mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic docking device comprising: an optical sensor including a light emitting part and a light receiving part, and being configured to receive at the light receiving part, light from the light emitting part reflected by an object, to thereby measure a distance to a surrounding object at each predetermined angle; a position information input unit to which position data of a ship based on satellite positioning information is input; and a control unit configured to perform a control for automatically navigating and docking the ship to a docking position on a basis of the data acquired by the optical sensor and the position information input unit, characterised in that the control unit is configured to control the optical sensor to perform a preparatory measurement to measure a distance to an object around the docking position at a stage before a position of the ship obtained on a basis of a measurement result of the optical sensor is used for automatic navigation, and wherein when the optical sensor is configured to perform the preparatory measurement, the control unit is configured to perform at least one of a control for changing an orientation of the ship and a control for moving the ship in such a manner that light irradiated from the light emitting part of the optical sensor can be reflected by the object around the docking position and received by the light receiving part. an optical sensor including a light emitting part and a light receiving part, and being configured to receive at the light receiving part, light from the light emitting part reflected by an object, to thereby measure a distance to a surrounding object at each predetermined angle; a position information input unit to which position data of a ship based on satellite positioning information is input; and a control unit configured to perform a control for automatically navigating and docking the ship to a docking position on a basis of the data acquired by the optical sensor and the position information input unit, characterised in that the control unit is configured to control the optical sensor to perform a preparatory measurement to measure a distance to an object around the docking position at a stage before a position of the ship obtained on a basis of a measurement result of the optical sensor is used for automatic navigation, and wherein when the optical sensor is configured to perform the preparatory measurement, the control unit is configured to perform at least one of a control for changing an orientation of the ship and a control for moving the ship in such a manner that light irradiated from the light emitting part of the optical sensor can be reflected by the object around the docking position and received by the light receiving part.
Packaging formed of a board material and comprising a base , a front panel, , a left side panel , a right side panel and a rear panel , wherein the front, left side, right side and rear panels extend upwardly from the base, the front panel at least partially adjoins the left side and right side panels, and wherein the rear panel joins the left side and right side panels; wherein the left side panel, the right side panel and the rear panel are each formed with a respective flap extending upwardly therefrom, wherein each flap is foldably connected to its respective panel and wherein the flaps of the left side, rear and right side panels are joined to form a continuous flap or rim ; wherein the rear panel flap includes a fold line extending into the flap in a direction away from each corner adjacent the point at which the rear panel flap contacts the rear panel , a respective side panel and a respective side panel flap ; wherein the packaging is assembled such that the left side panel flap and the right side panel flap are folded inwardly by about 90° towards each other and the rear panel flap is reverse or outwardly folded by about 180° and attached to or locked into the rear panel ; wherein at least an upper portion of the front panel is substantially open, defines an opening to the packaging and includes a wall to retain, in use, products within the packaging; and. wherein the rear panel flap includes a tab or tongue and wherein the rear panel is provided with a slot adapted to receive the tab or tongue ; such that the tab or tongue is received by the slot to attach the rear panel flap to the rear panel . wherein the left side panel, the right side panel and the rear panel are each formed with a respective flap extending upwardly therefrom, wherein each flap is foldably connected to its respective panel and wherein the flaps of the left side, rear and right side panels are joined to form a continuous flap or rim ; wherein the rear panel flap includes a fold line extending into the flap in a direction away from each corner adjacent the point at which the rear panel flap contacts the rear panel , a respective side panel and a respective side panel flap ; wherein the packaging is assembled such that the left side panel flap and the right side panel flap are folded inwardly by about 90° towards each other and the rear panel flap is reverse or outwardly folded by about 180° and attached to or locked into the rear panel ; wherein at least an upper portion of the front panel is substantially open, defines an opening to the packaging and includes a wall to retain, in use, products within the packaging; and. wherein the rear panel flap includes a tab or tongue and wherein the rear panel is provided with a slot adapted to receive the tab or tongue ; such that the tab or tongue is received by the slot to attach the rear panel flap to the rear panel .
An aircraft control link with an impact-resistant structure having a redundant load path for carrying loads of a flight control system, comprising: a first elongated structure having a first end and a second end; a second elongated structure having a first end and a second end, the second elongated structure having a tubular shape with an inner wall, wherein the first elongated structure is disposed entirely within the second elongated structure and spaced apart from the inner wall; a first end connector attached both to the first end of the first elongated structure and to the first end of the second elongated structure ; and a second end connector attached both to the second end of the first elongated structure and to the second end of the second elongated structure , characterized in that any load forces applied to the aircraft control link are carried by both the first elongated structure and the second elongated structure . a first elongated structure having a first end and a second end; a second elongated structure having a first end and a second end, the second elongated structure having a tubular shape with an inner wall, wherein the first elongated structure is disposed entirely within the second elongated structure and spaced apart from the inner wall; a first end connector attached both to the first end of the first elongated structure and to the first end of the second elongated structure ; and a second end connector attached both to the second end of the first elongated structure and to the second end of the second elongated structure , characterized in that any load forces applied to the aircraft control link are carried by both the first elongated structure and the second elongated structure .
A coated seed comprising: a seed; and a coating at least partially surrounding the seed, wherein the coating comprises a fungicide, a micronutrient metal, and a chelating agent, wherein the fungicide comprises copper (II) hydroxide, wherein the amount of copper (II) hydroxide is from 0.12 mg/ seed to 0.21 mg/ seed, and wherein the chelating agent is zeolite. a seed; and a coating at least partially surrounding the seed, wherein the coating comprises a fungicide, a micronutrient metal, and a chelating agent, wherein the fungicide comprises copper (II) hydroxide, wherein the amount of copper (II) hydroxide is from 0.12 mg/ seed to 0.21 mg/ seed, and wherein the chelating agent is zeolite.
An apparatus, comprising: a networked input/output memory management unit, IOMMU, comprising a plurality of IOMMUs , wherein the networked IOMMU is configured to: receive a memory access request that includes a domain physical address generated by a first address translation layer; and selectively translate the domain physical address into a physical address in a system memory using one of the plurality of IOMMUs that is selected based on a type of a device that generated the memory access request. a networked input/output memory management unit, IOMMU, comprising a plurality of IOMMUs , wherein the networked IOMMU is configured to: receive a memory access request that includes a domain physical address generated by a first address translation layer; and selectively translate the domain physical address into a physical address in a system memory using one of the plurality of IOMMUs that is selected based on a type of a device that generated the memory access request. receive a memory access request that includes a domain physical address generated by a first address translation layer; and selectively translate the domain physical address into a physical address in a system memory using one of the plurality of IOMMUs that is selected based on a type of a device that generated the memory access request.
n error correction encoding method of calculating a parity bit sequence from an information bit sequence by using a sparse parity-check matrix for a QC-LDPC, Quasi-Cyclic Low-Density Parity-Check code, and to generate a codeword, in which ∘ said information bit sequence d=d b,1 , ..., d b,K is a vector consisting of elements d b,i corresponding an i-th information bit block, 1≤i≤K, where each element d b,i consists of q elements, ∘ said parity bit sequence p=p b,1 , ..., p b,M is a vector consisting of elements p b,j corresponding an j-th parity bit block, 1≤j≤M, where each element p b,j consists of q elements, ∘ said parity-check matrix with M rows and N columns of qxq submatrices has the following structure X 11 X 12 ... X 1K Z 1 l 0 ... ... 0 X 21 X 22 ... X 2K Z 2 l l 0 ... 0 0 l l 0 0 0 l l X M1 X M2 ... X MK Z M 0 0 0 0 l where the submatrices X ji correspond to said information bit sequence and are cyclic shifted q x q unit matrices or q x q zero matrices, the submatrices Z j correspond to the first parity bit element p b,1 and are cyclic shifted q x q unit matrices or q x q zero matrices, and the submatrices I are q x q unit submatrices, or said parity check matrix has said structure after column permutation, and ∘ each element of said parity bit sequence is calculated according to three equations shown below ∘ ∘ d b , 1 T = Σ M j = 1 Z j − 1 Σ M j = 1 Σ i = 1 K X ji d T b , i ∘ ∘ 2 ≤ j ≤ M − 1 : p T b , j = Σ M r = j Σ i = 1 K X ri d T b , i + Σ M r = j Z r p b , 1 T ∘ ∘ p b , M T = Σ K i = 1 X Mi d T b , i + Z M p b , 1 T where T is a transposed matrix. ∘ said information bit sequence d=d b,1 , ..., d b,K is a vector consisting of elements d b,i corresponding an i-th information bit block, 1≤i≤K, where each element d b,i consists of q elements, ∘ said parity bit sequence p=p b,1 , ..., p b,M is a vector consisting of elements p b,j corresponding an j-th parity bit block, 1≤j≤M, where each element p b,j consists of q elements, ∘ said parity-check matrix with M rows and N columns of qxq submatrices has the following structure X 11 X 12 ... X 1K Z 1 l 0 ... ... 0 X 21 X 22 ... X 2K Z 2 l l 0 ... 0 0 l l 0 0 0 l l X M1 X M2 ... X MK Z M 0 0 0 0 l where the submatrices X ji correspond to said information bit sequence and are cyclic shifted q x q unit matrices or q x q zero matrices, the submatrices Z j correspond to the first parity bit element p b,1 and are cyclic shifted q x q unit matrices or q x q zero matrices, and the submatrices I are q x q unit submatrices, or said parity check matrix has said structure after column permutation, and ∘ each element of said parity bit sequence is calculated according to three equations shown below ∘ ∘ d b , 1 T = Σ M j = 1 Z j − 1 Σ M j = 1 Σ i = 1 K X ji d T b , i ∘ ∘ 2 ≤ j ≤ M − 1 : p T b , j = Σ M r = j Σ i = 1 K X ri d T b , i + Σ M r = j Z r p b , 1 T ∘ ∘ p b , M T = Σ K i = 1 X Mi d T b , i + Z M p b , 1 T where T is a transposed matrix.
A method of detecting and quantifying the respective amounts of two antibodies having high sequence identity present together in a biological sample, wherein the antibodies are eculizumab and ravulizumab, the method comprising: (a) treating the biological sample containing the antibodies with a protease to form a proteolytic peptide mixture of the antibodies in the biological sample; (b) analyzing a sample of the proteolytic peptide mixture by high performance liquid chromatography (HPLC) tandem mass spectrometry to detect a signature peptide from each of the antibodies in the biological sample, wherein the signature peptide for eculizumab consists of the amino acid sequence of SEQ ID NO: 1 and the signature peptide for ravulizumab consists of the amino acid sequence of SEQ ID NO: 2; and (c) quantifying each antibody in the biological sample based on the signal ratio of its signature peptide to an internal control, wherein the internal control comprises a labeled form of the same signature peptide. (a) treating the biological sample containing the antibodies with a protease to form a proteolytic peptide mixture of the antibodies in the biological sample; (b) analyzing a sample of the proteolytic peptide mixture by high performance liquid chromatography (HPLC) tandem mass spectrometry to detect a signature peptide from each of the antibodies in the biological sample, wherein the signature peptide for eculizumab consists of the amino acid sequence of SEQ ID NO: 1 and the signature peptide for ravulizumab consists of the amino acid sequence of SEQ ID NO: 2; and (c) quantifying each antibody in the biological sample based on the signal ratio of its signature peptide to an internal control, wherein the internal control comprises a labeled form of the same signature peptide.
Power electronics circuitry, comprising: a busbar comprising a first conductive layer with an input area and an output area , wherein the conductive layer has a machined pattern defining a meandering conductive path between the input area and the output area; and wherein the power electronics circuitry further comprises: a current monitoring arrangement adapted to sense a voltage drop over said meandering conductive path; the power electronics circuitry being characterised by a direct-current capacitor connected at the input area of the busbar; a semiconductor device connected at the output area of the busbar. a busbar comprising a first conductive layer with an input area and an output area , wherein the conductive layer has a machined pattern defining a meandering conductive path between the input area and the output area; and wherein the power electronics circuitry further comprises: a current monitoring arrangement adapted to sense a voltage drop over said meandering conductive path; the power electronics circuitry being characterised by a direct-current capacitor connected at the input area of the busbar; a semiconductor device connected at the output area of the busbar.
An arrangement for charging an at least partially electrically driven motor vehicle, comprising a vehicle-side plug connector for connecting to a charging socket integrated into the motor vehicle, a charging-column-side plug connector for connecting to a mating plug connector arranged on a charging column, and a charging cable having a first end and a second end, wherein the first end is connected to the vehicle-side plug connector and the second end is connected to the charging-column-side plug connector , characterized in that at least one authentication element for starting a charging process is arranged on the vehicle-side plug connector , characterized in that the at least one authentication element is arranged in a housing of the vehicle-side plug connector , and in that the housing of the vehicle-side plug connector has a receiving pocket for receiving the at least one authentication element .
A method for determining a spectral scan protocol for acquiring a computed tomography image using a computed tomography scanner, the method comprising the steps of: defining a conventional scan protocol having scan restrictions for acquiring a conventional computed tomography image, determining a spectral scan protocol comprising a proportion of a first acquisition mode and a proportion of a second acquisition mode , wherein the spectral scan protocol resembles the conventional scan protocol, and determining the proportion of the first acquisition mode and the proportion of the second acquisition mode so that the scan restrictions of the conventional scan protocol are met. defining a conventional scan protocol having scan restrictions for acquiring a conventional computed tomography image, determining a spectral scan protocol comprising a proportion of a first acquisition mode and a proportion of a second acquisition mode , wherein the spectral scan protocol resembles the conventional scan protocol, and determining the proportion of the first acquisition mode and the proportion of the second acquisition mode so that the scan restrictions of the conventional scan protocol are met.
A node of a cellular network , comprising: - an interface (112-1, 117-1) configured to communicate with a terminal on a time-synchronized communication channel implemented on a radio link of the cellular network , wherein transmission frames of the time-synchronized communication channel comprise resource blocks defined in time and frequency domain which carry synchronization signals enabling the node and the terminal to synchronize communication on the radio link , - at least one processor (112-2, 117-2) configured to receive, via the interface (112-1, 117-1) from the terminal , a message including data associated with a service implemented by the terminal and the node , the message having been transmitted by the terminal on the channel at a first point in time , wherein the at least one processor (112-2, 117-2) is configured to determine a timeout point in time of communication (160, 201-203, 211) associated with the service based on the first point in time , and wherein the at least one processor (112-2, 117-2) is configured, upon expiry of the timeout point in time , to discard the data and to send a further message to a further terminal , the further message informing the further terminal about discarding of the data . - an interface (112-1, 117-1) configured to communicate with a terminal on a time-synchronized communication channel implemented on a radio link of the cellular network , wherein transmission frames of the time-synchronized communication channel comprise resource blocks defined in time and frequency domain which carry synchronization signals enabling the node and the terminal to synchronize communication on the radio link , - at least one processor (112-2, 117-2) configured to receive, via the interface (112-1, 117-1) from the terminal , a message including data associated with a service implemented by the terminal and the node , the message having been transmitted by the terminal on the channel at a first point in time , wherein the at least one processor (112-2, 117-2) is configured to determine a timeout point in time of communication (160, 201-203, 211) associated with the service based on the first point in time , and wherein the at least one processor (112-2, 117-2) is configured, upon expiry of the timeout point in time , to discard the data and to send a further message to a further terminal , the further message informing the further terminal about discarding of the data .
A farm vehicle autopilot comprising: a global navigational satellite system sensor and an inertial measurement unit sensor in communication with a microprocessor and memory , wherein the microprocessor and memory are configured to: receive steering angle data from a steering angle sensor , send steering angle commands to a steering angle actuator , and perform automatic autopilot calibration by guiding a farm vehicle through a calibration maneuver and measuring vehicle response characteristics during the calibration maneuver with the global navigational satellite system and inertial measurement unit sensors ; wherein the microprocessor and memory are further configured to perform automatic diagnostics of vehicle performance under autopilot control. receive steering angle data from a steering angle sensor , send steering angle commands to a steering angle actuator , and perform automatic autopilot calibration by guiding a farm vehicle through a calibration maneuver and measuring vehicle response characteristics during the calibration maneuver with the global navigational satellite system and inertial measurement unit sensors ; wherein the microprocessor and memory are further configured to perform automatic diagnostics of vehicle performance under autopilot control.
Power converter comprising at least one semiconductor module with a base plate and a cooling housing , wherein the cooling housing comprises a receiving plate and a cover , wherein the receiving plate has at least one recess , wherein the receiving plate is connected to the base plate of the semiconductor module around the at least one recess , wherein the cover is connected to the receiving plate along a connecting region around the at least one recess , wherein either the receiving plate or the cover is formed as a stamped or deep-drawn plate, wherein the base plate has a cooling structure to which a cooling fluid is exposed in the recess of the receiving plate , characterised in that the receiving plate has a recess, wherein the receiving plate is configured and formed to receive a surrounding flow blocker in the recess, wherein the surrounding flow blocker is configured to conduct the cooling fluid over the cooling structure , wherein the surrounding flow blocker thus prevents the cooling fluid from bypassing the cooling structure of the semiconductor module or reduces such bypassing.
A method for recovering a metal from a liquid sample, the method comprising the steps of: preparing a first mixture of a first chelating agent and the liquid sample whereby to form a first complex between the first chelating agent and the metal, the first mixture having a pH condition in which the first complex is undissolved; recovering the undissolved first complex from the first mixture; preparing a second mixture of the undissolved first complex and an aqueous solution of a second chelating agent whereby to dissociate the metal from the first complex and form a second complex between the metal derived from the first complex and the second chelating agent, the aqueous solution of the second chelating agent having a pH condition where the first chelating agent is insoluble therein, and the second mixture having a pH condition in which the first chelating agent and the first complex are undissolved and in which the second complex is dissolved; and recovering the metal by recovering from the second mixture a liquid fraction containing the second complex dissolved therein. preparing a first mixture of a first chelating agent and the liquid sample whereby to form a first complex between the first chelating agent and the metal, the first mixture having a pH condition in which the first complex is undissolved; recovering the undissolved first complex from the first mixture; preparing a second mixture of the undissolved first complex and an aqueous solution of a second chelating agent whereby to dissociate the metal from the first complex and form a second complex between the metal derived from the first complex and the second chelating agent, the aqueous solution of the second chelating agent having a pH condition where the first chelating agent is insoluble therein, and the second mixture having a pH condition in which the first chelating agent and the first complex are undissolved and in which the second complex is dissolved; and recovering the metal by recovering from the second mixture a liquid fraction containing the second complex dissolved therein.