mhurhangee/ep-ind-claims huggingface dataset:
A method of encrypting data transmitted from a first device to a second device, performed by using an Advanced Encryption Standard, AES, encryption algorithm, the method comprising: obtaining size information of an encryption key and size information of data that is to be encrypted and includes a plurality of bits; encrypting, using the AES encryption algorithm, a first bit group, which is at least one bit corresponding to a size of the encryption key, among the plurality of bits, by using the encryption key; selecting a third bit group, which is at least one bit of the encrypted first bit group based on size information of the encryption key and a size of a second bit group including bits that are different from the first bit group among the plurality of bits; and encrypting, using the AES encryption algorithm, the second bit group and the selected third bit group by using the encryption key. obtaining size information of an encryption key and size information of data that is to be encrypted and includes a plurality of bits; encrypting, using the AES encryption algorithm, a first bit group, which is at least one bit corresponding to a size of the encryption key, among the plurality of bits, by using the encryption key; selecting a third bit group, which is at least one bit of the encrypted first bit group based on size information of the encryption key and a size of a second bit group including bits that are different from the first bit group among the plurality of bits; and encrypting, using the AES encryption algorithm, the second bit group and the selected third bit group by using the encryption key.
A process performed by a robot control system (120, 500), comprising: executing a program to control a robot by the robot control system (120, 500); receiving robot state information by the robot control system (120, 500); receiving force torque feedback inputs from a sensor on the robot by the robot control system (120, 500); producing a robot control command for the robot, by the robot control system (120, 500), based on the robot state information and the force torque feedback inputs and on a reference signal of a neural network; and controlling the robot using the robot control command, by the robot control system (120, 500), whereby: the robot state information is input to the first layer of the neural network, the first layer being comprised of robot state nodes; the force torque feedback inputs are added to a next-to-last layer of the neural network, the next-to-last layer being comprised of force torque information nodes; the neural network outputs a robot action as a reference signal to an admittance controller; and the admittance controller computes the robot control command based on the reference signal and the force torque feedback inputs. executing a program to control a robot by the robot control system (120, 500); receiving robot state information by the robot control system (120, 500); receiving force torque feedback inputs from a sensor on the robot by the robot control system (120, 500); producing a robot control command for the robot, by the robot control system (120, 500), based on the robot state information and the force torque feedback inputs and on a reference signal of a neural network; and controlling the robot using the robot control command, by the robot control system (120, 500), the robot state information is input to the first layer of the neural network, the first layer being comprised of robot state nodes; the force torque feedback inputs are added to a next-to-last layer of the neural network, the next-to-last layer being comprised of force torque information nodes; the neural network outputs a robot action as a reference signal to an admittance controller; and the admittance controller computes the robot control command based on the reference signal and the force torque feedback inputs.
A system configured to display a neuromarker, comprising: a receiver configured to receive a signal associated with neuronal activity of a patient's brain; a processor configured to process the signal using a non-linear algorithm to extract a signal feature and determine a neuromarker based on an association between the signal feature and a library of features; a storage system configured to store the library of features, wherein the library includes a plurality of signal features correlated with a plurality of disease states; a display system configured to display a representation of the neuromarker; characterized in that the processor is further configured to classify the neuromarker based on a Linear Discriminant Analysis "LDA" employing a two category classifier to assign a discriminant score to the neuromarker, the discriminant score indicating the likelihood of a disease state being associated with the neuromarker; and the discriminant score S A associated with a state A is calculated using a Fisher LDA formula S A = 100. G 1 G 1 + G 2 G 1 = e Z. W A + C A, G 2 = e Z. W B + C B where Z denotes a set of age-regressed and z-transformed features computed for the patient; W A and W B denote two weight vectors derived from a reference database, and C A and C B are bias constants. a receiver configured to receive a signal associated with neuronal activity of a patient's brain; a processor configured to process the signal using a non-linear algorithm to extract a signal feature and determine a neuromarker based on an association between the signal feature and a library of features; a storage system configured to store the library of features, wherein the library includes a plurality of signal features correlated with a plurality of disease states; a display system configured to display a representation of the neuromarker; characterized in that the processor is further configured to classify the neuromarker based on a Linear Discriminant Analysis "LDA" employing a two category classifier to assign a discriminant score to the neuromarker, the discriminant score indicating the likelihood of a disease state being associated with the neuromarker; and the discriminant score S A associated with a state A is calculated using a Fisher LDA formula S A = 100. G 1 G 1 + G 2 G 1 = e Z. W A + C A, G 2 = e Z. W B + C B where Z denotes a set of age-regressed and z-transformed features computed for the patient; W A and W B denote two weight vectors derived from a reference database, and C A and C B are bias constants.
A device for analyzing polymers each having optical labels attached to a sequence of monomers, the device comprising: a nanopore array separating a first chamber and a second chamber, wherein nanopores of the nanopore array each connect the first chamber and the second chamber and are arranged in clusters such that each different cluster of nanopores is disposed within a different resolution limited area, and wherein each of said clusters comprises a plurality of nanopores; a polymer translocating system for moving polymers in the first chamber to the second chamber through the nanopores of the nanopore array; and a detection system for collecting optical signals generated by optical labels attached to polymers whenever an optical label exits a nanopore within a resolution limited area, wherein a resolution limited area is an area of a surface of the nanopore array within which individual features or light emission sources cannot be distinguished by an optical signal detection system. a nanopore array separating a first chamber and a second chamber, wherein nanopores of the nanopore array each connect the first chamber and the second chamber and are arranged in clusters such that each different cluster of nanopores is disposed within a different resolution limited area, and wherein each of said clusters comprises a plurality of nanopores; a polymer translocating system for moving polymers in the first chamber to the second chamber through the nanopores of the nanopore array; and a detection system for collecting optical signals generated by optical labels attached to polymers whenever an optical label exits a nanopore within a resolution limited area, wherein a resolution limited area is an area of a surface of the nanopore array within which individual features or light emission sources cannot be distinguished by an optical signal detection system.
An arrangement for positioning a microscopic specimen, wherein the arrangement comprises: a moving stage, and a capillary cell (10a, 10b) for receiving a microscopic specimen, in particular for examining cleared fluorescent specimens with the help of a light microscope, a wherein the capillary cell (10a, 10b) is suitable for being positioned in a chamber volume, and wherein said capillary cell (10a, 10b) comprises the following: • a capillary section (12a, 12b), which comprises a wall (18a, 18b) that encloses a specimen volume, wherein the wall (18a, 18b) is planar and transparent in at least some sections, • an upper and a lower closure section (16a, 16b and 14a, 14b), which are connected to the capillary section (12a, 12b) and seal it so that the specimen volume is separated from the chamber volume, • a specimen-centering device (28a, 28b, 28c) for centring and fixing the specimen within the capillary cell (10a, 10b), wherein said capillary cell (10a, 10) is connectable with the moving stage, and wherein the moving stage is suitable for positioning the capillary cell (10a, 10b). a moving stage, and a capillary cell (10a, 10b) for receiving a microscopic specimen, in particular for examining cleared fluorescent specimens with the help of a light microscope, a wherein the capillary cell (10a, 10b) is suitable for being positioned in a chamber volume, and wherein said capillary cell (10a, 10b) comprises the following: • a capillary section (12a, 12b), which comprises a wall (18a, 18b) that encloses a specimen volume, wherein the wall (18a, 18b) is planar and transparent in at least some sections, • an upper and a lower closure section (16a, 16b and 14a, 14b), which are connected to the capillary section (12a, 12b) and seal it so that the specimen volume is separated from the chamber volume, • a specimen-centering device (28a, 28b, 28c) for centring and fixing the specimen within the capillary cell (10a, 10b), wherein said capillary cell (10a, 10) is connectable with the moving stage, and wherein the moving stage is suitable for positioning the capillary cell (10a, 10b). • a capillary section (12a, 12b), which comprises a wall (18a, 18b) that encloses a specimen volume, wherein the wall (18a, 18b) is planar and transparent in at least some sections, • an upper and a lower closure section (16a, 16b and 14a, 14b), which are connected to the capillary section (12a, 12b) and seal it so that the specimen volume is separated from the chamber volume, • a specimen-centering device (28a, 28b, 28c) for centring and fixing the specimen within the capillary cell (10a, 10b),
Treatment apparatus for grey water for a rail vehicle, having a grey water container, a grey water inflow in an inlet region, an outflow for treated grey water in an outlet region, and a gate filter between the inlet and outlet regions, said gate filter having at least one movable slide (4, 14, 15) which, in a lowered position, makes contact with the base of the grey water container and, in a raised position, is raised off therefrom, wherein the base of the grey water container rises from the inlet region to the outlet region, wherein a cleaning drain is arranged in the inlet region on the base side, and wherein there is arranged a fresh water inflow for the supply of fresh water, characterized in that the fresh water inflow is arranged in the outlet region.
A method for optimizing a measurement rate of a first field device in a measuring system, wherein the first field device is configured to measure a first measured variable with an adjustable measurement rate, wherein the measuring system, in addition to the first field device, comprises at least a second field device, which is configured to measure a second measured variable (f), wherein the first measured variable is different from the second measured variable (f), and wherein at least the first measured variable of the first field device correlates with the second measured variable (f) of the second field device, comprising the following process steps: - Measuring the measured variables (f, L) of the at least two field devices (11, 12) each with a preset measurement rate during a defined calibration phrase, - working out a correlation pattern between the first measured variable and the second measured variable (f) based on the measured values from the calibration phase, - implementing measuring mode, wherein at least the measured values of the second field device are checked in relation to the correlation pattern during measuring mode, and wherein the measurement rate of the first field device in measuring mode is changed at least during a time window (Δt) in which the correlation pattern is detected in the measured values of the second measured variable (f). - Measuring the measured variables (f, L) of the at least two field devices (11, 12) each with a preset measurement rate during a defined calibration phrase, - working out a correlation pattern between the first measured variable and the second measured variable (f) based on the measured values from the calibration phase, - implementing measuring mode, wherein at least the measured values of the second field device are checked in relation to the correlation pattern during measuring mode, and wherein the measurement rate of the first field device in measuring mode is changed at least during a time window (Δt) in which the correlation pattern is detected in the measured values of the second measured variable (f).
An optical ranging device (10, 100) comprising: light pulse generation means (11, 101) configured to generate a light pulse with a phase change point between a first phase modulation portion and a second phase modulation portion; light-transmitting means (12, 104) configured to transmit the generated light pulse; light-receiving means (13, 105) configured to receive a light pulse reflected from a measurement object by the transmitted light pulse; and distance calculation means (14, 111) configured to calculate a distance to the measurement object, based on the phase change point of the transmitted light pulse and the phase change point of the received light pulse, wherein an optical signal of the first phase modulation portion is a first phase and an optical signal of the second phase modulation portion is a second phase different from the first phase. light pulse generation means (11, 101) configured to generate a light pulse with a phase change point between a first phase modulation portion and a second phase modulation portion; light-transmitting means (12, 104) configured to transmit the generated light pulse; light-receiving means (13, 105) configured to receive a light pulse reflected from a measurement object by the transmitted light pulse; and distance calculation means (14, 111) configured to calculate a distance to the measurement object, based on the phase change point of the transmitted light pulse and the phase change point of the received light pulse, wherein an optical signal of the first phase modulation portion is a first phase and an optical signal of the second phase modulation portion is a second phase different from the first phase.
Gluing machine for attaching an edge strip to an end face of a workpiece plate, comprising a portable machine housing, which can be guided manually along the workpiece plate, an adhesive application device for applying adhesive to a rear side of the edge strip and a strip guiding device for guiding the edge strip to which adhesive has been applied to the end face of the workpiece plate for bonding to the end face, wherein the gluing machine comprises a supply device located on the machine housing for providing a stock of the edge strip, wherein the supply device comprises a reel receptacle for a strip reel of the edge strip provided as stock, wherein a strip outlet of the reel receptacle communicates with a strip inlet of the strip guiding device, so that the edge strip can be guided from the reel receptacle into the strip guiding device, characterised in that the supply device is movably mounted on the machine housing by way of a bearing device for positioning the strip outlet relative to the strip inlet of the strip guiding device and/or for adapting to a respective width of the edge strip.
A method for manufacturing a foam molded body, comprising the steps of: an arranging step to arrange one sheet of a foam resin sheet between a first mold and a second mold, the foam resin sheet being formed by extruding and dangling a molten foam resin from a slit; an expanding step comprising performing a first suction step, a mold closening step, and a second suction step in this order; wherein the first suction step comprises subjecting the foam resin sheet to reduced pressure suction by the first mold, thereby shaping the foam resin sheet to follow a shape of a cavity of the first mold; the mold closening step comprises closening the first mold and the second mold to each other to provide a gap between the first mold and the second mold, the first and the second molds (21, 22) being provided with pinch off portions (21d, 22d), respectively, the first and the second molds (21, 22) being closened until the pinch off portions come into contact to provide a closed space surrounded by the pinch off portions (21d, 22d), the gap having a thickness larger than a thickness of the foam resin sheet; and the second suction step comprises subjecting the foam resin sheet to reduced pressure suction by the first mold and the second mold, thereby expanding the foam resin sheet to have the thickness of the gap. an arranging step to arrange one sheet of a foam resin sheet between a first mold and a second mold, the foam resin sheet being formed by extruding and dangling a molten foam resin from a slit; an expanding step comprising performing a first suction step, a mold closening step, and a second suction step in this order; wherein the first suction step comprises subjecting the foam resin sheet to reduced pressure suction by the first mold, thereby shaping the foam resin sheet to follow a shape of a cavity of the first mold; the mold closening step comprises closening the first mold and the second mold to each other to provide a gap between the first mold and the second mold, the first and the second molds (21, 22) being provided with pinch off portions (21d, 22d), respectively, the first and the second molds (21, 22) being closened until the pinch off portions come into contact to provide a closed space surrounded by the pinch off portions (21d, 22d), the gap having a thickness larger than a thickness of the foam resin sheet; and the second suction step comprises subjecting the foam resin sheet to reduced pressure suction by the first mold and the second mold, thereby expanding the foam resin sheet to have the thickness of the gap.
An electrical connection which has at least two contact parts (4, 6), an insulating housing and a connection element, a. wherein both contact parts (4, 6) are connected to each other by means of the connecting element, b. wherein the insulating housing comprises one or more through holes, for receiving measuring electrodes for determining a contact resistance between both contact parts (4, 6), characterized in that the insulating housing is configured for four-point measurement with four measuring electrodes, namely two measuring electrodes for each contact part (4, 6). a. wherein both contact parts (4, 6) are connected to each other by means of the connecting element, b. wherein the insulating housing comprises one or more through holes, for receiving measuring electrodes for determining a contact resistance between both contact parts (4, 6),
An actuator device for change of state of an electronic-control apparatus for underwater use comprising a main body designed to be associated in a stable way with at least part of said apparatus, said actuator device being characterised in that it has an inoperating condition wherein it is not associated with said at least part of said apparatus and an operating position wherein it is associated in a stable way with said at least part of said apparatus, and in that it comprises magnetic-field generator means associated with said main body that, in the operating position of said actuator device, interface with reed-technology sensor means of said apparatus for sending electrical information to means for management and control of said apparatus that are designed to change the state, in particular the state of supply of said apparatus, said management and control means being electrically associated with a supply circuit of said apparatus, which comprises at least one power-supply battery, for the possible opening and closing of the circuit.
A data receiver for use with a data-transmission system having first and second channels (10, 12) for transmitting nominally-identical data (Data A, Data B), the receiver comprising inputs for receiving separately the data (Data A, Data B) from the first and second channels (10, 12), means for inverting the logic of the data (Data B) received from the second channel, respective data-handling devices (34, 36) for receiving and outputting separately data (Data A) from the first channel and data (Data B) from the second channel, and processor means configured to invert the logic of data outputted by the data-handling device of one of the channels and to compare the so-inverted data (Data B) with the data (Data A) outputted by the data-handling device of the other channel.
Optical device (10, 300, 400, 500, 600, 700, 800, 900) comprising a light path for guiding a light beam along a circular arc, wherein the light path comprises at least one light path segment (30, 30a, 30b, 334, 336, 434, 436, 934, 936) comprising a number of light path elements (40, 121) arranged tangentially along the light path, each of the light path elements (40, 121) being at least partially limited in a radial direction by a first interface (42, 342, 442), characterized in that the first interfaces (42, 342, 442) of a respective light path segment are each configured to reflect at least light incident from the light path at an angle of incidence greater than a predetermined angle onto the respective first interface (42, 342, 442) to keep a light beam propagating along the light path in a direction of travel predetermined for the respective light path segment on the light path; and a first tangential end of the first interfaces (42, 342, 442) is spaced radially further apart from the center of the circle of the circular arc than a second tangential end to create a preferential direction for the propagation of a light beam along the light path in the predetermined direction of travel within the light path segment. wherein the light path comprises at least one light path segment (30, 30a, 30b, 334, 336, 434, 436, 934, 936) comprising a number of light path elements (40, 121) arranged tangentially along the light path, each of the light path elements (40, 121) being at least partially limited in a radial direction by a first interface (42, 342, 442), characterized in that the first interfaces (42, 342, 442) of a respective light path segment are each configured to reflect at least light incident from the light path at an angle of incidence greater than a predetermined angle onto the respective first interface (42, 342, 442) to keep a light beam propagating along the light path in a direction of travel predetermined for the respective light path segment on the light path; and a first tangential end of the first interfaces (42, 342, 442) is spaced radially further apart from the center of the circle of the circular arc than a second tangential end to create a preferential direction for the propagation of a light beam along the light path in the predetermined direction of travel within the light path segment.