and that contact means on the cap and on the base, which serve to establish an electrical connection between the second electrode and the electrical energy source, are designed and arranged in such a manner that they are brought into contact when the cap is placed on the base, and in that the vibrator is in switchable electrically conducting contact with the electrical energy source in the base.