mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a furniture board product, the method comprising: - providing a base board; - producing one or more sheets of veneer; and - attaching said one or more sheets of veneer to the base board, the method further comprising: - producing said one or more sheets of veneer by: - providing a dried flitch, having a moisture content of 6-14 %; - sawing the dried flitch into veneer sheets having a thickness t v in the range of 0.3-1.3 mm; and - gluing said one or more sheets of veneer to the base board. - providing a base board; - producing one or more sheets of veneer; and - attaching said one or more sheets of veneer to the base board, the method further comprising: - producing said one or more sheets of veneer by: - providing a dried flitch, having a moisture content of 6-14 %; - sawing the dried flitch into veneer sheets having a thickness t v in the range of 0.3-1.3 mm; and - gluing said one or more sheets of veneer to the base board. - producing said one or more sheets of veneer by: - providing a dried flitch, having a moisture content of 6-14 %; - sawing the dried flitch into veneer sheets having a thickness t v in the range of 0.3-1.3 mm; and - providing a dried flitch, having a moisture content of 6-14 %; - sawing the dried flitch into veneer sheets having a thickness t v in the range of 0.3-1.3 mm; and - gluing said one or more sheets of veneer to the base board.
An audio decoder device for decoding a compressed input audio signal comprising at least one core decoder (6, 24) having one or more processors (36, 36') for generating a processor output signal based on a processor input signal (38, 38'), wherein a number of output channels (37.1, 37.2, 37.1', 37.2') of the processor output signal (37, 37') is higher than a number of input channels (38.1, 38.1') of the processor input signal (38, 38'), wherein each of the one or more processors (36, 36') comprises a decorrelator (39, 39') and a mixer (40, 40'), wherein a core decoder output signal having a plurality of channels (13.1, 13.2, 13.3, 13,4) comprises the processor output signal (37, 37'), and wherein the core decoder output signal is suitable for a reference loudspeaker setup; at least one format converter device (9, 10) configured to convert the core decoder output signal into an output audio signal, which is suitable for a target loudspeaker setup; and a control device configured to control at least one of the one or more processors (36, 36') in such way that the decorrelator (39, 39') of the at least one processor (36, 36') may be controlled independently from the mixer (40, 40') of said at least one processor (36, 36'); characterized in that the control device is configured to control at least one of the decorrelators (39, 39') of the one or more processors (36, 36') in such way that, depending on the target loudspeaker setup, the mixer (40, 40') of the processor (36, 36') is operational when the decorrelator (39, 39') of the processor (36, 36') is switched off.
A polycrystalline silicon bar grown by a Siemens method, wherein a center axis of the polycrystalline silicon bar is shifted from a center axis of a silicon core wire by 2 mm or more.
A polyolefin composition comprising: A) 50-90 %wt of of polypropylene homopolymer with an isotactic index (percentage by weight of fraction insoluble in boiling n-heptane) higher than 80, preferably between 90 and 98, or crystalline copolymer of propylene with ethylene and/or an alpha -olefin having 4-10 carbon atoms, containing 85% or more of propylene and having an isotactic index equal to or higher than 80; B) 10-50%wt of Butene-1 (co)polymers having a content of butene-1 units in the form of isotactic pentads (mmmm) from 25 to 70%; intrinsic viscosity [η] measured in tetraline at 135°C from 1 to 3 dL/g; a content of xylene insoluble fraction at 0°C from 3 to 60%. A) 50-90 %wt of of polypropylene homopolymer with an isotactic index (percentage by weight of fraction insoluble in boiling n-heptane) higher than 80, preferably between 90 and 98, or crystalline copolymer of propylene with ethylene and/or an alpha -olefin having 4-10 carbon atoms, containing 85% or more of propylene and having an isotactic index equal to or higher than 80; B) 10-50%wt of Butene-1 (co)polymers having a content of butene-1 units in the form of isotactic pentads (mmmm) from 25 to 70%; intrinsic viscosity [η] measured in tetraline at 135°C from 1 to 3 dL/g; a content of xylene insoluble fraction at 0°C from 3 to 60%.
Flexible cable for use in moving applications including torsional stress, comprising: - one or more insulated cores (2, 3); - an extruded polymeric filler layer surrounding the one or more insulated cores (2,3), having an external surface defining a filler layer external perimeter substantially forming a closed convex polygonal chain with a plurality of line segments connecting consecutive vertices; and - an outer sheath surrounding the filler layer and directly applied on the filler layer, having an external surface defining a substantially circular outer sheath external perimeter. - one or more insulated cores (2, 3); - an extruded polymeric filler layer surrounding the one or more insulated cores (2,3), having an external surface defining a filler layer external perimeter substantially forming a closed convex polygonal chain with a plurality of line segments connecting consecutive vertices; and - an outer sheath surrounding the filler layer and directly applied on the filler layer, having an external surface defining a substantially circular outer sheath external perimeter.
A nutritional composition comprising a combination of Bifidobacterium breve and non-digestible oligosaccharides for use in preventing and/or reducing the risk of occurrence of hypercholesterolemia and/or plasma-cholesterol associated atherosclerosis later in life in a human subject by administration of the nutritional composition to the human subject early in life, wherein the nutritional composition is an infant formula or follow on formula or young child formula, and wherein the composition comprises a mixture of galacto-oligosaccharides and fructo-oligosaccharides,, and wherein early in life is when the human subject has an age of 0 to 36 months and wherein later in life is when the human subject has an age above 5 years.
An instrument (10, 100) for locating an axis of a blocking screw, the instrument (10, 100) applicable for a retrograde installation of a femoral intramedullary device or an antegrade installation of a tibial intramedullary device, the instrument (10, 100) having a drill jig (11, 105) with a frame portion (14, 120) and a mounting portion (12, 110), the mounting portion (12, 110) adapted to connect to an intramedullary device, wherein said frame portion (14, 120) is radiolucent and has at least one aperture (18, 22, 24, 25, 28, 29, 126, 137, 337) for locating the axis of the blocking screw; and wherein said drill jig (11, 105) is adjustable to locate said at least one aperture (18, 22, 24, 25, 28, 29, 126, 137, 337) in a longitudinal direction relative to the intramedullary device, characterised in that said mounting portion (12, 110) has a neck (13, 117) and a barrel (16, 118), wherein said barrel (16, 118) is adapted to connect to an intramedullary device at a first end (17, 119) and further wherein said mounting portion (12, 110) is adjustable by removing said barrel (16, 118) and operatively connecting a second barrel having a length different than said barrel (16, 118) to said mounting portion (12, 110).
A device intended to be fixed on the skin of a user, the device being substantially planar and characterized in that it comprise: - at least one flexible zone in which the device can be bent relative to two axes situated in the plane of the device and in which flexure-sensitive components are situated, - at least two flexure limiting means (31, 32; 41, 42; 51 to 54, 61 to 64; 71 to 76) to determined curve radius, extending along different directions, said flexure limiting means being configured to limit the flexure of said at least one flexible zone of the device relative to said at least two axes situated in the plane of the device. - at least one flexible zone in which the device can be bent relative to two axes situated in the plane of the device and in which flexure-sensitive components are situated, - at least two flexure limiting means (31, 32; 41, 42; 51 to 54, 61 to 64; 71 to 76) to determined curve radius, extending along different directions, said flexure limiting means being configured to limit the flexure of said at least one flexible zone of the device relative to said at least two axes situated in the plane of the device.
Blocking valve for a hydraulic arrangement (12, 14, 15), with an actuable valve slide for setting a closed position and an open position, characterized in that a blocking device is provided for limiting the actuation of the valve slide to an intermediate position which is located between the closed position and the open position and in which the opening cross section of the blocking valve is only a fraction of the opening cross section present in the open position, wherein the blocking device is designed in such a manner that the limitation of the actuation of the valve slide by the blocking device takes place depending on a pressure differential value between a pressure upstream and downstream of the blocking valve, wherein the limitation can be cancelled if the value falls below a predeterminable pressure differential value.
A pressure roller for use in a fixing device, the pressure roller comprising: a core metal; an elastic layer; a releasing layer; and a silicone rubber adhesive layer between the elastic layer and the releasing layer to cause the elastic layer and the releasing layer to adhere to each other, wherein the silicone rubber adhesive layer contains a fluoroalkylsulfonate derivative in an amount in the range of 0.005 parts to 3 parts inclusive relative to 100 parts of the silicone rubber adhesive. a core metal; an elastic layer; a releasing layer; and a silicone rubber adhesive layer between the elastic layer and the releasing layer to cause the elastic layer and the releasing layer to adhere to each other,
Gate or window / door frame consisting of one or two doors with mutually moving elements, said moving elements (4, A) are hinged together for rotating around one or more axes perpendicular to the plane of the door itself, in such a way that, during the door closing movement, the moving elements (4, A) move synchronized in a way that allows them to close packed on one another and that during the opening movement they spread in a radial pattern in a mode which is like the opening of a "hand fan", said moving elements (4, A) opening out like a hand fan up to a predetermined mutual distance defined by a stop system integrated in the moving elements themselves characterized in that said stop system is constituted by one of: pins and slots formed in levers that support the moving elements which are rods (4, A), while in the door opening movement each moving element closes in a scissor like movement on the other immediately adjacent to it; or articulated arms through which said moving elements are connected to each other, said articulated arms widening at the opening of the "hand fan" door to reach their maximum permitted opening, said articulated arms closing in succession on each other upon closing of the door until an end stop integral with the lower moving element intercepts the immediately above moving element; or said moving elements are constituted by rigid elements in the shape of circular sectors (4"'), and having interlocking lips which constitute a stroke end position in the closed configuration as it prevents two consecutive elements from further rotating with respect to each other such as to constitute a rigid linkage during the closure of the door.
Power system for an electric train comprising auxiliary loads, the power system comprising a three-phase auxiliary output configured for being coupled to the auxiliary loads; a DC bus; and a three-phase auxiliary power converter which is connected between the DC bus and the three-phase auxiliary output and is configured for adapting a voltage (V BUS) of the DC bus to power the auxiliary loads, the power system further comprising an additional single-phase power converter attached to the DC bus and a single-phase output with a first power line and a second power line, the first power line being connected to the phase of the additional power converter and the second power line being connected to one of the phases (A, B, C) of the auxiliary power converter, said single-phase output comprising a voltage (V 11) between the first power line and the second power line equal to the difference between the voltage (V F14) of the phase of the additional power converter and the voltage (V F13) of the phase (A, B, C) of the auxiliary power converter which is connected to the second power line of the single-phase output, the power system comprising a control unit configured for controlling the voltage (V F13) in the phase (A, B, C) of the auxiliary power converter connected to the second power line of the single-phase output based on the needs required for the auxiliary loads powered by the three-phase auxiliary output, characterized in that the control unit is also configured for controlling the voltage (V F14) in the phase of the additional power converter based on the voltage (V F13) in said phase (A, B, C) of the auxiliary power converter and on a required voltage (V* 11) for said single-phase output for additional loads, the control unit being further configured for controlling both the voltage (V F13) in the phase (A, B, C) of the auxiliary power converter connected to the second power line of the single-phase output and also the voltage (V F14) of the phase of the additional power converter connected to the first power line of the single-phase output, in order to provide the required voltage (V* 11) for said single-phase output, the additional power converter being in turn configured for adapting the DC voltage (V BUS) of the DC bus to the power required for the single-phase output, said control unit being further configured for calculating the necessary voltage (V* F14) in the phase of the additional power converter that is equal to the difference between the voltage (V F13) in said phase (A, B, C) of the auxiliary power converter and the required voltage (V* 11) for said single-phase output and for controlling the voltage (V F14) in the phase of the additional power converter based on said calculated necessary voltage (V* F14).
A method of processing a crowned portion (Wc) of a roller, which method comprises a step of: - disposing first and second feed drums (1, 2) so as to extend parallel to each other, each of the first and second feed drums (1, 2) having an outer periphery formed with respective spirally extending threaded guide surfaces, the first and second feed drums (1, 2) being driven to rotate about respective central axes (L1, L2) to transport the roller, while the roller is held in rolling contact with the threaded guide surfaces opposed to each other, from a first location towards a second location through between the first and second feed drums (1, 2), and - successively processing the crowned portion (Wc) of the roller passing through between the first and second feed drums (1, 2), by means of a through feed processing with the use of a grinding stone; wherein the threaded guide surface of one of the first and second feed drums (1, 2) is divided by collared convolutions from neighboring peripheral portions, and characterised in that the divided threaded guide surface is formed so that an angle of inclination of an outer peripheral surface of the roller relative to a processing surface of the grinding stone is varied in dependence on a roller passing position of the feed drum (1, 2). - disposing first and second feed drums (1, 2) so as to extend parallel to each other, each of the first and second feed drums (1, 2) having an outer periphery formed with respective spirally extending threaded guide surfaces, the first and second feed drums (1, 2) being driven to rotate about respective central axes (L1, L2) to transport the roller, while the roller is held in rolling contact with the threaded guide surfaces opposed to each other, from a first location towards a second location through between the first and second feed drums (1, 2), and - successively processing the crowned portion (Wc) of the roller passing through between the first and second feed drums (1, 2), by means of a through feed processing with the use of a grinding stone; wherein the threaded guide surface of one of the first and second feed drums (1, 2) is divided by collared convolutions from neighboring peripheral portions, and characterised in that the divided threaded guide surface is formed so that an angle of inclination of an outer peripheral surface of the roller relative to a processing surface of the grinding stone is varied in dependence on a roller passing position of the feed drum (1, 2).
One-person vehicle for urban transport comprising a transport deck for one user of the vehicle, trucks for the displacement of said transport deck, and control arms for said trucks which are attached to said transport deck so that they can pivot with respect to said trucks when the user swings the deck to change the travelling direction of the vehicle, c each of said trucks comprising a pivot to be inserted into one of said control arms and a damper assembly, characterized in that said damper assembly is interposed between the pivot and the arm rotating about said pivot, and in that said damper assembly is configured to compensate on said arm the weight force that swings the deck and to actuate the return to the centre of said arm when the force yields.
A method for detecting an audio signal according to frequency domain energy, wherein the method comprises: receiving an audio signal frame; acquiring frequency domain energy distribution of the audio signal frame, wherein the frequency domain energy distribution represents an energy distribution characteristic of the audio signal frame in a frequency domain; obtaining a maximum value distribution characteristic of a frequency domain energy distribution derivative of the audio signal frame according to the frequency domain energy distribution of the audio signal frame; using the audio signal frame and each frame in a preset neighborhood range of the audio signal frame as a frame set, wherein the frame set comprises a to-be-detected frame; and detecting the to-be-detected frame according to a maximum value distribution characteristic of a frequency domain energy distribution derivative of the frame set, wherein the maximum value distribution characteristic of the frequency domain energy distribution derivative of the frame set refers to maximum value distribution characteristics of frequency domain energy distribution derivatives of one or more audio signal frames in the frame set, or to a maximum value distribution characteristic of a frequency domain energy distribution derivative of each audio signal frame in the frame set. receiving an audio signal frame; acquiring frequency domain energy distribution of the audio signal frame, wherein the frequency domain energy distribution represents an energy distribution characteristic of the audio signal frame in a frequency domain; obtaining a maximum value distribution characteristic of a frequency domain energy distribution derivative of the audio signal frame according to the frequency domain energy distribution of the audio signal frame; using the audio signal frame and each frame in a preset neighborhood range of the audio signal frame as a frame set, wherein the frame set comprises a to-be-detected frame; and detecting the to-be-detected frame according to a maximum value distribution characteristic of a frequency domain energy distribution derivative of the frame set, wherein the maximum value distribution characteristic of the frequency domain energy distribution derivative of the frame set refers to maximum value distribution characteristics of frequency domain energy distribution derivatives of one or more audio signal frames in the frame set, or to a maximum value distribution characteristic of a frequency domain energy distribution derivative of each audio signal frame in the frame set.
Method for producing a microstructure, comprising the steps of: - providing a photosensitive layer on a carrier substrate; - arranging a photomask having a transparent substrate on or above the carrier substrate of the microstructure, wherein the photomask is provided on both sides with an exposure pattern, in that at least one lower light-impermeable region (221, 222) is arranged on a bottom side of the substrate facing the carrier substrate and at least one upper light-impermeable region is arranged on an opposite top side of the substrate; - exposing the photosensitive layer through the photomask, wherein at least one section of the photosensitive layer is exposed by light beams diffracted at an edge of the upper light-impermeable region; - developing the photosensitive layer, whereby a region having laterally varying thickness is formed from the at least one section of the photosensitive layer; - growing a functional layer onto the carrier substrate and the photosensitive layer remaining after development, wherein the region of varying thickness of the remaining photosensitive layer is overgrown; - removing the remaining photosensitive layer. - providing a photosensitive layer on a carrier substrate; - arranging a photomask having a transparent substrate on or above the carrier substrate of the microstructure, wherein the photomask is provided on both sides with an exposure pattern, in that at least one lower light-impermeable region (221, 222) is arranged on a bottom side of the substrate facing the carrier substrate and at least one upper light-impermeable region is arranged on an opposite top side of the substrate; - exposing the photosensitive layer through the photomask, wherein at least one section of the photosensitive layer is exposed by light beams diffracted at an edge of the upper light-impermeable region; - developing the photosensitive layer, whereby a region having laterally varying thickness is formed from the at least one section of the photosensitive layer; - growing a functional layer onto the carrier substrate and the photosensitive layer remaining after development, wherein the region of varying thickness of the remaining photosensitive layer is overgrown; - removing the remaining photosensitive layer.