mhurhangee/ep-ind-claims huggingface dataset:
Assembly device for arranging and stacking sheet-like components along a stacking direction, having at least one workpiece carrier device which comprises at least one workpiece carrier which is formed from at least one base plate, two mutually opposite supporting walls fixed to the base plate and two mutually opposite side plates fixed to the supporting walls and in which sheet-like components can be stacked along a stacking direction in a free space framed by the supporting walls and the side plates, and which comprises at least one receiving unit defining at least one depositing location for depositing a new component, and with at least one aligning device which comprises at least one pressing unit by means of which at least one component deposited at the depositing location can be moved in an aligning direction extending transversely to the stacking direction and can be pressed against a stop means, wherein the pressing unit of the aligning device comprises at least one pressing means and at least one pressing drive, with which the pressing means can be transferred from a rest position, in which the pressing means is in contact-free contact with the component, into a pressing position, in which the pressing means bears directly against the at least one component, characterised in that the pressing unit of the alignment device has at least one fixing means which is fixed on a holder of the alignment device and on which the pressing means can be fixed relative to the fixing means and/or in that the pressing unit of the alignment device comprises at least one guide means by which the transfer of the pressing means from the rest position into the pressing position can be guided along the alignment direction.
Antenna holder having an assembly base, an antenna mast, and mounting means for fastening the antenna mast to the assembly base, - wherein the assembly base comprises at least two mutually engaging sliding elements, specifically one external element which is formed by an external tube, and one internal element which is formed by an internal tube, which engages into the external tube, or by a rod which engages into the external tube; - wherein the mounting means have a clamping element and a counter-clamping element which are interconnectable in such a manner that the clamping element and the counter-clamping element jam a portion of the assembly base; and - wherein the mast foot is attached to the clamping element; characterized in that - the counter-clamping element has two parallel end portions (111, 112) which each form an external support wall and are supported on the assembly base; - at least one counter-support element which extends in the direction of the assembly base and is supported on the assembly plate is disposed on the internal side of the counter-clamping element; - the at least one counter-support element and the counter-clamping element are formed by portions of an integral component, preferably of a casting or of an extruded section, or the counter-support element is welded to the counter-clamping element; and - the at least one counter-support element in the region of a clearance is provided with one or a plurality of serrated protrusions which is/are directed towards the assembly base and is/are pushed into the assembly base when the assembly base is jammed between the clamping element and the counter-clamping element. - wherein the assembly base comprises at least two mutually engaging sliding elements, specifically one external element which is formed by an external tube, and one internal element which is formed by an internal tube, which engages into the external tube, or by a rod which engages into the external tube; - wherein the mounting means have a clamping element and a counter-clamping element which are interconnectable in such a manner that the clamping element and the counter-clamping element jam a portion of the assembly base; and - wherein the mast foot is attached to the clamping element; - the counter-clamping element has two parallel end portions (111, 112) which each form an external support wall and are supported on the assembly base; - at least one counter-support element which extends in the direction of the assembly base and is supported on the assembly plate is disposed on the internal side of the counter-clamping element; - the at least one counter-support element and the counter-clamping element are formed by portions of an integral component, preferably of a casting or of an extruded section, or the counter-support element is welded to the counter-clamping element; and - the at least one counter-support element in the region of a clearance is provided with one or a plurality of serrated protrusions which is/are directed towards the assembly base and is/are pushed into the assembly base when the assembly base is jammed between the clamping element and the counter-clamping element.
A thermal stand-off (22;122) comprising a thermal stand-off section (28;128) within a spatial region extending along a distance between a first location and second, opposed location, the thermal stand-off section (28;128) including a tortuous solid-wall thermal conduction path (30;130) extending from the first location to the second location, the tortuous solid-wall thermal conduction path (30;130) being longer than the distance of the spatial region; characterised in that the tortuous solid-wall thermal conduction path (30;130) includes an antegrade section and, relative to the antegrade section, a retrograde section, wherein the antegrade section and the retrograde section provide a back turn with respect to a reference start location at the first location and a reference end location at the second location, and the tortuous solid-wall thermal conduction path (30;130) is non-single helical.
An optical arrangement, comprising: a first optical path for transmitting a first beam; a detector arrangement for receiving the first beam; wherein the optical arrangement is configured to apply an optical pilot tone with an original phase to the detector arrangement; wherein the detector arrangement is configured to receive the optical pilot tone, to sense the phase of the received optical pilot tone, and to determine a pilot tone delay between the phase of the received optical pilot tone and the original phase of the optical pilot tone; wherein the optical arrangement is configured to determine a delay correction value based on the determined pilot tone delay and to apply the delay correction value to a signal of the first beam containing measurement information received by the detector arrangement; wherein the detector arrangement is configured to sense a phase or time delay of the signal of the first beam. a first optical path for transmitting a first beam; a detector arrangement for receiving the first beam; wherein the optical arrangement is configured to apply an optical pilot tone with an original phase to the detector arrangement; wherein the detector arrangement is configured to receive the optical pilot tone, to sense the phase of the received optical pilot tone, and to determine a pilot tone delay between the phase of the received optical pilot tone and the original phase of the optical pilot tone; wherein the optical arrangement is configured to determine a delay correction value based on the determined pilot tone delay and to apply the delay correction value to a signal of the first beam containing measurement information received by the detector arrangement; wherein the detector arrangement is configured to sense a phase or time delay of the signal of the first beam.
A liquid injection attachment adapted to be mounted removably on a pipette or on a pipette tip fitted to the pipette for injecting liquid into a feed port, comprising: a tubular attachment body having at its distal end a liquid outlet and having at its proximal end an insertion port for inserting a distal portion of the pipette or of the pipette tip; and a gasket formed from a rubber-like elastic body disposed around the liquid outlet of the tubular attachment body, characterised in that the attachment body comprises at its distal end surface a stepped portion that is recessed so as to surround the liquid outlet, with the gasket being received in the stepped portion so as to protrude from the distal end surface of the attachment body. a tubular attachment body having at its distal end a liquid outlet and having at its proximal end an insertion port for inserting a distal portion of the pipette or of the pipette tip; and a gasket formed from a rubber-like elastic body disposed around the liquid outlet of the tubular attachment body, characterised in that the attachment body comprises at its distal end surface a stepped portion that is recessed so as to surround the liquid outlet, with the gasket being received in the stepped portion so as to protrude from the distal end surface of the attachment body.
A formulation for an eye treatment, comprising: a photosensitizer including riboflavin; and a permeability enhancing composition including one or more of IGEPAL CO-630, Polidocanol or IGEPAL CO-720, the permeability enhancing composition configured to increase a permeability of an area of the eye for the photosensitizer. a photosensitizer including riboflavin; and a permeability enhancing composition including one or more of IGEPAL CO-630, Polidocanol or IGEPAL CO-720, the permeability enhancing composition configured to increase a permeability of an area of the eye for the photosensitizer.
An avionics equipment assembly of an aircraft, comprising an avionics equipment mounting tray and a retainer assembly for securing a removable electronic unit in the avionics equipment mounting tray of an aircraft, the retainer assembly comprising: a latch including a base portion pivotally coupled to the avionics equipment mounting tray, and a handle portion projecting outward from the base portion, wherein the base portion includes a cam surface adapted to releasably contact the removable electronic unit; a swing arm including a first end segment pivotally connected to the avionics equipment mounting tray at a first pivot axis, and an opposite second end portion pivotally connected to the base portion at a second pivot axis, wherein the first end segment is pivotally connected to the avionics equipment mounting tray; and a catch device carried between the latch and the avionics equipment mounting tray; wherein the latch is adapted to swing about the first pivot axis via the swing arm and between a swung clear position and a catch position, wherein the catch device is engaged when in the catch position; and wherein the latch is adapted to pivot about the second pivot axis and between a released state and a retained state when in the catch position; and wherein the cam surface is in biased contact with the removable electronic unit when in the retained state; and wherein the cam surface is not in contact with the removable electronic unit when in the released state, and the cam surface is in contact with the removable electronic unit when in the retained state. a latch including a base portion pivotally coupled to the avionics equipment mounting tray, and a handle portion projecting outward from the base portion, wherein the base portion includes a cam surface adapted to releasably contact the removable electronic unit; a swing arm including a first end segment pivotally connected to the avionics equipment mounting tray at a first pivot axis, and an opposite second end portion pivotally connected to the base portion at a second pivot axis, wherein the first end segment is pivotally connected to the avionics equipment mounting tray; and a catch device carried between the latch and the avionics equipment mounting tray; wherein the latch is adapted to swing about the first pivot axis via the swing arm and between a swung clear position and a catch position, wherein the catch device is engaged when in the catch position; and wherein the latch is adapted to pivot about the second pivot axis and between a released state and a retained state when in the catch position; and wherein the cam surface is in biased contact with the removable electronic unit when in the retained state; and wherein the cam surface is not in contact with the removable electronic unit when in the released state, and the cam surface is in contact with the removable electronic unit when in the retained state.
A conveyor belt provided with at least one guide rim (9, 10) attached thereto, wherein the guide rim (9, 10) extends in a longitudinal direction of the conveyor belt such that it enables guiding of the conveyor belt along a lateral guide surface (5, 6, 7, 8) provided on an outer periphery of a roll (2, 3) by means of which the direction of the conveyor belt is changed and by means of which the conveyor belt is subjected to a predetermined bending, and wherein the guide rim (9, 10) has a contact surface that is in contact with the conveyor belt, characterised in that, in a position in which the conveyor belt is not subjected to any bending in the longitudinal direction thereof, as seen in a cross section cross wise to the longitudinal direction of the guide rim (9, 10), the guide rim (9, 10) presents residual stresses (σ 1, σ 2) comprised by induced tensile stresses (σ 1) in opposite lateral regions of said contact surface and an induced compressive stress (σ 2) in a region between said lateral regions, said tensile stress (σ 1) generating a tensile force on said contact surface in a direction away from the conveyor belt and said compressive stress generating a compressive force on said contact surface towards the conveyor belt.
Method of operating a wind turbine (3a,3b,3c), in particular plural wind turbines of a wind park, the method comprising: receiving, by the wind turbine or a wind park controller, safety relevant information (9, 9a) from an external source external to the wind turbine; activating, by the wind turbine or the wind park controller, a safe operation mode depending on the received information, wherein the external source is different from a wind park controller and comprises another neighbouring wind turbine (3b,3c), in particular adjacent to the wind turbine, wherein the safety relevant information (9, 9a) comprises an indication that the neighbouring wind turbine entered or is going to enter a safe operational mode. receiving, by the wind turbine or a wind park controller, safety relevant information (9, 9a) from an external source external to the wind turbine; activating, by the wind turbine or the wind park controller, a safe operation mode depending on the received information, wherein the external source is different from a wind park controller and comprises another neighbouring wind turbine (3b,3c), in particular adjacent to the wind turbine, wherein the safety relevant information (9, 9a) comprises an indication that the neighbouring wind turbine entered or is going to enter a safe operational mode.
Cooking appliance with a cooking chamber and a carrier for products to be cooked, characterised in that the carrier for products to be cooked has a plurality of baskets (13 to 16, 25), which are arranged in a nested manner in one another at least in regions, wherein at least two baskets (13 to 16, 25) are nested in one another and stacked on top of one another such that a free space (19, 22) for receiving products to be cooked is embodied between two bases (20, 21, 23) of two consecutive baskets (13 to 16, 25), wherein at least one basket (16, 25) is made of plastic or stainless steel, wherein during operation of the appliance the carrier for products to be cooked is positioned on an evaporator tray arranged at the base of a muffle delimiting the cooking chamber, or during operation of the appliance the carrier for products to the cooked is positioned on an evaporator unit (9, 11), which is formed by a cooking chamber partition introduced into the cooking chamber of the cooking appliance, which partition divides the cooking chamber into an upper cooking chamber part and a lower cooking chamber part.
A furnace control method comprising a step of controlling including: measuring a combustion state of a furnace by measuring the spectral information of the furnace by using a spectral characteristics measuring method comprising: a step of acquiring spectral information, by using an imaging spectral device comprising an imaging lens (3, 5), the spectral imaging device being configured to disperse light emitted from a linear region of an object or reflected light from the linear region, via the imaging lens (3,5); a step of capturing an image of a two-dimensional region of the object, the two-dimensional region including the linear region, by using a two-dimensional imaging device; a step of determining a range on which the spectral information is to be acquired by the imaging spectral device based on the image captured by the two-dimensional imaging device by associating a measuring field of view of said imaging spectral device with said image captured by the two-dimensional imaging device, the furnace control method further comprising controlling the combustion state of the furnace, based on the measured combustion state of the furnace. a step of acquiring spectral information, by using an imaging spectral device comprising an imaging lens (3, 5), the spectral imaging device being configured to disperse light emitted from a linear region of an object or reflected light from the linear region, via the imaging lens (3,5); a step of capturing an image of a two-dimensional region of the object, the two-dimensional region including the linear region, by using a two-dimensional imaging device; a step of determining a range on which the spectral information is to be acquired by the imaging spectral device based on the image captured by the two-dimensional imaging device by associating a measuring field of view of said imaging spectral device with said image captured by the two-dimensional imaging device, the furnace control method further comprising controlling the combustion state of the furnace, based on the measured combustion state of the furnace.
A cellulose resin produced by binding cardanol or a derivative thereof, and a flexible component to cellulose or a derivative thereof, wherein the flexible component comprises at least one selected from the group consisting of a reactive thermoplastic polyurethane elastomer, a reactive silicone and a reactive rubber.
A method for communication between a network and a host computer having a processor and a stack of protocol layers, the method comprising: receiving, by a network interface for said host, a message packet including data and a plurality of headers corresponding to said stack of protocol layers, said data intended for placement in a destination of said host according to protocol processing of said headers, processing, by protocol processing hardware of the network interface, said plurality of headers, including creating a summary of said group of headers, choosing, based upon comparing said summary with a communication control block, CCB, whether to process said packet by said protocol layers, and sending said data to said destination, wherein said destination is above the transport layer, whereby processing of said packet by said stack of protocol layers is avoided. receiving, by a network interface for said host, a message packet including data and a plurality of headers corresponding to said stack of protocol layers, said data intended for placement in a destination of said host according to protocol processing of said headers, processing, by protocol processing hardware of the network interface, said plurality of headers, including creating a summary of said group of headers, choosing, based upon comparing said summary with a communication control block, CCB, whether to process said packet by said protocol layers, and sending said data to said destination, wherein said destination is above the transport layer, whereby processing of said packet by said stack of protocol layers is avoided.
A variable gain analog amplifier, comprising: a) a plurality of switches (S1, S2,..., Sn), each of said switches capable of setting a gain of said variable gain analog amplifier; b) a pulse-density modulator (PDM -42) capable of controlling the switches of said plurality of switches (S1, S2,..., Sn) to produce a signal resulting in said gain of said variable gain analog amplifier; wherein said variable gain analog amplifier is configured to dither the output of said PDM by modulating a single-bit output to obtain a higher effective pulse-width modulation, so as to increase resolution of the gain of said variable gain amplifier; and c) clocking means using a spread spectrum for clocking said PDM to reduce amplitude of frequency components of the clock signal in an output of the variable gain analog amplifier. a) a plurality of switches (S1, S2,..., Sn), each of said switches capable of setting a gain of said variable gain analog amplifier; b) a pulse-density modulator (PDM -42) capable of controlling the switches of said plurality of switches (S1, S2,..., Sn) to produce a signal resulting in said gain of said variable gain analog amplifier; wherein said variable gain analog amplifier is configured to dither the output of said PDM by modulating a single-bit output to obtain a higher effective pulse-width modulation, so as to increase resolution of the gain of said variable gain amplifier; and c) clocking means using a spread spectrum for clocking said PDM to reduce amplitude of frequency components of the clock signal in an output of the variable gain analog amplifier.
A method for generating material decomposition images from a plurality of images (92; 102 1) obtained with plural-energy x-ray based imaging, the plurality of images corresponding to respective energies of the plural-energy x-ray based imaging, the method comprising: modelling spatial relationships and spectral relationships among the plurality of images by learning features from the plurality of images in combination and one or more of the plurality of images individually with a deep learning neural network (90; 90'); generating one or more basis material images employing the spatial relationships and the spectral relationships; and generating one or more material specific or material decomposition images from the basis material images; and wherein the neural network (90; 90') has an encoder-decoder structure and includes a plurality of encoder branches (96; 96'); wherein each of one or more encoder branches (96 0; 96 0 ', 96 1 ') of the plurality of encoder branches (96; 96') encodes two or more images (92; 102 1, 102 2) of the plurality of images in combination; and each of one or more other encoder branches (96 1, 96 2,... 96 m) of the plurality of encoder branches (96; 96') encodes a respective individual image (92 1, 92 2,... 92 m) of the plurality of images. modelling spatial relationships and spectral relationships among the plurality of images by learning features from the plurality of images in combination and one or more of the plurality of images individually with a deep learning neural network (90; 90'); generating one or more basis material images employing the spatial relationships and the spectral relationships; and generating one or more material specific or material decomposition images from the basis material images; and wherein the neural network (90; 90') has an encoder-decoder structure and includes a plurality of encoder branches (96; 96'); wherein each of one or more encoder branches (96 0; 96 0 ', 96 1 ') of the plurality of encoder branches (96; 96') encodes two or more images (92; 102 1, 102 2) of the plurality of images in combination; and each of one or more other encoder branches (96 1, 96 2,... 96 m) of the plurality of encoder branches (96; 96') encodes a respective individual image (92 1, 92 2,... 92 m) of the plurality of images.
Method for controlling a rear axle steering system of a motor vehicle, wherein a steering angle of wheels of a rear axle is set, characterised in that when a predetermined lateral acceleration of the motor vehicle is reached as a function of a friction value of a road surface, on which the motor vehicle is moving, the steering angle of the wheels of a rear axle is limited.