mhurhangee/patent-ind-claim-en huggingface dataset:
A profile editing system, comprising: a plurality of devices; a plurality of device control modules , configured to respectively control the devices; and a profile control module , configured for receiving and recording preset control settings sent from the device control modules for the devices as a profile, to make the devices work by using the control settings recorded in the profile; wherein the device control modules respectively have an identification code; and wherein, when the profile is being edited, the profile is first initialized and respective control settings of all or some of the device control modules are then respectively set, and the device control modules that are set transfer the control settings and identification codes thereof to the profile control module , the profile control module recording the control settings and the identification codes in the profile, and when only some of the device control modules are set, only the control settings of the device control modules that are set are recorded in the profile; characterized in that the device control modules and the profile control module are respectively wall control switches. a plurality of devices; a plurality of device control modules , configured to respectively control the devices; and a profile control module , configured for receiving and recording preset control settings sent from the device control modules for the devices as a profile, to make the devices work by using the control settings recorded in the profile; wherein the device control modules respectively have an identification code; and wherein, when the profile is being edited, the profile is first initialized and respective control settings of all or some of the device control modules are then respectively set, and the device control modules that are set transfer the control settings and identification codes thereof to the profile control module , the profile control module recording the control settings and the identification codes in the profile, and when only some of the device control modules are set, only the control settings of the device control modules that are set are recorded in the profile; characterized in that the device control modules and the profile control module are respectively wall control switches.
A system for interventional brachytherapy for generating data to be used directly for therapy and/or for therapy planning, said system configured to cooperate with a radiation source configured to be inserted into a patient to irradiate tissue of the patient and said system comprising: one or more radiation detectors configured to be disposed outside the patient to detect the radiation transmitted through the patient and generate radiation dosage data in real time indicative thereof; one or more position sensors which determine the position of the radiation source in real time; a localization unit , in communication with the one or more position sensors, which generates position data indicative of the position of the radiation source; an image database which stores one or more anatomical images of the patient; and a dose calculation unit which co-registers the one or more anatomical images with the positional and radiation dosage data and generates dose monitoring data based on the co-registration. one or more radiation detectors configured to be disposed outside the patient to detect the radiation transmitted through the patient and generate radiation dosage data in real time indicative thereof; one or more position sensors which determine the position of the radiation source in real time; a localization unit , in communication with the one or more position sensors, which generates position data indicative of the position of the radiation source; an image database which stores one or more anatomical images of the patient; and a dose calculation unit which co-registers the one or more anatomical images with the positional and radiation dosage data and generates dose monitoring data based on the co-registration.
A method, performed by a source base station associated with a source cell, comprising: making a decision to perform a handover of a user device from the source cell to a target cell at a scheduled handover time; determining an estimated data rate for transmitting data from the source cell to the user device between a time of the handover decision and the scheduled handover time; determining , based on the estimated data rate and a difference between the time of the handover decision and the scheduled handover time, a portion of data stored in a data buffer associated with the source cell for the user device to be forwarded from the source cell to the target cell before the scheduled handover time; and forwarding , from the source cell to the target cell before the scheduled handover time, the portion of data stored in the data buffer for the user device. making a decision to perform a handover of a user device from the source cell to a target cell at a scheduled handover time; determining an estimated data rate for transmitting data from the source cell to the user device between a time of the handover decision and the scheduled handover time; determining , based on the estimated data rate and a difference between the time of the handover decision and the scheduled handover time, a portion of data stored in a data buffer associated with the source cell for the user device to be forwarded from the source cell to the target cell before the scheduled handover time; and forwarding , from the source cell to the target cell before the scheduled handover time, the portion of data stored in the data buffer for the user device.
A supercritical cycle with phase transformation for heat engines with heat input external to the working area characterised in that a working medium is isothermally supercritically expanded at a predefined upper working temperature (Tu) in a working area with heat input external to the working area (1-2), then isobarically supercritically reliquefied at a predetermined lower working pressure (pl) to a predefined lower working temperature (Tl), wherein the predefined lower working temperature (Tl) is below the critical temperature for the working medium, wherein the heat energy thus released is temporarily stored in a temporary heat storage device (2-3), isochoric pressure build-up is achieved from the fluid phase with heat input from the temporary heat storage device (3-4), is isobarically supercritically further expanded at a predefined upper working pressure (pu) at the predefined upper working temperature (Tu) with heat input from the temporary heat storage device (4-1), wherin the cycle always takes place above the critical pressure on the wet steam curve for the working medium. a working medium is isothermally supercritically expanded at a predefined upper working temperature (Tu) in a working area with heat input external to the working area (1-2), then isobarically supercritically reliquefied at a predetermined lower working pressure (pl) to a predefined lower working temperature (Tl), wherein the predefined lower working temperature (Tl) is below the critical temperature for the working medium, wherein the heat energy thus released is temporarily stored in a temporary heat storage device (2-3), isochoric pressure build-up is achieved from the fluid phase with heat input from the temporary heat storage device (3-4), is isobarically supercritically further expanded at a predefined upper working pressure (pu) at the predefined upper working temperature (Tu) with heat input from the temporary heat storage device (4-1),
An aqueous bonding composition comprising: (A) a modified saccharide which is a product of (a) a saccharide and (b) a radical initiator; and (B) an inorganic acid salt, wherein the inorganic acid salt comprises an inorganic acid ammonium salt.
A method for configuring a plurality of electronic devices (102-10N) comprising: initializing, by a first computing device of the plurality of electronic devices (102-10N), a communication network based on a pre-defined configuration parameter associated with a first instance of an application on the first computing device, and coupling with a computational platform over the communication network ; by the first instance of the application on the first computing device , via the communication network , extracting a configuration file from the computational platform and inputting the configuration file to the first computing device ; identifying, by the first computing device , an initialization of a second instance of the application at a second computing device based on a connection request received at the first computing device from the second computing device over the communication network ; and in an automated manner in response to identifying the initialization of the second instance of the application at the second computing device , sending, by the first computing device to the second computing device, over a secured communication network different than the first communication network , the configuration file. initializing, by a first computing device of the plurality of electronic devices (102-10N), a communication network based on a pre-defined configuration parameter associated with a first instance of an application on the first computing device, and coupling with a computational platform over the communication network ; by the first instance of the application on the first computing device , via the communication network , extracting a configuration file from the computational platform and inputting the configuration file to the first computing device ; identifying, by the first computing device , an initialization of a second instance of the application at a second computing device based on a connection request received at the first computing device from the second computing device over the communication network ; and in an automated manner in response to identifying the initialization of the second instance of the application at the second computing device , sending, by the first computing device to the second computing device, over a secured communication network different than the first communication network , the configuration file.
A method for diagnosing a signal of a functionality which has an input or output signal with discrete values or discrete classes of values, in which input values or output values are grouped, on which a function of the functionality has the same effect, which are observable quantities of a diagnosis functionality for error detection, wherein the signal to be diagnosed is the output signal, the discrete values or, respectively, the discrete classes of values have a cardinality N that is the number of discrete values or discrete classes of values, N error counters are provided, and the method has the following steps: • providing a sum signal from the sum of the values of the error counters ; • if a value or class of values is erroneous, incrementing the value of the error counter assigned to the erroneous value or the erroneous class; • if the value or the class is correct, decrementing the value of the error counter assigned to the value or the class; • if the sum signal exceeds a pre-established limit value , outputting an error message of the functionality. with discrete values or discrete classes of values, in which input values or output values are grouped, on which a function of the functionality has the same effect, which are observable quantities of a diagnosis functionality for error detection, wherein the signal to be diagnosed is the output signal, the discrete values or, respectively, the discrete classes of values have a cardinality N that is the number of discrete values or discrete classes of values, N error counters are provided, and the method has the following steps: • providing a sum signal from the sum of the values of the error counters ; • if a value or class of values is erroneous, incrementing the value of the error counter assigned to the erroneous value or the erroneous class; • if the value or the class is correct, decrementing the value of the error counter assigned to the value or the class; • if the sum signal exceeds a pre-established limit value , outputting an error message of the functionality. • providing a sum signal from the sum of the values of the error counters ; • if a value or class of values is erroneous, incrementing the value of the error counter assigned to the erroneous value or the erroneous class; • if the value or the class is correct, decrementing the value of the error counter assigned to the value or the class; • if the sum signal exceeds a pre-established limit value , outputting an error message of the functionality.
A user wearable apparatus ; comprising: a body comprising a flexible rear wall that is configured to act as a resilient member; a sensor structure mounted to the user wearable apparatus , the sensor structure comprising: a sensor platform configured to be sandwiched between the flexible rear wall of the body of the user wearable apparatus and skin of the user and supported by the body movably with relation to the body towards and away of the skin , when the user wearable apparatus is worn by the user; a sensor supported by the sensor platform and configured to produce sensor signals corresponding to a property of the skin or underlying matter; and an actuator configured to adjust the position of the sensor platform with relation to the skin , wherein the flexible rear wall is configured to provide resilient biasing of the sensor platform against the skin . a body comprising a flexible rear wall that is configured to act as a resilient member; a sensor structure mounted to the user wearable apparatus , the sensor structure comprising: a sensor platform configured to be sandwiched between the flexible rear wall of the body of the user wearable apparatus and skin of the user and supported by the body movably with relation to the body towards and away of the skin , when the user wearable apparatus is worn by the user; a sensor supported by the sensor platform and configured to produce sensor signals corresponding to a property of the skin or underlying matter; and an actuator configured to adjust the position of the sensor platform with relation to the skin , a sensor platform configured to be sandwiched between the flexible rear wall of the body of the user wearable apparatus and skin of the user and supported by the body movably with relation to the body towards and away of the skin , when the user wearable apparatus is worn by the user; a sensor supported by the sensor platform and configured to produce sensor signals corresponding to a property of the skin or underlying matter; and an actuator configured to adjust the position of the sensor platform with relation to the skin , wherein the flexible rear wall is configured to provide resilient biasing of the sensor platform against the skin .
An electromechanically actuatable vehicle service brake having a linear drive, in which an actuating part for wheel brakes is acted upon from an electromechanical actuator via a transmission which converts a rotational movement of the electromechanical actuator into a translational movement, wherein the actuating part for wheel brakes is a pressure piston , wherein the drive is a rolling body threaded drive having a threaded spindle and a threaded nut which are in contact via a plurality of rolling bodies , and wherein, in a servo brake housing , a hydraulic working pressure chamber is defined by the pressure piston which can be actuated electromechanically via the transmission in order to carry out increased service braking, so as to, for its part, pressurize an hydraulic pressure medium in the working pressure chamber , so that the pressure piston can be actuated along a piston longitudinal axis (A) for pressure build-up on the actuating part of a wheel brake for achieving a braking effect on a vehicle wheel to be braked, characterized in that mechanical means are associated with the linear drive which prevent the threaded spindle and the threaded nut from jamming, wherein the mechanical means comprise a projection in force-transmitting communication with the threaded spindle and interacting with a clearance in the threaded nut in such a manner that a stop is formed in the circumferential direction, which stop prevents jamming, and in that the mechanical means additionally comprise a compensating element associated with the projection and formed to be axially resilient.
An anti-alpha synuclein antibody comprising a heavy chain comprising the amino acid sequence of SEQ ID NO: 1 and a light chain comprising the amino acid sequence of SEQ ID NO: 2.
An interrogation device for interrogating an acoustic wave sensor , comprising a transmission antenna configured for transmitting an interrogation radiofrequency signal to the acoustic wave sensor ; a reception antenna configured for receiving a response radiofrequency signal from the acoustic wave sensor ; and a processing means configured for determining the in-phase components I and the quadrature components Q of the received response radiofrequency signal in each of N consecutive frames of the response radiofrequency signal , N being an integer larger than 1, wherein each of the N frames comprises X sampling points; determining the moduli |Y| of each of the pairs of the determined in-phase components I and the quadrature components Q; determining a first norm M based on the determined moduli |Y|; determining a first weighting function W based on the determined first norm M and the determined moduli |Y|; determining the in-phase components I and the quadrature components Q of an N+1th frame of the received response radiofrequency signal, the N+1th frame comprising X sampling points of the received response radiofrequency signal ; determining the moduli |Y| of each of the pairs of the determined in-phase components I and the quadrature components Q of the N+1th frame; and characterised by applying the first weighting function Wto the determined moduli |Y| of the received response radiofrequency signal in the N+1th frame to obtain weighted moduli |Y|w of the received response radiofrequency signal for the N+1th frame. a transmission antenna configured for transmitting an interrogation radiofrequency signal to the acoustic wave sensor ; a reception antenna configured for receiving a response radiofrequency signal from the acoustic wave sensor ; and a processing means configured for determining the in-phase components I and the quadrature components Q of the received response radiofrequency signal in each of N consecutive frames of the response radiofrequency signal , N being an integer larger than 1, wherein each of the N frames comprises X sampling points; determining the moduli |Y| of each of the pairs of the determined in-phase components I and the quadrature components Q; determining a first norm M based on the determined moduli |Y|; determining a first weighting function W based on the determined first norm M and the determined moduli |Y|; determining the in-phase components I and the quadrature components Q of an N+1th frame of the received response radiofrequency signal, the N+1th frame comprising X sampling points of the received response radiofrequency signal ; determining the moduli |Y| of each of the pairs of the determined in-phase components I and the quadrature components Q of the N+1th frame; and characterised by applying the first weighting function Wto the determined moduli |Y| of the received response radiofrequency signal in the N+1th frame to obtain weighted moduli |Y|w of the received response radiofrequency signal for the N+1th frame.
Method for controlling a hydraulic servo steering system in a vehicle , in particular a utility vehicle, with at least the following steps: - reading out a collision warning signal (SCW) for the purpose of establishing whether a collision assistance case (A) obtains (St1), - checking whether, when a collision assistance case (A) obtains, a hydraulic fluid provided by a hydraulic pump of the servo steering system and serving for steering assistance has an actual volumetric flow-rate (QIst) that is greater than or equal to (St2) a minimum volumetric flow-rate (QMin), - increasing a pump speed (nPump) in case the actual volumetric flow-rate (QIst) when a collision assistance case (A) obtains is less than (St3) the minimum volumetric flow-rate (QMin), said pump speed (nPump) being dependent on an engine/motor speed (nEng) of a drive engine/motor interacting with the hydraulic pump . - reading out a collision warning signal (SCW) for the purpose of establishing whether a collision assistance case (A) obtains (St1), - checking whether, when a collision assistance case (A) obtains, a hydraulic fluid provided by a hydraulic pump of the servo steering system and serving for steering assistance has an actual volumetric flow-rate (QIst) that is greater than or equal to (St2) a minimum volumetric flow-rate (QMin), - increasing a pump speed (nPump) in case the actual volumetric flow-rate (QIst) when a collision assistance case (A) obtains is less than (St3) the minimum volumetric flow-rate (QMin), said pump speed (nPump) being dependent on an engine/motor speed (nEng) of a drive engine/motor interacting with the hydraulic pump .
An isolated soluble fusion protein complex comprising at least two soluble fusion proteins, wherein A. the first fusion protein comprises (a) a first binding domain covalently linked to (b) a interleukin-15 (IL-15) polypeptide domain; and wherein the first fusion protein comprises the amino acid sequence set forth in SEQ ID NO: 2; and the second fusion protein comprises (c) a second binding domain covalently linked to (d) a soluble IL-15 receptor alpha sushi-binding domain (IL-15RαSu) fused to an immunoglobulin Fc domain, B. wherein one of the first or second binding domain comprises an anti-CD3 antibody and the other binding domain comprises an antigen-specific binding domain, wherein the antigen-specific binding domain comprises an anti-CD20 antibody, and C. wherein the IL-15 domain of the first fusion protein binds to the soluble IL-15RαSu domain of the second fusion protein to form a soluble fusion protein complex. A. the first fusion protein comprises (a) a first binding domain covalently linked to (b) a interleukin-15 (IL-15) polypeptide domain; and wherein the first fusion protein comprises the amino acid sequence set forth in SEQ ID NO: 2; and the second fusion protein comprises (c) a second binding domain covalently linked to (d) a soluble IL-15 receptor alpha sushi-binding domain (IL-15RαSu) fused to an immunoglobulin Fc domain, B. wherein one of the first or second binding domain comprises an anti-CD3 antibody and the other binding domain comprises an antigen-specific binding domain, wherein the antigen-specific binding domain comprises an anti-CD20 antibody, and C. wherein the IL-15 domain of the first fusion protein binds to the soluble IL-15RαSu domain of the second fusion protein to form a soluble fusion protein complex.