mhurhangee/ep-ind-claims huggingface dataset:
A method for the production of a transgenic mouse, comprising the step of introducing by site-specific recombination an expression cassette comprising a rearranged nucleic acid encoding a rearranged human VL region of a human immunoglobulin into the mouse germline, wherein the VL region is encoded by human germline V and germline J segments, wherein the nucleic acid encoding said VL region is targeted to the mouse Ig kappa or lambda light chain locus so as to inactivate the endogenous locus, wherein the VL region is selected for its capacity to pair with at least two different human or murine VH regions, and wherein the mouse is capable of producing antibodies harboring the VL region and an endogenous murine light chain constant region.
A safety catheter comprising a catheter hub having an engaging element on an inner surface of the catheter hub located distally of a proximal opening of the catheter hub, a tip protector having an outer housing and an inner resilient member adapted to slide axially relative to the outer housing between a first axial position and a second axial position, the outer housing having a distal end being disposed in the catheter hub, the outer housing having a radially outwardly directed projection sized to engage the catheter hub engaging element to hold the tip protector to the catheter hub, and a needle having a shaft extending to a sharp distal tip, the shaft extending through the inner resilient member and the catheter hub to project the sharp tip distally beyond the catheter hub in an extended position of the needle with the inner resilient member in the first axial position, the needle being moveable in the proximal direction so as to engage the inner resilient member during such movement to move the inner resilient member to the second axial position and to apply proximally directed forces thereto, the inner resilient member adapted to engage the outer housing in the second axial position such that proximally directed forces applied to the inner resilient member in the second axial position are translated to the outer housing to cause the outer housing to move proximally, characterized in that the engagement between the inner resilient member and the outer housing is such that further proximal movement overcomes the engagement between the projection of the outer housing and the catheter hub engaging element whereby to remove the tip protector from the catheter hub.
Optical device for placement in the optical train of an optical microscope in order to detect light momentum changes to measure optical forces acting on a microscopical sample located in a suspending medium and placed on the microscope's stage, the device comprising a collector having a numerical-aperture greater than the refraction index n m of said suspending medium to collect the light scattered and not scattered by the sample, a light sensor placed at or near an optical equivalent of the back focal plane of the collector, and a first optical relay to project the light collected by the collector onto the light sensor, characterized in that the device also comprises a second optical relay placed along an illumination path and a reference element placed along said illumination path, the distance between the second optical relay and the reference element being such that, when the reference element is in sharp focus as seen through the microscope, the diameter of the light pattern projected on the light sensor is 2·f d ·n m, where f d is the focal length of the device.
A method for assessing memory resource consumption and/or required run time of a controller program code for a control program, the functionality of the control program being provided in an executable model (10, 10') created by means of a modeling software, the model comprising a function (20, 20', 21) having a plurality of first function parameters (InPort, InPort1, InPort2, OutPort) and first information associated with the first function parameters, and optimization parameters (O1, 02, On) for defining optimization settings for a code generator, a first program code representation (40, 43, 44) being generated by the code generator for a part of the model comprising the function (20, 20', 21) based on first values of the optimization parameters (O1, 02, On), the first program code representation (40, 43, 44) comprising a plurality of second function parameters (InPort, InPort1, InPort2, g1, g2, s1, sw) and information associated with the second function parameters, an estimating unit being provided comprising a resource model having a plurality of parameters describing hardware (R1, R2, Rn), the estimating unit determining on the basis of the parameters (R1, R2, Rn) describing the hardware a first memory space requirement estimate for the controller program code and/or a first running time estimate for the controller program code, and the first memory space requirement estimate and/or the first running time estimate being saved in a first memory area and/or being displayed on a display device, particularly in the executable model (10, 10'), characterized in that the code generator does not run through the entire process of code generating for the controller program code, but rather generates only the first program code representation as a control flow diagram and/or as a data flow graph and/or as a tree structure, and that the first memory space requirement estimate and/or the first running time estimate is/are determined on the basis of the first program code representation (43, 44). a first memory space requirement estimate for the controller program code and/or a first running time estimate for the controller program code, and
A method of wireless communication operable at a scheduling entity, the method comprising: communicating with a plurality of user equipments, UEs, utilizing a plurality of slots configured to multiplex grant-based traffic and grant-less traffic in a same cell; determining intra-cell interference to the grant-based traffic caused by the grant-less traffic in the same cell; and transmitting control information to the plurality of UEs, to mitigate the intra-cell interference by statistically controlling a number of the plurality of UEs that transmit grant-less traffic in one or more of the plurality of slots, the control information comprising: a first indicator configured for each UE to statistically control its on-going grant-less traffic; and a second indicator configured for each UE to statistically control its pending grant-less traffic. communicating with a plurality of user equipments, UEs, utilizing a plurality of slots configured to multiplex grant-based traffic and grant-less traffic in a same cell; determining intra-cell interference to the grant-based traffic caused by the grant-less traffic in the same cell; and transmitting control information to the plurality of UEs, to mitigate the intra-cell interference by statistically controlling a number of the plurality of UEs that transmit grant-less traffic in one or more of the plurality of slots, the control information comprising: a first indicator configured for each UE to statistically control its on-going grant-less traffic; and a second indicator configured for each UE to statistically control its pending grant-less traffic. a first indicator configured for each UE to statistically control its on-going grant-less traffic; and a second indicator configured for each UE to statistically control its pending grant-less traffic.
A system for spinal fusion, comprising: an intervertebral spacer (112, 212, 512, 612, 812,912) sized and shaped to at least partially fill an intervertebral disc space between first and second adjacent vertebrae after removal of at least a portion of an intervertebral disc; a first anchor (116, 216, 316, 416, 516, 616, 716, 816, 916) secured to the spacer (112, 212, 512, 612, 812,912), wherein the first anchor (116, 216, 316, 416, 516, 616, 716, 816, 916) is sized and shaped to secure the spacer (112, 212, 512, 612, 812,912) to the first vertebra so that the spacer (112, 212, 512, 612, 812,912) and the first vertebra are substantially relatively immobilized against antagonistic spinal motions; and the system for spinal fusion being characterized in that it further comprises a jacket (114, 214, 514, 614) secured around the spacer (112, 212, 512, 612, 812,912) and secured to the first anchor (116, 216, 316, 416, 516, 616, 716, 816, 916) for sustaining spinal loads across opposite sides of the spacer (112, 212, 512, 612, 812,912). an intervertebral spacer (112, 212, 512, 612, 812,912) sized and shaped to at least partially fill an intervertebral disc space between first and second adjacent vertebrae after removal of at least a portion of an intervertebral disc; a first anchor (116, 216, 316, 416, 516, 616, 716, 816, 916) secured to the spacer (112, 212, 512, 612, 812,912), wherein the first anchor (116, 216, 316, 416, 516, 616, 716, 816, 916) is sized and shaped to secure the spacer (112, 212, 512, 612, 812,912) to the first vertebra so that the spacer (112, 212, 512, 612, 812,912) and the first vertebra are substantially relatively immobilized against antagonistic spinal motions; and
A method for preventing leakage of vehicle information, comprising: analyzing, by a vehicle information leakage prevention apparatus connected to an in-vehicle module, a vehicle communication protocol between the module and another module; determining whether encryption has been applied to the vehicle communication protocol, based on results of analysis of the vehicle communication protocol; selecting a method of generating fake communication data depending on whether encryption has been applied to the vehicle communication protocol; and generating fake communication data depending on the selected method, and transferring the generated fake communication data to a vehicle information leakage prevention apparatus connected to the other module. analyzing, by a vehicle information leakage prevention apparatus connected to an in-vehicle module, a vehicle communication protocol between the module and another module; determining whether encryption has been applied to the vehicle communication protocol, based on results of analysis of the vehicle communication protocol; selecting a method of generating fake communication data depending on whether encryption has been applied to the vehicle communication protocol; and generating fake communication data depending on the selected method, and transferring the generated fake communication data to a vehicle information leakage prevention apparatus connected to the other module.
A combustible heat source for an aerosol-generating article, the combustible heat source comprising: carbon; an alkaline earth metal peroxide ignition aid; and a binding agent comprising a combination of carboxymethyl cellulose and at least one non-cellulosic film-forming polymer selected from the group consisting of polyvinyl alcohol, polyethylene glycol, polyvinylpyrrolidone, polyvinyl acetate and graft-copolymers thereof. carbon; an alkaline earth metal peroxide ignition aid; and a binding agent comprising a combination of carboxymethyl cellulose and at least one non-cellulosic film-forming polymer selected from the group consisting of polyvinyl alcohol, polyethylene glycol, polyvinylpyrrolidone, polyvinyl acetate and graft-copolymers thereof.
Method for operating a bus device of a building automation facility, wherein a data record composed of associated data about a building installation bus is transmitted by a control unit of the bus device to a receiver device and to this end the data record is provided by the control unit of a connection circuit of the bus device, by way of which the bus device is connected to the building installation bus and by means of which provided data is automatically transmitted as data telegrams into the building installation bus, wherein the control unit divides the data record into a number of data packets and the data packets are provided consecutively to the connection circuit for transmission purposes and after each one of the data packets is provided an associated response signal from the connection circuit is awaited, wherein the next data packet is only provided with a delay of an adjustable delay duration after having received the last response signal, wherein the delay duration is adjusted as a function of at least one received response signal, so that a dynamic delay is provided, characterised in that the delay duration is increased if the last response signal received indicates that a transfer error occurred while transmitting the last data packet provided, and the delay duration is reduced if the last response signal received indicates that the last data packet provided was transferred in its entirety to the receiver device.
A system for irradiating an artificial lens, the system comprising: one or more irradiation sources for two-photon or multi-photon irradiating a said artificial lens with an irradiation beam focused with an optic and of a first wavelength and a second wavelength different from the first wavelength, a scanner coupled to the one or more irradiation sources and configured to scan a said irradiation beam across said artificial lens, and an input unit coupled to the one or more irradiation sources and the scanner, wherein the input unit is configured to input data for treating said artificial lens by scanning a said irradiation beam across said artificial lens based on the input data, and wherein the first wavelength is between 600 nm and 800 nm for locally decreasing, based on said treating of said artificial lens, a polarizability of said artificial lens, and wherein the second wavelength is between 400 nm and 590 nm for locally increasing, based on said treating of said artificial lens, the polarizability of said artificial lens. one or more irradiation sources for two-photon or multi-photon irradiating a said artificial lens with an irradiation beam focused with an optic and of a first wavelength and a second wavelength different from the first wavelength, a scanner coupled to the one or more irradiation sources and configured to scan a said irradiation beam across said artificial lens, and an input unit coupled to the one or more irradiation sources and the scanner, wherein the input unit is configured to input data for treating said artificial lens by scanning a said irradiation beam across said artificial lens based on the input data, and wherein the first wavelength is between 600 nm and 800 nm for locally decreasing, based on said treating of said artificial lens, a polarizability of said artificial lens, and wherein the second wavelength is between 400 nm and 590 nm for locally increasing, based on said treating of said artificial lens, the polarizability of said artificial lens. wherein the first wavelength is between 600 nm and 800 nm for locally decreasing, based on said treating of said artificial lens, a polarizability of said artificial lens, and wherein the second wavelength is between 400 nm and 590 nm for locally increasing, based on said treating of said artificial lens, the polarizability of said artificial lens.
Tank system for a low-floor vehicle, particularly a bus, comprising at least one tank for receiving of a cryogenic fluid, and a storage unit mountable on the roof of the vehicle and comprising the at least one tank and a protective housing enclosing or abutting the at least one tank, wherein a valve assembly connected to the tank is received in the protective housing and comprises an overpressure valve attached to a filling or degassing line (20, 23) outgoing from an upper portion of the tank, characterised by an operating unit mountable in or at the vehicle in reach of a person being inside or standing next to the vehicle, which operating unit is connected to the storage unit via a bundle of lines, wherein the overpressure valve in the valve assembly is equipped with a sensor detecting an overpressure release of the overpressure valve, which sensor controls an indication device located in the operating unit.
A digital host unit (20, 420) to communicatively couple to a plurality of digital remote units (40, 540), the digital host unit (20, 420) comprising a radio frequency interface to receive an original forward-path analog radio frequency signal from a wireless interface device (10, 211, 310) and to communicate a reverse-path analog radio frequency signal to the wireless interface device (10, 211, 310), wherein each of the plurality of digital remote units (40, 540) receives a respective original reverse-path analog radio frequency signal comprising a reverse-path radio frequency spectrum and wherein each of the plurality of digital remote units (40, 540) generates respective reverse-path digital samples indicative of the respective original reverse-path analog radio frequency signal received at that digital remote unit; and characterized in that the digital host unit (20, 420) comprises: an analog-to-digital converter to convert the original forward-path analog radio frequency signal to forward-path digital samples; at least one transmission line interface (431-1, 431-2, 431-P, 418-1, 418-2, 418-P) to communicate the forward-path digital samples to at least one of the plurality of digital remote units (40, 540) and to receive the reverse-path digital samples from the plurality of digital remote units (40, 540); a digital summer to digitally sum corresponding reverse-path digital samples received from the plurality of digital remote units (40, 540) to produce summed reverse-path digital samples; and a digital-to-analog converter to convert the summed reverse-path digital samples to a reconstructed reverse-path analog radio frequency signal. an analog-to-digital converter to convert the original forward-path analog radio frequency signal to forward-path digital samples; at least one transmission line interface (431-1, 431-2, 431-P, 418-1, 418-2, 418-P) to communicate the forward-path digital samples to at least one of the plurality of digital remote units (40, 540) and to receive the reverse-path digital samples from the plurality of digital remote units (40, 540); a digital summer to digitally sum corresponding reverse-path digital samples received from the plurality of digital remote units (40, 540) to produce summed reverse-path digital samples; and a digital-to-analog converter to convert the summed reverse-path digital samples to a reconstructed reverse-path analog radio frequency signal.
A flavor composition comprising a compound selected from the group consisting of: or a biologically acceptable salt thereof; and combinations thereof.
Method for operating an autonomous mobile green area maintenance robot, wherein the method has the steps of: a) transmitting radio waves by means of the green area maintenance robot, b) receiving reflected radio waves by means of the green area maintenance robot, c) evaluating the reflected radio waves in order to identify at least one living animal and/or at least one living person, and d) controlling the green area maintenance robot on the basis of the identification, characterized in that - step c) comprises: evaluating the reflected radio waves, taking into account movement of the green area maintenance robot on an area to be maintained. a) transmitting radio waves by means of the green area maintenance robot, b) receiving reflected radio waves by means of the green area maintenance robot, c) evaluating the reflected radio waves in order to identify at least one living animal and/or at least one living person, and d) controlling the green area maintenance robot on the basis of the identification, characterized in that - step c) comprises: evaluating the reflected radio waves, taking into account movement of the green area maintenance robot on an area to be maintained. - step c) comprises: evaluating the reflected radio waves, taking into account movement of the green area maintenance robot on an area to be maintained.
A system comprising a work platform including slats, the system being configured to adjust extension lengths of the slats of the work platform relative to an outer surface of a rotatable workpiece positioned in working relation to the work platform, the system further comprising: one or more sensors (126, 134) configured to collect first data associated with a position of the outer surface of the workpiece at a height of the slats; actuators configured to extend or retract the slats; and a controller coupled to the one or more sensors (126, 134) and to the actuators, wherein the controller is configured to receive the first data and second data associated with rotation of the workpiece from the one or more sensors, wherein the controller is configured to provide signals to the actuators based on the first data and the second data, and wherein the signals cause the actuators to adjust or maintain extension lengths of the slats of the work platform to maintain separation distances between ends of the slats and the outer surface of the workpiece within a separation distance range as the workpiece rotates. one or more sensors (126, 134) configured to collect first data associated with a position of the outer surface of the workpiece at a height of the slats; actuators configured to extend or retract the slats; and a controller coupled to the one or more sensors (126, 134) and to the actuators, wherein the controller is configured to receive the first data and second data associated with rotation of the workpiece from the one or more sensors, wherein the controller is configured to provide signals to the actuators based on the first data and the second data, and wherein the signals cause the actuators to adjust or maintain extension lengths of the slats of the work platform to maintain separation distances between ends of the slats and the outer surface of the workpiece within a separation distance range as the workpiece rotates.
A charging device for charging energy-storage devices, the charging device comprising: a) an Electro-Magnetic Interference/Radio-Frequency Interference, EMI/RFI, filter configured to passively suppress conducted interference present on an alternating-current, AC, power source; b) a rectifier configured to convert an AC input to a direct-current, DC, output; and c) a voltage-controlled charger configured to provide a high-power output having an output voltage and an output current from said AC power source, wherein said output voltage and said output current from said voltage-controlled charger are pulsating DC signals having a waveform which ranges only from zero to positive volts, with the negative half of the signal rectified to the positive half; wherein the EMI/RFI filter is directly connected to the rectifier, without an electronic switching circuitry in between; the rectifier is directly connected to the voltage-controlled charger, without a capacitor connected across the output of the rectifier; and said high-power output is a wattage selected from the group consisting of: greater than about 40W, greater than about 50W, greater than about 60W, and greater than about 70W. a) an Electro-Magnetic Interference/Radio-Frequency Interference, EMI/RFI, filter configured to passively suppress conducted interference present on an alternating-current, AC, power source; b) a rectifier configured to convert an AC input to a direct-current, DC, output; and c) a voltage-controlled charger configured to provide a high-power output having an output voltage and an output current from said AC power source, wherein said output voltage and said output current from said voltage-controlled charger are pulsating DC signals having a waveform which ranges only from zero to positive volts, with the negative half of the signal rectified to the positive half; wherein the EMI/RFI filter is directly connected to the rectifier, without an electronic switching circuitry in between; the rectifier is directly connected to the voltage-controlled charger, without a capacitor connected across the output of the rectifier; and said high-power output is a wattage selected from the group consisting of: greater than about 40W, greater than about 50W, greater than about 60W, and greater than about 70W.