mhurhangee/ep-ind-claims huggingface dataset:
A mobile device comprising: a plurality of sensors (130, 135, 137, 140, 150, 151, 152, 153, 155, 160, 165, 167, 169, 170); and a processor configured to: determine multiple authentication processes based upon sensor inputs and mobile device capabilities for authentication with at least one of an application or a service provider; determine a risk index based upon a summation of contextual input values; determine a trust index based upon a summation of trust levels associated with one or more of the authentication processes, and wherein the trust level associated with at least one of the authentication processes is weighted based on at least one of ambient levels of sound, light, or motion; select, from amongst the multiple authentication processes, one or more authentication processes for which the determined trust index is greater than the determined risk index; and execute the one or more selected authentication processes. a plurality of sensors (130, 135, 137, 140, 150, 151, 152, 153, 155, 160, 165, 167, 169, 170); and a processor configured to: determine multiple authentication processes based upon sensor inputs and mobile device capabilities for authentication with at least one of an application or a service provider; determine a risk index based upon a summation of contextual input values; determine a trust index based upon a summation of trust levels associated with one or more of the authentication processes, and wherein the trust level associated with at least one of the authentication processes is weighted based on at least one of ambient levels of sound, light, or motion; select, from amongst the multiple authentication processes, one or more authentication processes for which the determined trust index is greater than the determined risk index; and execute the one or more selected authentication processes. determine multiple authentication processes based upon sensor inputs and mobile device capabilities for authentication with at least one of an application or a service provider; determine a risk index based upon a summation of contextual input values; determine a trust index based upon a summation of trust levels associated with one or more of the authentication processes, and wherein the trust level associated with at least one of the authentication processes is weighted based on at least one of ambient levels of sound, light, or motion; select, from amongst the multiple authentication processes, one or more authentication processes for which the determined trust index is greater than the determined risk index; and execute the one or more selected authentication processes.
A cone beam computed tomography projection values providing system for providing cone beam computed tomography projection values of a subject, the system comprising: - a detection values providing device for providing detection values, which have been generated by using a radiation device and a detector while a rotation device (1, 8) has rotated at least the radiation device and the subject relative to each other around a rotational axis, wherein the radiation device is adapted to provide a cone beam formed by x-rays (21; 34) and the detector comprises a three-dimensional arrangement of detection elements, wherein the detection elements are arranged for being traversed by the x-rays (21; 34) and are adapted to generate detection values depending on the x-rays (21; 34) having traversed the detection elements, - a projection values determination device for determining projection values, wherein the projection values determination device is adapted to determine a projection value for an x-ray (22; 32; 33) based on a detection value generated by a detection element traversed by the x-ray (22; 32; 33) and not based on a detection value generated by a detection element not traversed by the x-ray (22; 32; 33). - a detection values providing device for providing detection values, which have been generated by using a radiation device and a detector while a rotation device (1, 8) has rotated at least the radiation device and the subject relative to each other around a rotational axis, wherein the radiation device is adapted to provide a cone beam formed by x-rays (21; 34) and the detector comprises a three-dimensional arrangement of detection elements, wherein the detection elements are arranged for being traversed by the x-rays (21; 34) and are adapted to generate detection values depending on the x-rays (21; 34) having traversed the detection elements, - a projection values determination device for determining projection values, wherein the projection values determination device is adapted to determine a projection value for an x-ray (22; 32; 33) based on a detection value generated by a detection element traversed by the x-ray (22; 32; 33) and not based on a detection value generated by a detection element not traversed by the x-ray (22; 32; 33).
A waterborne adhesive composition comprising a vinyl polymer, that is a polymer in which 90% or more by weight, based on the weight of the polymer, is polymerized units of one or more vinyl monomer, wherein said vinyl polymer comprises (a) 0 to 0.4% polymerized units of carboxyl functional monomer, by weight based on the weight of said vinyl polymer, (b) 0.1% to 10% polymerized units of sulfonic acid functional monomer, by weight based on the weight of said vinyl polymer, and (c) 5% to 60% polymerized units of nonionic aromatic vinyl monomer, by weight based on the weight of said vinyl polymer. (a) 0 to 0.4% polymerized units of carboxyl functional monomer, by weight based on the weight of said vinyl polymer, (b) 0.1% to 10% polymerized units of sulfonic acid functional monomer, by weight based on the weight of said vinyl polymer, and (c) 5% to 60% polymerized units of nonionic aromatic vinyl monomer, by weight based on the weight of said vinyl polymer.
A method for using 2-butanol as the hydrogen source for a conversion reaction, the method comprising: dehydrogenating 2-butanol to yield 2-butanone; wherein hydrogen removed from the 2-butanol during the dehydrogenating is the hydrogen source for the conversion reaction; and wherein the conversion reaction comprises hydrogenation, hydrogenolysis, or hydrodeoxygenation.
A medical dressing comprising an absorbent adhesive layer having a skin-facing surface and a non-skin-facing surface, the non-skin-facing surface being provided with a backing layer, the skin-facing surface being interrupted by a pattern of cavities in the absorbent adhesive layer, and wherein the absorbent adhesive layer comprises hydrocolloids and a pharmaceutically active agent, the active agent being distributed homogenously in the adhesive layer, wherein the pattern of cavities is a network of interconnected cavities.
Control method for a steering system with electrical power assistance, comprising: - a steering wheel which is controlled by a driver, - an electric servo motor, - an electric control unit which contains a memory for storing digital data, - a motor controller which on the basis of a target motor torque (T RA) sent to the motor controller determines electrical signals to control the servo motor and transmits these to the servo motor, - at least one sensor device to determine a control value (T RS) applied to the steering wheel such as a manually applied torque, - which in the control unit with the aid of the control value (T RS) a default value (T RM) is determined for a motor torque of the servo motor, - a limiting component in which an upper limit (max) for the target torque (T RA) is stored and - for a case A in which the default value (T RM) exceeds the upper limit (max), the limiting component transmits the upper limit (max) as the target torque (T RA) to the motor controller and - for a case B in which the default value (T RM) does not exceed the upper limit (max) the limiting component transmits the target value as the target torque to the motor controller, - characterised in that a damping component and a stabilisation component are provided which generate damping and stabilisation signals, whereby the total of the output signals of the limiting component, the damping component and the stabilisation component is output as the target motor torque (T RA) to the motor controller. - a steering wheel which is controlled by a driver, - an electric servo motor, - an electric control unit which contains a memory for storing digital data, - a motor controller which on the basis of a target motor torque (T RA) sent to the motor controller determines electrical signals to control the servo motor and transmits these to the servo motor, - at least one sensor device to determine a control value (T RS) applied to the steering wheel such as a manually applied torque, - which in the control unit with the aid of the control value (T RS) a default value (T RM) is determined for a motor torque of the servo motor, - a limiting component in which an upper limit (max) for the target torque (T RA) is stored and - for a case A in which the default value (T RM) exceeds the upper limit (max), the limiting component transmits the upper limit (max) as the target torque (T RA) to the motor controller and - for a case B in which the default value (T RM) does not exceed the upper limit (max) the limiting component transmits the target value as the target torque to the motor controller, - characterised in that a damping component and a stabilisation component are provided which generate damping and stabilisation signals, whereby the total of the output signals of the limiting component, the damping component and the stabilisation component is output as the target motor torque (T RA) to the motor controller.
A particle enhanced agglutination immunoassay comprising the steps of: mixing a sample solution containing an analyte with a solution containing insoluble carrier particles carrying a binding partner or binding partners for the analyte to prepare a mixed solution; determining a variation (i) in intensity of light scattered from the mixed solution based on a difference in intensity of scattered light between first and second time points; determining a variation (ii) in absorbance of the mixed solution based on a difference in absorbance between third and fourth time points; and correlating the determined variation (i) in intensity of scattered light and the determined variation (ii) in absorbance with an amount of the analyte present in the sample using a calibration curve plotted based on the variation in intensity of scattered light and a calibration curve plotted based on the variation in absorbance, wherein at a low concentration of analyte the concentration is determined based on the calibration curve plotted based on the measurement of the intensity of scattered light and at a high concentration of analyte the concentration is determined based on the calibration curve plotted based on the measurement of the absorbance, and the measurements are combined in a single assay to achieve an assay with increased sensitivity and an expanded dynamic range. mixing a sample solution containing an analyte with a solution containing insoluble carrier particles carrying a binding partner or binding partners for the analyte to prepare a mixed solution; determining a variation (i) in intensity of light scattered from the mixed solution based on a difference in intensity of scattered light between first and second time points; determining a variation (ii) in absorbance of the mixed solution based on a difference in absorbance between third and fourth time points; and correlating the determined variation (i) in intensity of scattered light and the determined variation (ii) in absorbance with an amount of the analyte present in the sample using a calibration curve plotted based on the variation in intensity of scattered light and a calibration curve plotted based on the variation in absorbance, wherein at a low concentration of analyte the concentration is determined based on the calibration curve plotted based on the measurement of the intensity of scattered light and at a high concentration of analyte the concentration is determined based on the calibration curve plotted based on the measurement of the absorbance, and the measurements are combined in a single assay to achieve an assay with increased sensitivity and an expanded dynamic range.
Extension device for a programmable logic controller in an industrial system, enabling and/or accelerating one or more computations (C1,...,Cn), wherein the extension device is directly connected to a camera via a peripheral interface, operative to: collect data from the camera by using the peripheral interface of the extension device and provide an indicator via a process state model that an image has been captured and now is available for further processing by a processing unit of the extension device, perform the one or more computations (C1,..., Cn) based at least in part on data from the camera, obtain one or more results (R1,...,Rn) of the one or more computations (C1,...,Cn), wherein the results (R1,...,Rn) indicate one or more states (S1,...,Sn) of the industrial system, indicate an availability of the one or more results by a status bit in the process state model, and provide the one or more results (R1,...,Rn) via the process state model shared with the programmable logic controller to control the industrial system, wherein the process state model is a data structure that comprises state representations of inputs and outputs of the programmable logic controller, the extension device further comprising a communication interface operative to exchange at least parts of the process state model between the programmable logic controller and the extension device.
Securing device for a bolt in a threaded hole, in particular a drain plug in a filter unit, - having a latch contour located on the bolt and a counter latch contour located on the threaded hole, - wherein the latch contour and counter latch contour are designed such that a latching action during mechanical screwing in or unscrewing of the bolt into or out of the threaded hole can be overcome, while an automatic loosening of the bolt is reliably prevented due to the the latching action, - wherein the latch contour or the counter latch contour comprises resilient latching tabs (7,7'), which engage with the counter latch contour or the latch contour, characterised in that the latching tabs (7,7') protrude in the axial and radial direction of the bolt. - having a latch contour located on the bolt and a counter latch contour located on the threaded hole, - wherein the latch contour and counter latch contour are designed such that a latching action during mechanical screwing in or unscrewing of the bolt into or out of the threaded hole can be overcome, while an automatic loosening of the bolt is reliably prevented due to the the latching action, - wherein the latch contour or the counter latch contour comprises resilient latching tabs (7,7'), which engage with the counter latch contour or the latch contour, characterised in that the latching tabs (7,7') protrude in the axial and radial direction of the bolt.
A control apparatus for controlling one or a plurality of motors (522_1, 522_2, 522_3, 532), the control apparatus comprising: an instruction value output unit configured to output an instruction value (172, 174) for the one or plurality of motors for each control period; and a command interpreting unit configured to sequentially interpret an application program (32, 32A) including one or a plurality of commands defining a target trajectory and to generate an internal command (166, 266) that is necessary for outputting the instruction value for each control period that is executed by the instruction value output unit, wherein the command interpreting unit is configured to calculate a passage point on the target trajectory for each period set in advance in accordance with a command included in the application program and to generate the internal command in accordance with calculated passage points characterized in that the command interpreting unit is further configured to change the period with which the passage points are calculated to a length designated by a specific command (33, 33A, 33B) in a case in which the specific command defined in advance is executed in the sequential interpretation of the application program. an instruction value output unit configured to output an instruction value (172, 174) for the one or plurality of motors for each control period; and a command interpreting unit configured to sequentially interpret an application program (32, 32A) including one or a plurality of commands defining a target trajectory and to generate an internal command (166, 266) that is necessary for outputting the instruction value for each control period that is executed by the instruction value output unit, wherein the command interpreting unit is configured to calculate a passage point on the target trajectory for each period set in advance in accordance with a command included in the application program and to generate the internal command in accordance with calculated passage points characterized in that the command interpreting unit is further configured to change the period with which the passage points are calculated to a length designated by a specific command (33, 33A, 33B) in a case in which the specific command defined in advance is executed in the sequential interpretation of the application program.
A porous separator comprising a porous layer containing a plurality of plate-type inorganic particles and a first binder polymer positioned on part or all of a surface of the plate-type inorganic particles to connect and fix between the plate-type inorganic particles; and a metal layer disposed on a surface of the porous layer; wherein the aspect ratio of the plate-type inorganic particles is 5 to 100. a porous layer containing a plurality of plate-type inorganic particles and a first binder polymer positioned on part or all of a surface of the plate-type inorganic particles to connect and fix between the plate-type inorganic particles; and a metal layer disposed on a surface of the porous layer; wherein the aspect ratio of the plate-type inorganic particles is 5 to 100.
A method of processing data of a cold chain system, the method comprising: generating, using a processing system of a touchpoint, local processor results that include travel data and options in response to a shipping container reaching the touchpoint, wherein the generating includes: receiving sensor data from sensors located at the touchpoint, wherein the sensors include foodstuff sensors and container sensors that include one or more of a temperature sensor, a vibration sensor, a liquid detection sensor, a light sensor, a sound sensor, and a pressure sensor; receiving stored data from a database located in the cold chain system; and generating the local processor results based on the sensor data and stored data; generating, using a cloud-based processing system, cloud processor results that include travel data and options in response to the shipping container reaching the touchpoint; receiving the cloud processor results and the local processor results at the shipping container; displaying the cloud processor results and the local processor results on a graphical user interface included by the shipping container; and receiving a selection by a user of a route of the shipping container based on the cloud processor results and the local processor results, wherein the selection is performed by the user at the shipping container. generating, using a processing system of a touchpoint, local processor results that include travel data and options in response to a shipping container reaching the touchpoint, wherein the generating includes: receiving sensor data from sensors located at the touchpoint, wherein the sensors include foodstuff sensors and container sensors that include one or more of a temperature sensor, a vibration sensor, a liquid detection sensor, a light sensor, a sound sensor, and a pressure sensor; receiving stored data from a database located in the cold chain system; and generating the local processor results based on the sensor data and stored data; receiving sensor data from sensors located at the touchpoint, wherein the sensors include foodstuff sensors and container sensors that include one or more of a temperature sensor, a vibration sensor, a liquid detection sensor, a light sensor, a sound sensor, and a pressure sensor; receiving stored data from a database located in the cold chain system; and generating the local processor results based on the sensor data and stored data; generating, using a cloud-based processing system, cloud processor results that include travel data and options in response to the shipping container reaching the touchpoint; receiving the cloud processor results and the local processor results at the shipping container; displaying the cloud processor results and the local processor results on a graphical user interface included by the shipping container; and receiving a selection by a user of a route of the shipping container based on the cloud processor results and the local processor results, wherein the selection is performed by the user at the shipping container.
A method for discontinuous reception operation for carrier aggregation comprising: receiving in a user equipment from a network element a first set of discontinuous reception, DRX, parameters for a first designated carrier and a second limited set of discontinuous reception parameters for a second non-designated carrier associated to the first carrier, the second set being limited to one or both of a DRX-inactivity timer and a DRX-retransmission timer; and configuring discontinuous reception parameters on the first carrier and second carrier. receiving in a user equipment from a network element a first set of discontinuous reception, DRX, parameters for a first designated carrier and a second limited set of discontinuous reception parameters for a second non-designated carrier associated to the first carrier, the second set being limited to one or both of a DRX-inactivity timer and a DRX-retransmission timer; and configuring discontinuous reception parameters on the first carrier and second carrier.
A self-igniting internal combustion engine with ether fumigation of the combustion air for vehicles, wherein for ether fumigation - feed means (1, 2, 3) for an alkanol fuel, - an exhaust gas heat exchanger, arranged in an exhaust gas recirculation line, for cooling a portion of the exhaust gas arising during the firing of the internal combustion engine and for evaporating the alkanol fuel fed while absorbing the thermal energy to be dissipated during the cooling of the exhaust gas, and - a catalyst for dehydrating the evaporated alkanol fuel to form ether, are provided, wherein the feed means (1, 2, 3), the exhaust gas heat exchanger and the catalyst are configured and connected to the combustion chamber of the internal combustion engine in a manner that a portion of the fuel required for firing the internal combustion engine can be fed by means of the ether fumigation of the combustion air, while mixing in the exhaust gas which is cooled in the exhaust gas heat exchanger and recirculated, to the combustion chamber of the internal combustion engine, and wherein line means are provided which comprise at least one exhaust gas recirculation valve and are configured and arranged in such a way that the exhaust gas cooled in the exhaust gas heat exchanger can be mixed in a controlled manner with the ether formed in the catalyst through the line means, and this exhaust gas-ether mixture can be mixed through further line means with the compressed and cooled combustion air. - feed means (1, 2, 3) for an alkanol fuel, - an exhaust gas heat exchanger, arranged in an exhaust gas recirculation line, for cooling a portion of the exhaust gas arising during the firing of the internal combustion engine and for evaporating the alkanol fuel fed while absorbing the thermal energy to be dissipated during the cooling of the exhaust gas, and - a catalyst for dehydrating the evaporated alkanol fuel to form ether,