mhurhangee/patent-ind-claim-en huggingface dataset:
A satellite antenna comprising: a reflector which is configured to be directed in a direction toward a target satellite and configured to receive a predetermined satellite signal; and a balance weight module which is mounted on a rear surface of the reflector , wherein the balance weight module includes a guide movable balance weight , a guide which defines a movement route along which the guide movable balance weight is configured to be moved in a state in which the guide movable balance weight is coupled to the guide, and a fixing member which fixes the guide movable balance weight at one side of the movement route , and the guide includes a guide panel which is provided with guide rails into which both sides of the guide movable balance weight are movably fitted, respectively, and which define the movement route of the guide movable balance weight , and the guide movable balance weight includes a first balance weight which is coupled to the guide rail and is configured to be moved along the guide rail , and a second balance weight which is configured to be moved relative to the first balance weight in a direction different from a direction in which the first balance weight is moved in a state in which the second balance weight is coupled to the first balance weight , and characterized in that a groove or hole-shaped fastening portion is formed in at least one of the first balance weight and the second balance weight , and the first balance weight and the second balance weight are fastened and fixed to each other by a second position fixing member fitted into the fastening portion . a reflector which is configured to be directed in a direction toward a target satellite and configured to receive a predetermined satellite signal; and a balance weight module which is mounted on a rear surface of the reflector , wherein the balance weight module includes a guide movable balance weight , a guide which defines a movement route along which the guide movable balance weight is configured to be moved in a state in which the guide movable balance weight is coupled to the guide, and a fixing member which fixes the guide movable balance weight at one side of the movement route , and the guide includes a guide panel which is provided with guide rails into which both sides of the guide movable balance weight are movably fitted, respectively, and which define the movement route of the guide movable balance weight , and the guide movable balance weight includes a first balance weight which is coupled to the guide rail and is configured to be moved along the guide rail , and a second balance weight which is configured to be moved relative to the first balance weight in a direction different from a direction in which the first balance weight is moved in a state in which the second balance weight is coupled to the first balance weight , and characterized in that a groove or hole-shaped fastening portion is formed in at least one of the first balance weight and the second balance weight , and the first balance weight and the second balance weight are fastened and fixed to each other by a second position fixing member fitted into the fastening portion .
A method of forming graphene comprising heating electrolyzed coal to a temperature effective to form graphite in the presence of a flowing stream of reductant gas, said temperature being between 490°C and 1100°C, wherein the stream of reductant gas deposits graphene onto a surface forming a graphene film.
An information transmission method, which is applied to a network device and comprises: sending downlink information to a terminal over a first beam of a single-frequency network cell group, wherein the single-frequency network cell group comprises at least two cells, the at least two cells comprise a first cell that supports transmission of at least two beams, and the first beam is one of the beams supported by the first cell; wherein the downlink information is sent over a dedicated bandwidth part, BWP, corresponding to the single-frequency network cell group; before the sending downlink information over the first beam of the single-frequency network cell group, the method being characterized by further comprising: configuring the terminal on the dedicated BWP corresponding to the single-frequency network cell group, or configuring the terminal on a BWP corresponding to a cell. sending downlink information to a terminal over a first beam of a single-frequency network cell group, wherein the single-frequency network cell group comprises at least two cells, the at least two cells comprise a first cell that supports transmission of at least two beams, and the first beam is one of the beams supported by the first cell; wherein the downlink information is sent over a dedicated bandwidth part, BWP, corresponding to the single-frequency network cell group; before the sending downlink information over the first beam of the single-frequency network cell group, the method being characterized by further comprising: configuring the terminal on the dedicated BWP corresponding to the single-frequency network cell group, or configuring the terminal on a BWP corresponding to a cell. configuring the terminal on the dedicated BWP corresponding to the single-frequency network cell group, or configuring the terminal on a BWP corresponding to a cell.
A magnetic core comprising: 22.94 wt% of manganese (Mn, II, III) oxide; 6.97 wt% of zinc (Zn) oxide; 69.75 wt% of iron (Fe, III) oxide; a magnetic additive; and a non-magnetic additive, wherein the magnetic additive comprises cobalt (Co) oxide and nickel (Ni) oxide, and wherein the cobalt oxide is present in an amount of 0.3%wt and the nickel oxide is present in an amount of 0.004%wt, and wherein the non-magnetic additive comprises 500ppm of Ta 2 O 5 , 500ppm of CaO, 100ppm of SiO 2 , 100ppm of ZrO 2 , and 100ppm of V 2 O 5 . 22.94 wt% of manganese (Mn, II, III) oxide; 6.97 wt% of zinc (Zn) oxide; 69.75 wt% of iron (Fe, III) oxide; a magnetic additive; and a non-magnetic additive, wherein the magnetic additive comprises cobalt (Co) oxide and nickel (Ni) oxide, and wherein the cobalt oxide is present in an amount of 0.3%wt and the nickel oxide is present in an amount of 0.004%wt, and wherein the non-magnetic additive comprises 500ppm of Ta 2 O 5 , 500ppm of CaO, 100ppm of SiO 2 , 100ppm of ZrO 2 , and 100ppm of V 2 O 5 .
A method implemented by a processor of an electronic device , the electronic device having a camera module , the camera module being configured to temporarily capture a number of consecutive images to an image buffer when operation of the camera module is triggered, the image buffer being provided in memory which temporarily stores image data of a captured image prior to the image being processed, the method comprising: obtaining motion data from a motion sensor on the electronic device , the motion sensor being arranged to detect motion of the electronic device ; and based on the motion data, controlling the number of consecutive images captured by the camera module when operation of the camera module is triggered to capture a varying number of images based on the movements of the electronic device , wherein the capacity of the image buffer is varied to control the number of consecutive images captured. obtaining motion data from a motion sensor on the electronic device , the motion sensor being arranged to detect motion of the electronic device ; and based on the motion data, controlling the number of consecutive images captured by the camera module when operation of the camera module is triggered to capture a varying number of images based on the movements of the electronic device , wherein the capacity of the image buffer is varied to control the number of consecutive images captured.
A short arc welding method comprising: ramping down a welding current, generated by a power source , that reaches a welding zone via a welding circuit; and storing inductive energy from the welding circuit that is generated as a result of the ramping down to obtain stored energy; characterised in that the method further comprises: selectively feeding the stored energy to the welding circuit. ramping down a welding current, generated by a power source , that reaches a welding zone via a welding circuit; and storing inductive energy from the welding circuit that is generated as a result of the ramping down to obtain stored energy; characterised in that the method further comprises: selectively feeding the stored energy to the welding circuit.
A mounting tool for a connection system of a door of a built-in domestic appliance to a door of a furniture that contains the built-in domestic appliance ; the connection system comprises: a guide profile which is designed to be fixed to the door of the furniture oriented orthogonally to a rotation axis (X) of the door ; and a sled which is designed to be fixed to an outer edge of the door of the built-in domestic appliance and to slidably couple to the guide profile ; characterized in that the mounting tool is configured to removably couple to the sled and to the guide profile and it comprises: a main body , which is provided with a seat designed to house at least a portion of the guide profile in a predetermined position and to allow the fixing of the guide profile to the door of the furniture when the at least a portion of the guide profile is housed in the seat ; a coupling plate which is designed to couple to the sled , is angularly placed with respect to the main body , and is arranged at a first end of the main body ; and a reference plate which is angularly placed with respect to the main body , is arranged at a second end of the main body opposite to the first end , and is designed to abut against an outer edge of the door of the furniture , when the coupling plate is coupled to the sled , the sled is at least properly positioned on the outer edge of the door of the built-in domestic appliance and the main body is coupled to the guide profile , so as to define a fixing position of the guide profile to the door of the furniture . a main body , which is provided with a seat designed to house at least a portion of the guide profile in a predetermined position and to allow the fixing of the guide profile to the door of the furniture when the at least a portion of the guide profile is housed in the seat ; a coupling plate which is designed to couple to the sled , is angularly placed with respect to the main body , and is arranged at a first end of the main body ; and a reference plate which is angularly placed with respect to the main body , is arranged at a second end of the main body opposite to the first end , and is designed to abut against an outer edge of the door of the furniture , when the coupling plate is coupled to the sled , the sled is at least properly positioned on the outer edge of the door of the built-in domestic appliance and the main body is coupled to the guide profile , so as to define a fixing position of the guide profile to the door of the furniture .
A multi-channel calibration apparatus, applied to N transmit channels, and comprising a calibration control unit and a calibration feed unit, wherein the calibration feed unit comprises M detectors (A1, A2, A3) two input ports of each detector are coupled to two channels, at least one input port of each detector and an input port of another detector are jointly coupled to one channel, the calibration control unit is connected to each of the M detectors, and N is an integer greater than 2; an m th detector is configured to detect a calibration measurement signal on an r th channel and a calibration measurement signal on a k th channel, to obtain level signals representing amplitude information and/or phase information of the r th channel and the k th channel, wherein 1 ≤ m ≤ M, 1 ≤ r ≤ N, 1 ≤ k ≤ N, r ≠ k, and M is an integer greater than or equal to 1; and the calibration control unit is configured to obtain an amplitude calibration coefficient based on the level signals representing the amplitude information of the r th channel and the k th channel and obtained by the m th detector, wherein the amplitude calibration coefficient is used to calibrate amplitudes of two channels coupled to the m th detector; and/or obtain a phase calibration coefficient based on the level signals representing the phase information of the r th channel and the k th channel and obtained by the m th detector, wherein the phase calibration coefficient is used to calibrate phases of two channels coupled to the m th detector wherein the multi-channel calibration apparatus further comprises N execution units that are correspondingly connected to the N transmit channels in a one-to-one manner, wherein each execution unit is further connected to the calibration control unit, and each execution unit is configured to adjust, based on an amplitude calibration coefficient, an amplitude of a channel connected to the execution unit, so that the amplitude of the r th channel is equal to the amplitude of the k th channel and/or adjust, based on a phase calibration coefficient, a phase of a channel connected to the execution unit so that the phase deviation of the r th channel and the k th channel comply with a preset phase deviation; wherein M = N; and when 1 ≤ m ≤ N - 2, the channels coupled to the m th detector are an m th channel and an (m+1) th channel, and channels coupled to an (m+1) th detector are the (m+1) th 44 channel and an (m+2) th channel; or when m = N, the channels coupled to the m th detector are an N th channel and a t th channel, wherein 1 ≤ t ≤ N - 2.
A method for packaging and processing food products or medical products in a continuously operating production line, wherein individual packaging containers (B) are filled with products (P) in a filling station ; the filled packaging containers (B) are dispensed to an individualizing device in multiple tracks by a dispensing station , said individualizing device transferring the packaging containers onto an single track of a conveyor ; and the packaging containers are transported by the conveyor one after the other to at least one additional processing station on the production line, wherein the individualizing device is operated in one of three operating modes, dependent upon the respective situation: a) a normal mode in which the packaging containers (B) are transferred from the dispensing station onto the single track of the conveyor , b) an on-stock mode in which the packaging containers (B) are transferred from the dispensing station to a temporary store , and c) a low-load mode in which the packaging containers (B) are transferred from the temporary store onto the single track of the conveyor , wherein at least a part of the temporary store is temporarily uncoupled from the production line and moved to another storage location, and wherein the packaging containers (B), at latest when they reach the individualizing device , are subjected to a quality test, and packaging containers for which a defect has been detected, are sorted-out into the temporary store by means of the individualizing device by not transferring the packaging container to the conveyor but instead placing it onto a shelf of the carriage that has been reserved for rejects. a) a normal mode in which the packaging containers (B) are transferred from the dispensing station onto the single track of the conveyor , b) an on-stock mode in which the packaging containers (B) are transferred from the dispensing station to a temporary store , and c) a low-load mode in which the packaging containers (B) are transferred from the temporary store onto the single track of the conveyor , wherein at least a part of the temporary store is temporarily uncoupled from the production line and moved to another storage location, and wherein the packaging containers (B), at latest when they reach the individualizing device , are subjected to a quality test, and packaging containers for which a defect has been detected, are sorted-out into the temporary store by means of the individualizing device by not transferring the packaging container to the conveyor but instead placing it onto a shelf of the carriage that has been reserved for rejects. wherein at least a part of the temporary store is temporarily uncoupled from the production line and moved to another storage location, and wherein the packaging containers (B), at latest when they reach the individualizing device , are subjected to a quality test, and packaging containers for which a defect has been detected, are sorted-out into the temporary store by means of the individualizing device by not transferring the packaging container to the conveyor but instead placing it onto a shelf of the carriage that has been reserved for rejects.
A pillar-type load cell having a deformation body with an upper contact surface and a lower contact surface correspondingly designed with a spherical surface for introducing force into the deformation body and each having a support point , wherein the current support points together define a force reference line , with at least one columnar region of the deformation body arranged between the upper contact surface and the lower contact surface having a central longitudinal axis and an outer surface line parallel thereto, with a first determination means , which is mounted on the columnar region of the deformation body and converts the mechanical deformation of the deformation body into a signal, and a second determination means , which is mounted on the columnar region of the deformation body and converts a deviation of the central longitudinal axis from the force reference line into a corresponding signal, wherein the first determination means and the second determination means each have at least one strain gauge sensor, characterized in that the at least one strain gauge sensor of the second determination means is mounted substantially centrally between the upper contact surface and the lower contact surface and is oriented by a predefined acute angle relative to the outer surface line in such a manner that the signal of the second determination means becomes null if the central longitudinal axis does not deviate from the force reference line and that the signal of the second determination means is suitable for determining compensation values with respect to a deviation of the central longitudinal axis from the force reference line .
A directional antenna including an array of unitary antenna elements, said array including an active antenna element, called a "radiator element ", intended to be electrically connected to a radiofrequency source or receiver, and at least one passive antenna element supplied with power by mutual induction, called "parasitic element ", said radiator element being a parasitic resonator antenna including a monopole , a ground plane and a parasitic cell that is placed in the near field of the monopole , characterised in that said radiator element and said at least one parasitic element of the array are formed in the same plane.
A printing fluid container for a printing system, the printing fluid container comprising: a container body for holding printing fluid; a collar fluidically connecting the container body to a container opening , the collar having a plurality of collar teeth distributed around the collar; and a cap removably engaging the collar along a longitudinal axis to cover the container opening , the cap including a plurality of cap teeth distributed around the cap , the cap teeth being configured for interfitment with the collar teeth along the longitudinal axis such that rotation of the cap about the longitudinal axis in a first rotational direction effects cam-actuated removal of the cap from the collar and rotation of the cap about the longitudinal axis in a second direction effects fixed rotation of the collar with the cap . a container body for holding printing fluid; a collar fluidically connecting the container body to a container opening , the collar having a plurality of collar teeth distributed around the collar; and a cap removably engaging the collar along a longitudinal axis to cover the container opening , the cap including a plurality of cap teeth distributed around the cap , the cap teeth being configured for interfitment with the collar teeth along the longitudinal axis such that rotation of the cap about the longitudinal axis in a first rotational direction effects cam-actuated removal of the cap from the collar and rotation of the cap about the longitudinal axis in a second direction effects fixed rotation of the collar with the cap .
A metal connector or adaptor for hydraulic or oil dynamic application at high pressure, comprising electrolytic passivated zinc plating free from hexavalent chromium, characterised in that said zinc plating comprises an external trivalent chromium passivation layer sealed with at least one silicon compound, said passivation layer having a coloration immediately identifiable in relation to their specific galvanic corrosion resistance properties.
A novel peptide compound selected from the group consisting of the amino acid sequence below or a pharmaceutically acceptable salt thereof: Hyp-Gly-Gln-Asp-Gly-Leu-Ala, Hyp-Gly-Gln-Ala-Gly-Leu-Ala, Hyp-Gly-Gln-Glu-Gly-Leu-Ala, Hyp-Gly-Gln-Asn-Gly-Leu-Ala, Hyp-Gly-Gln-Glu-Leu-Leu-Ala, Hyp-Gly-Gln-Glu-Val-Leu-Ala, Hyp-Gly-Gln-Glu-Aib-Leu-Ala, Hyp-Gly-Gln-Leu-Leu-Leu-Ala, Hyp-Gly-Gln-Leu-Val-Leu-Ala, and Hyp-Gly-Gln-Asu-Gly-Leu-Ala. Hyp-Gly-Gln-Asp-Gly-Leu-Ala, Hyp-Gly-Gln-Ala-Gly-Leu-Ala, Hyp-Gly-Gln-Glu-Gly-Leu-Ala, Hyp-Gly-Gln-Asn-Gly-Leu-Ala, Hyp-Gly-Gln-Glu-Leu-Leu-Ala, Hyp-Gly-Gln-Glu-Val-Leu-Ala, Hyp-Gly-Gln-Glu-Aib-Leu-Ala, Hyp-Gly-Gln-Leu-Leu-Leu-Ala, Hyp-Gly-Gln-Leu-Val-Leu-Ala, and Hyp-Gly-Gln-Asu-Gly-Leu-Ala.
(new) A blind-slat photovoltaic module for a sunshade with blinds, said module comprising a glass laminate in the form of flat panes with laminar structure comprising a layer of photovoltaic cells disposed between two outer layers which are glass panes with thickness from 0.5 mm to 1.8 mm strengthened chemically in salt bath, laminated together by means of two layers of lamination films , wherein in the glass laminate the layer of photovoltaic cells is disposed between the layers of lamination films , and where the layer of photovoltaic cells has an absorber, preferably perovskyte.