mhurhangee/patent-ind-claim-en huggingface dataset:
An ion source for a time-of-flight mass spectrometer comprising: an electron gun configured to emit an electron beam; a push-out electrode , a pull-out electrode and a pull-in electrode that are arranged in this order, wherein the electron beam emitted from the electron gun is introduced into an ion generation area between the push out electrode and the pull out electrode in which ions are to be generated, wherein the push electrode is formed in a cup-like shape, the pull-out electrode has a mesh-like form and holes through which ions are to pass, and the pull-in electrode has a pinhole through which the ions are to pass, and wherein the push-out electrode and the pull-out electrode are formed in a shape having a depression curved in an opposite direction to a travelling direction of the ions; a means configured to initially apply in the ion source , voltages of the same potential to the push-out electrode and the pull-out electrode , this potential being different from the potential of the pull-in electrode and after that a potential difference between each two of the push-out electrode , the pull-out electrode , and the pull-in electrode , so that the ions generated in the ion generation area are pulled toward an acceleration area between the pull out electrode and the pull in electrode by the electrical field formed by the push-out electrode and the pull-out electrode and are accelerated in the acceleration area , and pass through the pull-in electrode so that ions that have different initial location converge temporally and spatially. an electron gun configured to emit an electron beam; a push-out electrode , a pull-out electrode and a pull-in electrode that are arranged in this order, wherein the electron beam emitted from the electron gun is introduced into an ion generation area between the push out electrode and the pull out electrode in which ions are to be generated, wherein the push electrode is formed in a cup-like shape, the pull-out electrode has a mesh-like form and holes through which ions are to pass, and the pull-in electrode has a pinhole through which the ions are to pass, and wherein the push-out electrode and the pull-out electrode are formed in a shape having a depression curved in an opposite direction to a travelling direction of the ions; a means configured to initially apply in the ion source , voltages of the same potential to the push-out electrode and the pull-out electrode , this potential being different from the potential of the pull-in electrode and after that a potential difference between each two of the push-out electrode , the pull-out electrode , and the pull-in electrode , so that the ions generated in the ion generation area are pulled toward an acceleration area between the pull out electrode and the pull in electrode by the electrical field formed by the push-out electrode and the pull-out electrode and are accelerated in the acceleration area , and pass through the pull-in electrode so that ions that have different initial location converge temporally and spatially.
A computer-implemented method for performing communications between a first computer and a second computer , the method comprising: storing, by the first computer, a first static private key of the first computer , a first static public key of the first computer corresponding to the first static private key , and a second static public key of the second computer ; generating , by the first computer, a first blinding factor; determining , by the first computer , a first blinded public key using the first blinding factor, wherein the first blinding factor is generated using a pseudo-random number generator, and wherein the first blinded public key is determined from the first blinding factor using an elliptic curve public key algorithm; generating , by the first computer , a first-computer signature by signing the first blinded public key using the first static private key; determining , by the first computer , a first shared secret using the first blinding factor and the second static public key ; encrypting , by the first computer using the first shared secret, first-computer data including the first static public key and the first-computer signature to obtain encrypted first-computer data; and sending , by the first computer to the second computer, a first message including the first blinded public key and the encrypted first-computer data. storing, by the first computer, a first static private key of the first computer , a first static public key of the first computer corresponding to the first static private key , and a second static public key of the second computer ; generating , by the first computer, a first blinding factor; determining , by the first computer , a first blinded public key using the first blinding factor, wherein the first blinding factor is generated using a pseudo-random number generator, and wherein the first blinded public key is determined from the first blinding factor using an elliptic curve public key algorithm; generating , by the first computer , a first-computer signature by signing the first blinded public key using the first static private key; determining , by the first computer , a first shared secret using the first blinding factor and the second static public key ; encrypting , by the first computer using the first shared secret, first-computer data including the first static public key and the first-computer signature to obtain encrypted first-computer data; and sending , by the first computer to the second computer, a first message including the first blinded public key and the encrypted first-computer data.
A fusion protein comprising a fragment of IL-37, wherein the fragment of IL-37 consists of amino acids 46-206 of isoform B of IL-37, and a heavy chain portion of an antibody comprising an IgG-Fc sequence.
A control rod operation monitoring method, comprising: calculating first neutron flux ratios which are ratios of neutron fluxes measured by other neutron detectors located at second positions on the other end side of a core relative to neutron detectors, which are located at first positions closest to a control rod insertion end of the core among a plurality of neutron detectors which are included in neutron detector assemblies adjacent to insertion selection control rods inserted into the core and arranged in an axial direction of the core, with respect to the neutron fluxes measured by the neutron detectors; and generating a rod insertion block signal for the insertion selection control rod when the first neutron flux ratio exceeds a set neutron flux ratio. calculating first neutron flux ratios which are ratios of neutron fluxes measured by other neutron detectors located at second positions on the other end side of a core relative to neutron detectors, which are located at first positions closest to a control rod insertion end of the core among a plurality of neutron detectors which are included in neutron detector assemblies adjacent to insertion selection control rods inserted into the core and arranged in an axial direction of the core, with respect to the neutron fluxes measured by the neutron detectors; and generating a rod insertion block signal for the insertion selection control rod when the first neutron flux ratio exceeds a set neutron flux ratio.
Loading system for piece goods , in particular parcels, postal items and items of luggage, comprising a first storage unit , a second storage unit , in particular a swap body , and a loading device , wherein a) the loading device comprises a base and a loading area ; b) the loading area is arranged above the base of the loading device and is provided for receiving the piece goods ; c) the loading device is designed as a transfer member between the first storage unit and the second storage unit ; d) the second storage unit comprises at least one depositing area ; e) the loading device and/or the second storage unit are designed such that the loading device can be positioned such that the piece goods can be transferred along an insertion direction from the loading area into the depositing area ; and f) the loading device comprises an insertion device which is adapted to transfer the piece goods from the loading area at least partially as a loading unit into the depositing area ; wherein the insertion device is designed as a conveyor means which is integrated in the base of the loading device and which can be driven in and/or against the insertion direction ; wherein the loading device and/or the second storage unit are designed such that the second storage unit can accommodate the loading device in whole or at least in part, and characterized in that the loading system comprises a placement means adapted to at least assist in moving the piece goods during an insertion from the first storage unit into the loading area . a) the loading device comprises a base and a loading area ; b) the loading area is arranged above the base of the loading device and is provided for receiving the piece goods ; c) the loading device is designed as a transfer member between the first storage unit and the second storage unit ; d) the second storage unit comprises at least one depositing area ; e) the loading device and/or the second storage unit are designed such that the loading device can be positioned such that the piece goods can be transferred along an insertion direction from the loading area into the depositing area ; and f) the loading device comprises an insertion device which is adapted to transfer the piece goods from the loading area at least partially as a loading unit into the depositing area ; wherein the insertion device is designed as a conveyor means which is integrated in the base of the loading device and which can be driven in and/or against the insertion direction ; wherein the loading device and/or the second storage unit are designed such that the second storage unit can accommodate the loading device in whole or at least in part, and characterized in that the loading system comprises a placement means adapted to at least assist in moving the piece goods during an insertion from the first storage unit into the loading area .
A stackable access point device , comprising: a basic module comprising a plurality of interfaces and a processor , wherein the processor is configured to route data traffic through the stackable access point device based on a configuration of the stackable access point device ; and at least one access technology specific extension module comprising a plurality of interfaces and a processor , wherein the processor is configured to process the data traffic based on a respective access technology , wherein the at least one extension module is stackable with the basic module by electrically connecting at least one interface of the basic module with at least one interface of the at least one extension module , wherein the configuration of the stackable access point device is based on a number of extension modules stacked together with the basic module and an order in which the at least one extension modules are stacked together with the basic module , characterized in that the processor of the basic module is configured to determine a specific routing path for routing the data traffic through the stackable access point device based on a specific configuration recipe received from a configuration database , wherein the configuration database comprises a plurality of configuration recipes associated with respective configurations of the stackable access point device . a basic module comprising a plurality of interfaces and a processor , wherein the processor is configured to route data traffic through the stackable access point device based on a configuration of the stackable access point device ; and at least one access technology specific extension module comprising a plurality of interfaces and a processor , wherein the processor is configured to process the data traffic based on a respective access technology , wherein the at least one extension module is stackable with the basic module by electrically connecting at least one interface of the basic module with at least one interface of the at least one extension module , wherein the configuration of the stackable access point device is based on a number of extension modules stacked together with the basic module and an order in which the at least one extension modules are stacked together with the basic module , characterized in that the processor of the basic module is configured to determine a specific routing path for routing the data traffic through the stackable access point device based on a specific configuration recipe received from a configuration database , wherein the configuration database comprises a plurality of configuration recipes associated with respective configurations of the stackable access point device .
Measurement device for non-invasive determination of at least one physiological parameter, having a diagnostic sensor unit for generating measurement signals, and having an evaluation unit for processing the measurement signals, wherein the diagnostic sensor unit comprises at least one pressure sensor that detects the pressure exerted locally on the pressure sensor by a body tissue to be examined, wherein the evaluation unit is set up for derivation of at least one physiological parameter from the measurement signal of the pressure sensor , wherein the sensor unit comprises a bioelectrical impedance measurement unit, wherein the evaluation unit is set up for derivation of the at least one physiological parameter at least from the measurement signals of the pressure sensor and of the bioelectrical impedance measurement unit, wherein that the pressure sensor is mechanically coupled with a measurement electrode of the bioelectrical impedance measurement unit, and thereby detects the pressure locally exerted on the pressure sensor by the body tissue to be examined, by way of the measurement electrode , wherein the evaluation unit is set up for derivation of the at least one physiological parameter as a function of the depth in the body tissue, characterized in that the measurement electrode is movably mounted on the diagnostic sensor unit .
A tool for disassembling and moving a TRV-type turbine casing of an aircraft turbine engine , this turbine casing comprising two annular shells, internal and external respectively, which extend one inside the other and around a same axis (A) and are connected together by arms , the tool comprising: - a lower carriage for moving the tool, and - an upper plate for fastening to the turbine casing , this plate being supported by the carriage and comprising first members configured to cooperate with a first annular flange (24a2, 24b2) of one of the shells in order to support the casing and axially immobilize same with respect to the tool, and second members configured to cooperate with a second annular flange (24b1) of the other of the shells in order to rotatably guide and/or block the casing about said axis, characterised in that the first members comprise hooks which are each connected to a knob and movable by the knob from a first unlocking position to a second position for locking and immobilizing the casing . - a lower carriage for moving the tool, and - an upper plate for fastening to the turbine casing , this plate being supported by the carriage and comprising first members configured to cooperate with a first annular flange (24a2, 24b2) of one of the shells in order to support the casing and axially immobilize same with respect to the tool, and second members configured to cooperate with a second annular flange (24b1) of the other of the shells in order to rotatably guide and/or block the casing about said axis,
A method of cutting a substrate , comprising: forming a plurality of recesses in a surface of the substrate by laser ablation; and applying a stress to the substrate that is concentrated by the recesses to promote cutting along a cutting line via propagation of a crack through the plurality of recesses , wherein the recess shape of each of one or more of the recesses has plural tip regions , each tip region being defined as a local minimum in the radius of curvature of a boundary line marking the interface between the recess and the surface of the substrate , and characterized in that : the laser ablation is performed with an ultrashort pulse laser with the laser fluence controlled to be close to the laser ablation threshold. forming a plurality of recesses in a surface of the substrate by laser ablation; and applying a stress to the substrate that is concentrated by the recesses to promote cutting along a cutting line via propagation of a crack through the plurality of recesses , wherein the recess shape of each of one or more of the recesses has plural tip regions , each tip region being defined as a local minimum in the radius of curvature of a boundary line marking the interface between the recess and the surface of the substrate , and characterized in that : the laser ablation is performed with an ultrashort pulse laser with the laser fluence controlled to be close to the laser ablation threshold.
A paint roller, wherein a roller body is rotatably retained on a retaining bracket coupled to a handle , wherein a swivel bracket is provided, at one end (E1) of which a side protection plate for covering a free end face (S) of the roller body is provided, and the other end (E2) of which is hingedly retained so that the side protection plate may be moved from an operating position adjacent to the end face (S) of the roller body to a roller changing position remote from the end face (S) for changing the roller body , wherein the other end (E2) of the swivel bracket is retained in a device for converting a rotary movement into a swiveling movement, which device is operable by a rotary handle rotatable with respect to an axis of the handle , so that the side protection plate may be moved from the working position into the roller changing position by rotating the rotary handle , wherein the device for converting a rotational movement into a swiveling movement comprises a retaining element provided on the handle , in which a handle-side end (E3) of the retaining bracket is retained, characterized in that the device for converting a rotational movement into a swiveling movement comprises an accommodation pivotally retaining the other end (E2) of the swivel bracket , which accommodation is rotatably supported on a support surface radially extending from the retaining element .
A method of determining signal penetration for one or more neighbor base stations into a coverage area of a serving base station, the method comprising: receiving , by a signal penetration computing device, measurement reports from a plurality of user equipment, UEs, associated with the serving base station, wherein the one or more measurement reports comprise reference signal received power, RSRP, values of the one or more neighbor base stations; comparing, by the signal penetration computing device, the RSRP values of the one or more neighbor base stations in the measurement reports with a predefined RSRP threshold to identify measurements that exceed the predefined RSRP threshold; identifying , by the signal penetration computing device, a location of each UE from the identified measurements based on the one or more measurement reports; determining , by the signal penetration computing device, distances between one or more pairs of UEs from the identified measurements based on the location of each UE, each UE being a measurement point; defining , by the signal penetration computing device, one or more penetration area based on the determined distances, wherein each penetration area is defined by three or more measurement points, the distance between any two of the three or more measurement points being below a predefined distance threshold; and determining , by the signal penetration computing device, signal penetration by the one or more neighbor base stations in the one or more penetration areas based on RSRP values of neighbor base stations measured by UEs forming vertices of the one or more penetration areas. receiving , by a signal penetration computing device, measurement reports from a plurality of user equipment, UEs, associated with the serving base station, wherein the one or more measurement reports comprise reference signal received power, RSRP, values of the one or more neighbor base stations; comparing, by the signal penetration computing device, the RSRP values of the one or more neighbor base stations in the measurement reports with a predefined RSRP threshold to identify measurements that exceed the predefined RSRP threshold; identifying , by the signal penetration computing device, a location of each UE from the identified measurements based on the one or more measurement reports; determining , by the signal penetration computing device, distances between one or more pairs of UEs from the identified measurements based on the location of each UE, each UE being a measurement point; defining , by the signal penetration computing device, one or more penetration area based on the determined distances, wherein each penetration area is defined by three or more measurement points, the distance between any two of the three or more measurement points being below a predefined distance threshold; and determining , by the signal penetration computing device, signal penetration by the one or more neighbor base stations in the one or more penetration areas based on RSRP values of neighbor base stations measured by UEs forming vertices of the one or more penetration areas.
A method of manufacturing a current collector assembly, the method comprising: iteratively solving a model on a computer, utilizing received inputs including a variable number and arrangement of conductive elements, to determine as an output a heat distribution within a hypothetical current collector assembly; identifying as a solution to the model a number and arrangement of conductive elements coupled with a current collector that produces a contained heat distribution within the hypothetical current collector assembly; and manufacturing the current collector assembly, wherein the current collector assembly comprises a defined plurality of apertures within a refractory base of the current collector assembly in a pattern configured to receive the number and arrangement of conductive elements identified as the solution to the model. iteratively solving a model on a computer, utilizing received inputs including a variable number and arrangement of conductive elements, to determine as an output a heat distribution within a hypothetical current collector assembly; identifying as a solution to the model a number and arrangement of conductive elements coupled with a current collector that produces a contained heat distribution within the hypothetical current collector assembly; and manufacturing the current collector assembly, wherein the current collector assembly comprises a defined plurality of apertures within a refractory base of the current collector assembly in a pattern configured to receive the number and arrangement of conductive elements identified as the solution to the model.
A clip for fastening a car seat cover onto a car seat, the clip comprising: a head means comprising a U-shaped holder with a gripping means at each end to receive and grasp a car seat cover; and an insertion element having a tip end, connected to the head means via a midpoint element , to be embedded in the car seat for fastening the car seat cover; characterised in that the midpoint element is bendable to 90° , thereby allowing different angles of insertion of the clip onto the car seat. a head means comprising a U-shaped holder with a gripping means at each end to receive and grasp a car seat cover; and an insertion element having a tip end, connected to the head means via a midpoint element , to be embedded in the car seat for fastening the car seat cover; characterised in that the midpoint element is bendable to 90° , thereby allowing different angles of insertion of the clip onto the car seat.