mhurhangee/patent-ind-claim-en huggingface dataset:
A substrate processing apparatus comprising: a centering stage configured to hold a first area of a lower surface of a substrate (W); a processing stage configured to hold a second area of the lower surface of the substrate (W); a stage elevating mechanism configured to move the centering stage between an elevated position higher than the processing stage and a lowered position lower than the processing stage ; a processing-stage rotating mechanism configured to rotate the processing stage about its central axis; an eccentricity detector configured to obtain an amount of eccentricity and an eccentricity direction of a center of the substrate (W), when held on the centering stage , from a central axis of the centering stage ; and an aligner configured to perform a centering operation of moving and rotating the centering stage until the center of the substrate (W) on the centering stage is located on the central axis of the processing stage , the aligner being configured to calculate a distance by which the centering stage is to be moved and an angle through which the centering stage is to be rotated, based on an initial relative position of the central axis of the centering stage with respect to the central axis of the processing stage , the amount of eccentricity, and the eccentricity direction. a centering stage configured to hold a first area of a lower surface of a substrate (W); a processing stage configured to hold a second area of the lower surface of the substrate (W); a stage elevating mechanism configured to move the centering stage between an elevated position higher than the processing stage and a lowered position lower than the processing stage ; a processing-stage rotating mechanism configured to rotate the processing stage about its central axis; an eccentricity detector configured to obtain an amount of eccentricity and an eccentricity direction of a center of the substrate (W), when held on the centering stage , from a central axis of the centering stage ; and an aligner configured to perform a centering operation of moving and rotating the centering stage until the center of the substrate (W) on the centering stage is located on the central axis of the processing stage , the aligner being configured to calculate a distance by which the centering stage is to be moved and an angle through which the centering stage is to be rotated, based on an initial relative position of the central axis of the centering stage with respect to the central axis of the processing stage , the amount of eccentricity, and the eccentricity direction.
A method for additively printing extension segments on a workpiece using an additive manufacturing machine , the method comprising: controlling, with a computing system , an operation of a print head of the additive manufacturing machine such that a region of interest of a build plate of the additive manufacturing machine is scanned with an electromagnetic radiation beam , the build plate including a workpiece coupled thereto; receiving, with the computing system , data associated with reflections of the electromagnetic radiation beam off of the build plate as the region of interest is scanned; receiving, with the computing system , data associated with a location of the electromagnetic radiation beam relative to the build plate ; determining, with the computing system , a location of a workpiece interface of the workpiece based on the received data associated with the reflections of the electromagnetic radiation beam and the received data associated with the location of the electromagnetic radiation beam ; and controlling, with the computing system , the operation of the print head such that an extension segment is additively printed on the determined workpiece interface . controlling, with a computing system , an operation of a print head of the additive manufacturing machine such that a region of interest of a build plate of the additive manufacturing machine is scanned with an electromagnetic radiation beam , the build plate including a workpiece coupled thereto; receiving, with the computing system , data associated with reflections of the electromagnetic radiation beam off of the build plate as the region of interest is scanned; receiving, with the computing system , data associated with a location of the electromagnetic radiation beam relative to the build plate ; determining, with the computing system , a location of a workpiece interface of the workpiece based on the received data associated with the reflections of the electromagnetic radiation beam and the received data associated with the location of the electromagnetic radiation beam ; and controlling, with the computing system , the operation of the print head such that an extension segment is additively printed on the determined workpiece interface .
A member for holding an object in position on an element provided with a bore , the object comprising a so-called male part designed as a pointed rod, the free end of which is suitable for being inserted into a reception housing provided in a so-called female part of the holding member , the reception housing being provided, at its opening , with a means for guiding the male part into the reception housing and the guiding means being formed in two parts of similar shape and coaxially fitted into one another, characterised in that a cylinder extends a conical part , the cylinder and the conical part constituting the inner part of the guiding means and in that said member also comprises a ring and seals inserted between the cylinder and a main body of the holding member .
Method for creation of an elevation map based on a single camera, comprising the steps of performing key frame selection to select at least two key frames at two different points of time out of frames provided by the camera, performing feature detection and matching based on the selected at least two key frames at two different points of time, performing coarse outlier rejection for the detected features, performing pose estimation of the camera in respect to the two key frames, performing stereo image rectification to align epipolar lines in parallel to a horizontal axis in a vertical direction, performing stereo matching to create a disparity map out of the rectified stereo image, and generating an elevation map out of the disparity map, the method comprising the additional step of performing image rectification for fisheye and/or perspective correction using a look-up table for a nominal ground plane. performing key frame selection to select at least two key frames at two different points of time out of frames provided by the camera, performing feature detection and matching based on the selected at least two key frames at two different points of time, performing coarse outlier rejection for the detected features, performing pose estimation of the camera in respect to the two key frames, performing stereo image rectification to align epipolar lines in parallel to a horizontal axis in a vertical direction, performing stereo matching to create a disparity map out of the rectified stereo image, and generating an elevation map out of the disparity map, the method comprising the additional step of performing image rectification for fisheye and/or perspective correction using a look-up table for a nominal ground plane.
A liquid coating device comprising: a dipping means that dips an object to be coated, the object having a long length, into liquid to coat the liquid on a surface of the object ; a conveying means that conveys the object at a predetermined speed, the object coated by the dipping means being vertically lifted upward from a surface of the liquid ; a load applying means that applies a predetermined load to the object conveyed by the conveying means , the load applying means being disposed at an upstream side of the dipping means along an object conveying path when a side of the object conveying path in which the object enters the dipping means is set to be the upstream side and a side of the object conveying path in which the object is discharged from the dipping means is set to be a downstream side; a drying means that dries the object on which the liquid is applied; a cooling means that cools the dried object ; a conveying speed measurement means that measures a conveying speed of the object ; a control portion that controls the conveying means based on a measurement result of the conveying speed measurement means ; the liquid coating device being characterised in that the liquid coating device comprises a motor driven fan equipped with a discharging port ; a chamber that applies the liquid to the object and contains at least the dipping means , the drying means and the cooling means , wherein the chamber includes the discharging port that is communicated to an outside of the chamber and discharges hot air within the chamber to the outside of the chamber when the motor and the fan rotate. a dipping means that dips an object to be coated, the object having a long length, into liquid to coat the liquid on a surface of the object ; a conveying means that conveys the object at a predetermined speed, the object coated by the dipping means being vertically lifted upward from a surface of the liquid ; a load applying means that applies a predetermined load to the object conveyed by the conveying means , the load applying means being disposed at an upstream side of the dipping means along an object conveying path when a side of the object conveying path in which the object enters the dipping means is set to be the upstream side and a side of the object conveying path in which the object is discharged from the dipping means is set to be a downstream side; a drying means that dries the object on which the liquid is applied; a cooling means that cools the dried object ; a conveying speed measurement means that measures a conveying speed of the object ; a control portion that controls the conveying means based on a measurement result of the conveying speed measurement means ; the liquid coating device being characterised in that the liquid coating device comprises a motor driven fan equipped with a discharging port ; a chamber that applies the liquid to the object and contains at least the dipping means , the drying means and the cooling means , wherein the chamber includes the discharging port that is communicated to an outside of the chamber and discharges hot air within the chamber to the outside of the chamber when the motor and the fan rotate.
Acoustic antenna comprising at least one acoustic module and at least one accelerometer device, said acoustic module comprising one or more acoustic sensors mounted on at least one printed circuit board and a processing unit configured to determine acceleration references, said acoustic sensors delivering electrical signals by using acceleration references provided by at least one accelerometer device, characterized in that at least one acoustic module comprises an accelerometer device configured to determine the acceleration of the antenna along three axes X, Y and Z of a system of main orthonormal reference (X, Y, Z), the X axis corresponding to the roll axis of the acoustic antenna, the Z axis corresponds to the pitch axis of the acoustic antenna and the axis Y corresponds to the yaw axis of the acoustic antenna, the accelerometer device comprising a set of N accelerometer sensors of MEMS-type , said accelerometer sensors being mounted on at least one of the printed circuit boards , said accelerometer sensors comprising at least three accelerometer sensors mounted on both sides of said at least one printed circuit board , the position of each accelerometer sensor being defined in an auxiliary reference system comprising 3 orthonormal axes (Xi, Yi, Zi), the plane (Xi, Yi) defining the plane of each accelerometer sensor and being parallel to the plane (X, Z) of the reference system, and in that , for each pair of sensors of said set of accelerometer sensors - the accelerometer sensors of the pair have, in twos, components of opposite sign along two axes of the main reference system; and - the axes of the reference system along which the components of the accelerometer sensors are, in twos, opposite on the set of the pairs of sensors comprise at least two of the three axes X, Y and Z of the main system reference, each accelerometer sensor being configured to determine the acceleration of the acoustic antenna along each axis X, Y and Z, the processing unit being configured to determine an acceleration reference for each axis of the reference system from the accelerations measured by each of said pairs of accelerometer sensors. - the accelerometer sensors of the pair have, in twos, components of opposite sign along two axes of the main reference system; and - the axes of the reference system along which the components of the accelerometer sensors are, in twos, opposite on the set of the pairs of sensors comprise at least two of the three axes X, Y and Z of the main system reference,
A laundry dryer including: - a drum to contain laundry to be dried, said drum being rotatable about a drum axis (R); - a casing rotatably supporting the drum and including a basement defining a basement plane (X, Y) and having a basement width (W); - a process air conduit in fluid communication with the drum where process air is apt to flow, said process air conduit including a basement process air conduit located in the basement , said basement process air conduit extending within the basement for a given length defined as the length between a process air inlet and outlet of the basement ; - a heat pump having a heat pump circuit in which a refrigerant can flow, said heat pump circuit including a first heat exchanger where the refrigerant is cooled off and the process air is heated up, and a second heat exchanger where the refrigerant is heated up and the process air is cooled off; said first heat exchanger and said second heat exchanger being arranged in the basement process air conduit to perform heat exchange between said refrigerant flowing in said heat pump circuit and said process air; - wherein a width of the basement process air conduit along a first portion of its extension in the basement is wider than 50% of the width (W) of the basement ; characterized in that - the first and second heat exchangers are located in the first portion of the basement process air conduit , wherein a heat exchanging surface of the first and/or the second heat exchangers has a heat exchanger width (Whe), and wherein the heat exchanger width (Whe) is wider than 50% of the width (W) of the basement . - a drum to contain laundry to be dried, said drum being rotatable about a drum axis (R); - a casing rotatably supporting the drum and including a basement defining a basement plane (X, Y) and having a basement width (W); - a process air conduit in fluid communication with the drum where process air is apt to flow, said process air conduit including a basement process air conduit located in the basement , said basement process air conduit extending within the basement for a given length defined as the length between a process air inlet and outlet of the basement ; - a heat pump having a heat pump circuit in which a refrigerant can flow, said heat pump circuit including a first heat exchanger where the refrigerant is cooled off and the process air is heated up, and a second heat exchanger where the refrigerant is heated up and the process air is cooled off; said first heat exchanger and said second heat exchanger being arranged in the basement process air conduit to perform heat exchange between said refrigerant flowing in said heat pump circuit and said process air; - wherein a width of the basement process air conduit along a first portion of its extension in the basement is wider than 50% of the width (W) of the basement ; - the first and second heat exchangers are located in the first portion of the basement process air conduit , wherein a heat exchanging surface of the first and/or the second heat exchangers has a heat exchanger width (Whe), and wherein the heat exchanger width (Whe) is wider than 50% of the width (W) of the basement .
A system for verifying authenticity of data sent to distributed clients, the system comprising: one or more processors and a non-transitory computer-readable medium having executable instructions encoded thereon such that when executed, the one or more processors perform an operation of ensuring authenticity of a set of distributed data sent from one or more servers to the distributed clients, where in ensuring authenticity of the set of distributed data, the one or more processors perform operations of initializing a plurality of multiparty, MPC, protocols to ensure secrecy of keys used to sign a new data element; and utilizing blockchain technology to ensure correctness and integrity of the new data element, wherein a bidirectional blockchain, comprising a forward blockchain and a reverse blockchain, is used such that the forward blockchain stores the new data element to be received by the distributed clients, and the reverse blockchain stores a public key used by the distributed clients to verify authenticity of the new data element stored in the forward blockchain, wherein signing of the new data element with the public key causes a previous public key to expire. initializing a plurality of multiparty, MPC, protocols to ensure secrecy of keys used to sign a new data element; and utilizing blockchain technology to ensure correctness and integrity of the new data element, wherein a bidirectional blockchain, comprising a forward blockchain and a reverse blockchain, is used such that the forward blockchain stores the new data element to be received by the distributed clients, and the reverse blockchain stores a public key used by the distributed clients to verify authenticity of the new data element stored in the forward blockchain, wherein signing of the new data element with the public key causes a previous public key to expire.
An arrangement , comprising: a plurality of component carriers to be manufactured; a panel configured as a pre-form for manufacturing the plurality of component carriers, wherein the component carriers of the plurality of component carriers are one of a printed circuit board, PCB, a substrate-like printed circuit board, SL-PCB, an organic interposer, an IC substrate; a protection layer covering at least a surface portion of a main surface of the panel , wherein the protection layer is detachable from the surface portion leaving substantially no residues on the panel ; and a handling tool for handling the panel , wherein the handling tool comprises a handling tool handling surface onto which the panel is arrangeable, and wherein the handling tool is configured for at least one of the group which consists of: transferring the panel , rotating the panel , flipping the panel ; wherein the panel comprises a panel handling surface , with which the panel is arrangeable onto the handling tool , wherein the panel handling surface comprises at least part of the surface portion covered by the protection layer . a plurality of component carriers to be manufactured; a panel configured as a pre-form for manufacturing the plurality of component carriers, wherein the component carriers of the plurality of component carriers are one of a printed circuit board, PCB, a substrate-like printed circuit board, SL-PCB, an organic interposer, an IC substrate; a protection layer covering at least a surface portion of a main surface of the panel , wherein the protection layer is detachable from the surface portion leaving substantially no residues on the panel ; and a handling tool for handling the panel , wherein the handling tool comprises a handling tool handling surface onto which the panel is arrangeable, and wherein the handling tool is configured for at least one of the group which consists of: transferring the panel , rotating the panel , flipping the panel ; wherein the panel comprises a panel handling surface , with which the panel is arrangeable onto the handling tool , wherein the panel handling surface comprises at least part of the surface portion covered by the protection layer .
A washable aqueous ink composition comprising: a) at least one salt of monocarboxylic or polycarboxylic acid with from 3 to 8 carbon atoms, advantageously an alkali metal salt of monocarboxylic or polycarboxylic acid with from 3 to 8 carbon atoms, and more advantageously wherein the alkali metal salt is sodium, b) at least one salt of polyacrylic acid, specifically an alkali metal salt of polyacrylic acid, more specifically sodium polyacrylate, c) at least one dye. a) at least one salt of monocarboxylic or polycarboxylic acid with from 3 to 8 carbon atoms, advantageously an alkali metal salt of monocarboxylic or polycarboxylic acid with from 3 to 8 carbon atoms, and more advantageously wherein the alkali metal salt is sodium, b) at least one salt of polyacrylic acid, specifically an alkali metal salt of polyacrylic acid, more specifically sodium polyacrylate, c) at least one dye.
A method of operating a communications controller, the method comprising: allocating a first set of subframes to a group of user equipments, UEs, for a direct mobile communication, DMC, link, wherein a specific number of consecutive subframes forms a radio frame periodically repeating in time; allocating a second set of subframes to a particular UE in the group of UEs; transmitting a first message comprising information about the first set of subframes to the group of UEs; and transmitting a second message comprising information about the second set of subframes to the particular UE, wherein the second set of subframes is a subset of the first set of subframes, wherein the information about the second set comprises subframes in which the particular UE may transmit to other UEs in the group of UEs, and wherein a third set of subframes is allocated for reception by the particular UE, wherein the third set of subframes is the difference between the first set of subframes and the second set of subframes; characterized in that each subframe of the first set of subframes is mapped to a HARQ process, wherein parameters related to an HARQ process of the DMC comprise a maximum number of retransmissions and wherein ACK/NACK feedback for the HARQ process is omitted. allocating a first set of subframes to a group of user equipments, UEs, for a direct mobile communication, DMC, link, wherein a specific number of consecutive subframes forms a radio frame periodically repeating in time; allocating a second set of subframes to a particular UE in the group of UEs; transmitting a first message comprising information about the first set of subframes to the group of UEs; and transmitting a second message comprising information about the second set of subframes to the particular UE, wherein the second set of subframes is a subset of the first set of subframes, wherein the information about the second set comprises subframes in which the particular UE may transmit to other UEs in the group of UEs, and wherein a third set of subframes is allocated for reception by the particular UE, wherein the third set of subframes is the difference between the first set of subframes and the second set of subframes; characterized in that wherein the second set of subframes is a subset of the first set of subframes, wherein the information about the second set comprises subframes in which the particular UE may transmit to other UEs in the group of UEs, and wherein a third set of subframes is allocated for reception by the particular UE, wherein the third set of subframes is the difference between the first set of subframes and the second set of subframes; each subframe of the first set of subframes is mapped to a HARQ process, wherein parameters related to an HARQ process of the DMC comprise a maximum number of retransmissions and wherein ACK/NACK feedback for the HARQ process is omitted.