mhurhangee/patent-ind-claim-en huggingface dataset:
A system for inspection of a load , comprising: a detection device configured to detect, after transmission through the load, successive radiation pulses emitted at a predetermined frequency by a source , the load being in movement in an inspection direction , at an inspection speed (V) with respect to the system, the detection device comprising a matrix of a plurality of arrays of detectors wherein the matrix has a width (w) associated with the inspection direction, the width of the matrix being based on the inspection speed of the load and the predetermined frequency of the successive radiation pulses, wherein the successive radiation pulses are emitted at a predetermined dose by the source, the number of arrays of detectors in the width of the matrix being further based on the predetermined dose of the successive radiation pulses, and wherein the width of the matrix of detectors is such that the detection device is configured to detect a current radiation pulse irradiating at least a current part of the load, the given part overlapping, at least partly, a part of the load irradiated by one or more preceding radiation pulses of the successive radiation pulses and/or following radiation pulses of the successive radiation pulses. a detection device configured to detect, after transmission through the load, successive radiation pulses emitted at a predetermined frequency by a source , the load being in movement in an inspection direction , at an inspection speed (V) with respect to the system, the detection device comprising a matrix of a plurality of arrays of detectors wherein the matrix has a width (w) associated with the inspection direction, the width of the matrix being based on the inspection speed of the load and the predetermined frequency of the successive radiation pulses, wherein the successive radiation pulses are emitted at a predetermined dose by the source, the number of arrays of detectors in the width of the matrix being further based on the predetermined dose of the successive radiation pulses, and wherein the width of the matrix of detectors is such that the detection device is configured to detect a current radiation pulse irradiating at least a current part of the load, the given part overlapping, at least partly, a part of the load irradiated by one or more preceding radiation pulses of the successive radiation pulses and/or following radiation pulses of the successive radiation pulses.
A working machine comprising a machine body , and a load handling apparatus coupled to the machine body and moveable by a movement actuator with respect to the machine body, characterised in that the working machine being a telescopic handler configured for use with at least one electric energy storage module , wherein the working machine further comprises a control system comprising a controller configured to: receive or acquire information representative of the weight and/or position of the at least one electric energy storage module; determine permitted and/or prohibited operations of the working machine based on the received or acquired information; and issue an operations signal for use by at least one element of the working machine corresponding to the determined permitted and/or prohibited operations. receive or acquire information representative of the weight and/or position of the at least one electric energy storage module; determine permitted and/or prohibited operations of the working machine based on the received or acquired information; and issue an operations signal for use by at least one element of the working machine corresponding to the determined permitted and/or prohibited operations.
A method for determining a shape of a catheter , the method comprising: receiving a plurality of raw impedance measurements from a plurality of electrodes disposed on a flexible tip portion of the catheter ; receiving a magnetic position and orientation measurement from a magnetic position sensor disposed on a shaft of the catheter ; determining a relationship between each of the plurality of electrodes disposed on the flexible tip portion of the catheter , based on the raw impedance measurements received from the plurality of electrodes ; predicting a shape of the flexible tip portion of the catheter , based on the determined relationship between each of the plurality of electrodes disposed on the flexible tip portion of the catheter ; determining a shape of the catheter; characterized in that determining the relationship between each of the plurality of electrodes includes determining an angle between at least three electrodes, and predicting the shape of the flexible tip portion of the catheter is based on the determined angles between the at least three electrodes in relation to a shape model of the flexible tip portion , and in that determining a shape of the catheter includes shifting the shape of the flexible tip portion of the catheter in relation to the shaft of the catheter based on the magnetic position and orientation measurement received from the magnetic position sensor . receiving a plurality of raw impedance measurements from a plurality of electrodes disposed on a flexible tip portion of the catheter ; receiving a magnetic position and orientation measurement from a magnetic position sensor disposed on a shaft of the catheter ; determining a relationship between each of the plurality of electrodes disposed on the flexible tip portion of the catheter , based on the raw impedance measurements received from the plurality of electrodes ; predicting a shape of the flexible tip portion of the catheter , based on the determined relationship between each of the plurality of electrodes disposed on the flexible tip portion of the catheter ; determining a shape of the catheter; characterized in that determining the relationship between each of the plurality of electrodes includes determining an angle between at least three electrodes, and predicting the shape of the flexible tip portion of the catheter is based on the determined angles between the at least three electrodes in relation to a shape model of the flexible tip portion , and in that determining a shape of the catheter includes shifting the shape of the flexible tip portion of the catheter in relation to the shaft of the catheter based on the magnetic position and orientation measurement received from the magnetic position sensor .
Method for processing solid inorganic waste comprising: - placing solid inorganic waste in a closed reactor tank of a processing installation; - introducing binder into the reactor tank; - mixing the solid inorganic waste with the binder in the reactor tank; - discharging immobilized waste from the reactor tank; - storage of the immobilized waste in a landfill; wherein the reactor tank comprises an upright agitator shaft, the agitator shaft comprising at least one agitator arm, with the agitator arm extending transverse to the agitator shaft, wherein the agitator shaft and the reactor tank are rotated in an opposite sense of rotation, characterised in that said agitator shaft is placed eccentrically in the reactor tank, the reactor tank being rotatable about a central rotational axis. - placing solid inorganic waste in a closed reactor tank of a processing installation; - introducing binder into the reactor tank; - mixing the solid inorganic waste with the binder in the reactor tank; - discharging immobilized waste from the reactor tank; - storage of the immobilized waste in a landfill;
Reel for a harvesting machine, in particular for a combine harvester, with a plurality of tine carriers to which tines for conveying the crop are fastened, wherein the tine carriers are encased by a longitudinally axially slotted tube , wherein the tines protrude from the longitudinal slot of the tube , wherein the longitudinal slot of the tube has a width dimension which is smaller than the diameter of the tines , characterized in that the longitudinal slot has respectively opposite semicircular recesses through which the tines protrude.
An optically variable security element for securing valuable articles that viewing-angle-dependently displays a motif having at least one curve depiction that, from a first viewing direction, is visible as an initial curve having two or more connected, non-collinear segments , and that, when the security element is tilted about a predetermined axis, splits into the individual segments in that the segments of the initial curve move alternatingly in different directions away from the initial curve, having - an areal motif region having a plurality of optically effective elements , each of which directs incident light in a preferred direction, - the segments of the initial curve in the areal motif region each having associated with it one movement segment in the form of a sub-region of the areal motif region , in which sub-region the optically effective elements are arranged and aligned in such a way that, from the first viewing direction, they display the initial curve having the connected segments , and that, from viewing directions tilted about the predetermined axis, they display curve depictions in which the segments lie alternatingly in different directions and, with increasing tilt angle, increasingly further away from the initial curve. - an areal motif region having a plurality of optically effective elements , each of which directs incident light in a preferred direction, - the segments of the initial curve in the areal motif region each having associated with it one movement segment in the form of a sub-region of the areal motif region , in which sub-region the optically effective elements are arranged and aligned in such a way that, from the first viewing direction, they display the initial curve having the connected segments , and that, from viewing directions tilted about the predetermined axis, they display curve depictions in which the segments lie alternatingly in different directions and, with increasing tilt angle, increasingly further away from the initial curve.
Method for operating an industrial PC IPC, device , the IPC device including: a general-purpose operating system GPOS, section implemented to execute program code under a GPOS; and a real time operating system RTOS, section implemented to execute program code adapted to real-time data processing under the RTOS; the method comprising: providing (S0) a wrapped application program (WRAP) based on an application program (RAP) including binary code (BC) designed to be executed under the RTOS and a security policy; validating (S2) the wrapped application program (WRAP) according to the security policy by an RTOS process for obtaining a validated application program; transferring (S3) the binary code (BC) of the validated application program and a security element (SE) from the RTOS process to a GPOS process; establishing (S4) a secure communications channel between the GPOS process and the RTOS section using the security element (SE); and executing (S5) the binary code (BC) of the validated application program by the GPOS process. a general-purpose operating system GPOS, section implemented to execute program code under a GPOS; and a real time operating system RTOS, section implemented to execute program code adapted to real-time data processing under the RTOS; the method comprising: providing (S0) a wrapped application program (WRAP) based on an application program (RAP) including binary code (BC) designed to be executed under the RTOS and a security policy; validating (S2) the wrapped application program (WRAP) according to the security policy by an RTOS process for obtaining a validated application program; transferring (S3) the binary code (BC) of the validated application program and a security element (SE) from the RTOS process to a GPOS process; establishing (S4) a secure communications channel between the GPOS process and the RTOS section using the security element (SE); and executing (S5) the binary code (BC) of the validated application program by the GPOS process. providing (S0) a wrapped application program (WRAP) based on an application program (RAP) including binary code (BC) designed to be executed under the RTOS and a security policy; validating (S2) the wrapped application program (WRAP) according to the security policy by an RTOS process for obtaining a validated application program; transferring (S3) the binary code (BC) of the validated application program and a security element (SE) from the RTOS process to a GPOS process; establishing (S4) a secure communications channel between the GPOS process and the RTOS section using the security element (SE); and executing (S5) the binary code (BC) of the validated application program by the GPOS process.
A controller for a resonance system , the resonance system comprising: a first resonance device configured to receive a drive signal and to generate an output signal ; and a second resonance device configured to receive a control signal and to generate the drive signal based on the received control signal ; the controller comprising: a phase-locked loop, PLL , configured to output the control signal ; and characterized in that the controller further comprises a processor configured to control the PLL based on the control signal output from the PLL and the output signal received from the first resonance device , wherein the processor is configured to control the PLL to adjust a phase difference between the control signal and the output signal of the first resonance device to correspond to a predetermined phase shift value, wherein the predetermined phase shift value corresponds to the phase shift value caused by the first resonance device and the second resonance device operating at respective resonance frequencies. a first resonance device configured to receive a drive signal and to generate an output signal ; and a second resonance device configured to receive a control signal and to generate the drive signal based on the received control signal ; the controller comprising: a phase-locked loop, PLL , configured to output the control signal ; and characterized in that the controller further comprises a processor configured to control the PLL based on the control signal output from the PLL and the output signal received from the first resonance device , wherein the processor is configured to control the PLL to adjust a phase difference between the control signal and the output signal of the first resonance device to correspond to a predetermined phase shift value, wherein the predetermined phase shift value corresponds to the phase shift value caused by the first resonance device and the second resonance device operating at respective resonance frequencies. a phase-locked loop, PLL , configured to output the control signal ; and characterized in that the controller further comprises a processor configured to control the PLL based on the control signal output from the PLL and the output signal received from the first resonance device , wherein the processor is configured to control the PLL to adjust a phase difference between the control signal and the output signal of the first resonance device to correspond to a predetermined phase shift value, wherein the predetermined phase shift value corresponds to the phase shift value caused by the first resonance device and the second resonance device operating at respective resonance frequencies.
Method for identifying an additively manufactured workpiece (W), having the method steps of: a) capturing the additively manufactured workpiece (W) by means of a capture device (310, 3D_S1), wherein workpiece data relating to individual features of the additively manufactured workpiece (W) are captured; b) assigning the workpiece data to the additively manufactured workpiece (W); c) comparing the workpiece data with reference data (R_M) for the additively manufactured workpiece (W); d) generating a digital certificate if differences between the workpiece data and the reference data (R_M) are within a predefined tolerance range; e) forming a unique identification value on the basis of the workpiece data, wherein the workpiece data and the unique identification value and/or an identification number are contained in the digital certificate, and f) assigning the additively manufactured workpiece (W) to a digital twin and/or vice versa by means of the unique identification value and/or the identification number contained in the digital certificate. a) capturing the additively manufactured workpiece (W) by means of a capture device (310, 3D_S1), wherein workpiece data relating to individual features of the additively manufactured workpiece (W) are captured; b) assigning the workpiece data to the additively manufactured workpiece (W); c) comparing the workpiece data with reference data (R_M) for the additively manufactured workpiece (W); d) generating a digital certificate if differences between the workpiece data and the reference data (R_M) are within a predefined tolerance range; e) forming a unique identification value on the basis of the workpiece data, wherein the workpiece data and the unique identification value and/or an identification number are contained in the digital certificate, and f) assigning the additively manufactured workpiece (W) to a digital twin and/or vice versa by means of the unique identification value and/or the identification number contained in the digital certificate.
System for need-oriented functionalization of open-loop/closed-loop control devices , in particular of an engine control unit, having at least one access means for accessing at least one first data memory , and at least one open-loop/closed-loop control device , wherein the at least one first data memory has at least one functional module by means of which one or more functions of the respective open-loop/closed-loop control device are performable, and wherein the interaction of the access means and the at least one first data memory results in at least one functional module being selectively loadable into the at least one open-loop/closed-loop control device and the overall functionality of the respective open-loop/closed-loop control device is flexibly adaptable by means of need-oriented selection of one or more functional modules by virtue of a preparatory need-oriented function selection from multiple provided functions being performed and functional modules associated with the respective functions being selected in an automated fashion, wherein the access means uses at least one selected functional module to create a function archive in which the at least one selected functional module is provided for transfer, and wherein the function archive is structured in successive blocks and each block, apart from the first and the last function archive block, has in each case one header , wherein the header contains all the information relevant for unpacking the function archive, such as in particular type, total length, size, version, data rate, origin and/or addressee, and has the actual content of the respective functional module and the CRC fields, used for data protection, for header and data and wherein there is provision for at least one descriptor that takes available descriptions of the individual functional modules as a basis for creating a functional and/or technical description of the firmware , formed as a function archive of functional modules, of the open-loop/closed-loop control device, in particular of the properties of the individual blocks of the function archive , and stores said description on a data memory , wherein the description of the firmware formed as a function archive of functional modules is transferred together with the firmware to one or more open-loop/closed-loop control devices.
A process for producing a droplet assembly, which droplet assembly comprises a plurality of droplets, wherein each of said droplets comprises: an aqueous medium comprising (i) a hydrogel compound, which hydrogel compound is a polysaccharide, and (ii) one or more stabilising agents, which one or more stabilizing agents are selected from compounds which comprise a dipeptide; and one or more biological cells disposed in the aqueous medium, which process comprises: generating, in a bulk hydrophobic medium comprising one or more amphipathic compounds, a plurality of droplets, wherein each of said droplets comprises: an aqueous medium comprising (i) a hydrogel compound, which hydrogel compound is a polysaccharide, and (ii) one or more stabilising agents, which one or more stabilizing agents are selected from compounds which comprise a dipeptide; and one or more biological cells disposed in the aqueous medium. an aqueous medium comprising (i) a hydrogel compound, which hydrogel compound is a polysaccharide, and (ii) one or more stabilising agents, which one or more stabilizing agents are selected from compounds which comprise a dipeptide; and one or more biological cells disposed in the aqueous medium, an aqueous medium comprising (i) a hydrogel compound, which hydrogel compound is a polysaccharide, and (ii) one or more stabilising agents, which one or more stabilizing agents are selected from compounds which comprise a dipeptide; and one or more biological cells disposed in the aqueous medium.
Ahead mount display support, comprising a support body comprising two telescopic arms , wherein the two telescopic arms are overlapped with each other; a knob shaft ; an adjustment gear configured to move to the overlapping part and mesh with the two telescopic arms , and drive the two telescopic arms to move towards or away from each other; and a self-locking mechanism comprising a rear housing , an elastic member and a locking member ; wherein the rear housing is arranged on a side of the overlapping part away from the knob shaft , wherein the elastic member is configured to drive the locking member to bounce into the overlapping part , to lock a relative position of the two telescopic arms characterized in that said said knob shaft is configured to move into an overlapping part of the two telescopic arms in response to being pressed; said adjustment gear (A3) is fixedly sleeved on the knob shaft and configured to, in response to the knob shaft being pressed, be driven by the knob shaft ; and in that an end of the elastic member is fixed to the rear housing and another end of the elastic member is connected with the locking member , and the locking member is configured to abut against an end of the knob shaft in response to the knob shaft being in a pressed state; wherein in response to the knob shaft retracting, the knob shaft is configured to drive the adjustment gear to move away from the overlapping part . a support body comprising two telescopic arms , wherein the two telescopic arms are overlapped with each other; a knob shaft ; an adjustment gear configured to move to the overlapping part and mesh with the two telescopic arms , and drive the two telescopic arms to move towards or away from each other; and a self-locking mechanism comprising a rear housing , an elastic member and a locking member ; wherein the rear housing is arranged on a side of the overlapping part away from the knob shaft , wherein the elastic member is configured to drive the locking member to bounce into the overlapping part , to lock a relative position of the two telescopic arms characterized in that said said knob shaft is configured to move into an overlapping part of the two telescopic arms in response to being pressed; said adjustment gear (A3) is fixedly sleeved on the knob shaft and configured to, in response to the knob shaft being pressed, be driven by the knob shaft ; and in that an end of the elastic member is fixed to the rear housing and another end of the elastic member is connected with the locking member , and the locking member is configured to abut against an end of the knob shaft in response to the knob shaft being in a pressed state; wherein in response to the knob shaft retracting, the knob shaft is configured to drive the adjustment gear to move away from the overlapping part .