mhurhangee/ep-ind-claims huggingface dataset:
A receiving device comprising: a dividing circuit configured to divide an input signal (Sin) into N pieces of divided signals (Sin1, Sin2; Sin1...SinN), where N is an integer of three or larger; N pieces of internal circuits (11, 12; 11...1N; 51, 52) configured to receive and process the N pieces of divided signals (Sin1, Sin2; Sin1...SinN); and an averaging circuit configured to receive N pieces of output signals (So1, So2; So1...SoN) from the N pieces of internal circuits (11, 12; 11...1N; 51, 52), averaging the output signals, and output an averaged signal (Soav), characterized in that the dividing circuit includes N-1 pieces of dividers (31...3 (N-1)), and divides the input signal (Sin) into the N pieces of divided signals (Sin1, Sin2, Sin1...SinN) so that the divided signals have powers (Pin1, Pin2, Pin1...PinN) different from each other, and each of the dividers divides a dividing-target signal (Sin, Sin2,...,Sin(N-1)) which is supplied into two divided signals (Sin1, Sin2, Sin3,...,SinN) having powers different from each other in accordance with a predetermined dividing ratio so as to enlarge the dynamic range of each of the internal circuits, wherein the divider in the first stage divides the input signal and wherein the divider in the (N-1) stage receives, as the dividing-target signal, one of the two divided signals divided from the divider in the (N-2) stage. a dividing circuit configured to divide an input signal (Sin) into N pieces of divided signals (Sin1, Sin2; Sin1...SinN), where N is an integer of three or larger; N pieces of internal circuits (11, 12; 11...1N; 51, 52) configured to receive and process the N pieces of divided signals (Sin1, Sin2; Sin1...SinN); and an averaging circuit configured to receive N pieces of output signals (So1, So2; So1...SoN) from the N pieces of internal circuits (11, 12; 11...1N; 51, 52), averaging the output signals, and output an averaged signal (Soav), characterized in that the dividing circuit includes N-1 pieces of dividers (31...3 (N-1)), and divides the input signal (Sin) into the N pieces of divided signals (Sin1, Sin2, Sin1...SinN) so that the divided signals have powers (Pin1, Pin2, Pin1...PinN) different from each other, and each of the dividers divides a dividing-target signal (Sin, Sin2,...,Sin(N-1)) which is supplied into two divided signals (Sin1, Sin2, Sin3,...,SinN) having powers different from each other in accordance with a predetermined dividing ratio so as to enlarge the dynamic range of each of the internal circuits, wherein the divider in the first stage divides the input signal and wherein the divider in the (N-1) stage receives, as the dividing-target signal, one of the two divided signals divided from the divider in the (N-2) stage.
A method of treating a subterranean formation, the method comprising: placing in a subterranean formation a composition comprising: a coated nanoparticle comprising: a nanoparticle; a linker comprising a silane anchoring group and polyethylenimine, and a stabilizing group, wherein the silane anchoring group is covalently bound to the nanoparticle and at least one amine of the polyethylenimine is covalently bound to the stabilizing group, and wherein the stabilizing group comprises a functional group selected from the group consisting of: and combinations thereof, and an ion. placing in a subterranean formation a composition comprising: a coated nanoparticle comprising: a nanoparticle; a linker comprising a silane anchoring group and polyethylenimine, and a stabilizing group, a nanoparticle; a linker comprising a silane anchoring group and polyethylenimine, and a stabilizing group, wherein the silane anchoring group is covalently bound to the nanoparticle and at least one amine of the polyethylenimine is covalently bound to the stabilizing group, and wherein the stabilizing group comprises a functional group selected from the group consisting of: and combinations thereof, and an ion.
A method for performing a random access procedure by a user equipment in a wireless communication system, the method comprising: receiving information regarding a narrowband physical random access channel, NPRACH, format; and transmitting a random access preamble based on the information regarding the NPRACH format, characterized in that wherein the information regarding the NPRACH format is a narrow band physical downlink control channel, NPDCCH, order including a preamble format indicator indicating a first NPRACH format or a second NPRACH format, and wherein a first symbol group of the first NPRACH format is configured with a first sequence part of 5 symbols and a first cyclic prefix, CP, a second symbol group of the second NPRACH format is configured with a second sequence part of 3 symbols and a second CP, each of the first symbol group and the second symbol group comprises 6 symbols, and a ratio of the first CP-to-the first sequence part in the first symbol group is smaller than a ratio of the second CP-to-the second sequence part in the second symbol group. receiving information regarding a narrowband physical random access channel, NPRACH, format; and transmitting a random access preamble based on the information regarding the NPRACH format, characterized in that wherein the information regarding the NPRACH format is a narrow band physical downlink control channel, NPDCCH, order including a preamble format indicator indicating a first NPRACH format or a second NPRACH format, and wherein a first symbol group of the first NPRACH format is configured with a first sequence part of 5 symbols and a first cyclic prefix, CP, a second symbol group of the second NPRACH format is configured with a second sequence part of 3 symbols and a second CP, each of the first symbol group and the second symbol group comprises 6 symbols, and a ratio of the first CP-to-the first sequence part in the first symbol group is smaller than a ratio of the second CP-to-the second sequence part in the second symbol group.
An array antenna, comprising: a substantially planar array of antenna elements (215, 225); and a feed module comprising a multi-layer printed circuit board, PCB, structure having a body portion and extended portions in the form of pillars, each extended portion for connection to an antenna element (215, 225), the body portion and the extended portions comprising multiple PCB-layers, the body portion of the multi-layer PCB structure incorporating coupling components (400, 405; 500, 505) and line sections for linking a plurality of first connection points of the feed module to a corresponding plurality of second connection points provided on the extended portions for connecting to respective antenna elements (215, 225) of the array antenna, wherein the coupling components (400, 405; 500, 505) and the line sections are formed within planar layers of the multi-layer PCB structure and the layers of the multi-layer PCB structure are oriented substantially perpendicular to the antenna elements of the array antenna with which the feed module is integrated. a substantially planar array of antenna elements (215, 225); and a feed module comprising a multi-layer printed circuit board, PCB, structure having a body portion and extended portions in the form of pillars, each extended portion for connection to an antenna element (215, 225), the body portion and the extended portions comprising multiple PCB-layers, the body portion of the multi-layer PCB structure incorporating coupling components (400, 405; 500, 505) and line sections for linking a plurality of first connection points of the feed module to a corresponding plurality of second connection points provided on the extended portions for connecting to respective antenna elements (215, 225) of the array antenna, wherein the coupling components (400, 405; 500, 505) and the line sections are formed within planar layers of the multi-layer PCB structure and the layers of the multi-layer PCB structure are oriented substantially perpendicular to the antenna elements of the array antenna with which the feed module is integrated.
A fluid control valve comprising: a cover portion with a first inner surface, the cover portion including a central section and an inversion inhibitor circumscribing the central section; a body portion with a second inner surface, the first and second inner surfaces defining a chamber when the cover portion and the body portion are joined, the inversion inhibitor projecting into the chamber toward a central axis of the chamber, and a diaphragm disposed between the cover portion and the body portion, the diaphragm including a flexible member disposed in the chamber and having a first position in which the flexible member is inverted to define a passageway to permit communication between an inlet and an outlet and a second position to prevent fluid communication between the inlet and the outlet, wherein the inversion inhibitor is a deviation from a surface curvature of the central section that is greatest at an edge of the cover portion adjacent to the diaphragm, wherein further the deviation decreases to zero in a direction towards the central section, the surface curvature of the central section being defined by a radius that is constant, wherein, at the first position, the inversion inhibitor prevents the flexible member from reaching its natural-inverted position and creates a force within the flexible member that urges the flexible member from the first position to the second position. a cover portion with a first inner surface, the cover portion including a central section and an inversion inhibitor circumscribing the central section; a body portion with a second inner surface, the first and second inner surfaces defining a chamber when the cover portion and the body portion are joined, the inversion inhibitor projecting into the chamber toward a central axis of the chamber, and a diaphragm disposed between the cover portion and the body portion, the diaphragm including a flexible member disposed in the chamber and having a first position in which the flexible member is inverted to define a passageway to permit communication between an inlet and an outlet and a second position to prevent fluid communication between the inlet and the outlet, wherein the inversion inhibitor is a deviation from a surface curvature of the central section that is greatest at an edge of the cover portion adjacent to the diaphragm, wherein further the deviation decreases to zero in a direction towards the central section, the surface curvature of the central section being defined by a radius that is constant, wherein, at the first position, the inversion inhibitor prevents the flexible member from reaching its natural-inverted position and creates a force within the flexible member that urges the flexible member from the first position to the second position.
Welding torch maintenance apparatus for servicing a welding torch, the welding torch including a diffuser, a welding tip, and a nozzle having a distal end and a proximal end, the proximal end of the nozzle being attached to a welding arm of the welding torch, the apparatus comprising: a programmable control unit that interfaces with a robot control system; a first gripping means for fastening the welding arm of the welding torch; a second gripping means for holding the nozzle, wherein the second gripping means is rotatable about a rotational axis to remove the nozzle from the welding torch, and wherein the second gripping means is movable along the rotational axis; a drive means for rotating the second gripping means; a lift system for moving the second gripping means along the rotational axis, wherein the second gripping means is configured to rotate about the rotational axis and move along the rotational axis simultaneously under the control of the programmable control unit; and a cleaning means configured to enter the interior of the nozzle from the distal end and cleans the interior of the nozzle. a programmable control unit that interfaces with a robot control system; a first gripping means for fastening the welding arm of the welding torch; a second gripping means for holding the nozzle, wherein the second gripping means is rotatable about a rotational axis to remove the nozzle from the welding torch, and wherein the second gripping means is movable along the rotational axis; a drive means for rotating the second gripping means; a lift system for moving the second gripping means along the rotational axis, wherein the second gripping means is configured to rotate about the rotational axis and move along the rotational axis simultaneously under the control of the programmable control unit; and a cleaning means configured to enter the interior of the nozzle from the distal end and cleans the interior of the nozzle.
A particulate matter detection device for measuring particulates in a gaseous body, the device comprising: frequency control means for controlling the frequency of an AC voltage applied to a pair of electrodes disposed apart from each other; AC impedance detection means for detecting impedances to different frequencies when AC voltages having the different frequencies are applied; component calculation means for calculating a resistance component and/or a capacitance component of the impedances to the different frequencies; and particulate diameter estimation means for estimating the average diameter and/or the number of particulates in the gaseous body based on changes in the resistance component and/or changes in the capacitance component, the changes are attributable to particulate matter that is disposed on the electrodes characterized in that when calculating the resistance component and/or the capacitance component, which each include an intraparticle component (R1, C1) and a particle boundary component (R2, C2), the component calculation means calculates the intraparticle component (R1, C1), which is attributable to the internal characteristics of particulates, and the particle boundary component (R2, C2), which is attributable to the interfacial characteristics between particulates, and wherein the particulate diameter estimation means estimates the average diameter and/or the number of particulates in accordance with the result of comparison between the intraparticle component and the particle boundary component. frequency control means for controlling the frequency of an AC voltage applied to a pair of electrodes disposed apart from each other; AC impedance detection means for detecting impedances to different frequencies when AC voltages having the different frequencies are applied; component calculation means for calculating a resistance component and/or a capacitance component of the impedances to the different frequencies; and particulate diameter estimation means for estimating the average diameter and/or the number of particulates in the gaseous body based on changes in the resistance component and/or changes in the capacitance component, the changes are attributable to particulate matter that is disposed on the electrodes
A method for measuring a wireless quality of a wireless network in a mobile communication system composed of a wireless quality analysis server 200) for analyzing the wireless quality, a mobile switching center and a base station controller, the method comprising: a) the wireless quality analysis server 200) setting a range of cells to collect data for wireless quality measurement and transmitting related information to the base station controller; b) the base station controller transmitting a wireless quality measurement request to a subscriber terminal having call setup in the range of cells; c) the base station controller receiving a wireless quality measurement report from the subscriber terminal; and d) the base station controller extracting data for wireless quality measurement from the wireless quality measurement report and transmitting the extracted data to the wireless quality analysis server 200); wherein, in the step b), the base station controller (1 1) transmits a plurality of the wireless quality measurement requests, each such request being for collection of a different type of data for wireless quality measurement, and wherein, in the step c), the base station controller (1 1) receives a single wireless quality measurement report including all types of data for wireless quality measurement in response to the plurality of the wireless quality measurement requests. a) the wireless quality analysis server 200) setting a range of cells to collect data for wireless quality measurement and transmitting related information to the base station controller; b) the base station controller transmitting a wireless quality measurement request to a subscriber terminal having call setup in the range of cells; c) the base station controller receiving a wireless quality measurement report from the subscriber terminal; and d) the base station controller extracting data for wireless quality measurement from the wireless quality measurement report and transmitting the extracted data to the wireless quality analysis server 200);
An active antenna arrangement, comprising a plurality of TRX module sets and an active antenna controller for controlling the TRX module sets; each TRX module set comprising at least one antenna element (1,1') for radiating RF signals, characterized in that each TRX module set further comprises: at least one master TRX module, at least one slave TRX module, each one operable to be switched on/off by the active antenna controller according to traffic load requirements; the active antenna arrangement being configured such that, when in use, the or each master TRX module is active and radiating at least a corresponding minimum output power. at least one master TRX module, at least one slave TRX module, each one operable to be switched on/off by the active antenna controller according to traffic load requirements; the active antenna arrangement being configured such that, when in use, the or each master TRX module is active and radiating at least a corresponding minimum output power.
Method, in particular method for controlling a harvesting machine, in which a sensor unit (10; 10a, 22a) senses at least one state characteristic variable of a roller bearing and transmits data of the sensing process to at least one evaluation unit (14; 14a) which analyses the data, wherein at least one method procedure is started as a function of at least one result which is achieved during the analysis, wherein the method procedure is at least controlling at least one operating parameter of a harvesting machine (16; 16a, 24a) which, together with the sensing process of the sensor unit (10; 10a, 22a), forms a control loop.
A three-dimensional optical waveguide, comprising a lamination of at least: a first planar substrate (1, 61, 71) having a planar optical waveguide (2, 62, 72), the planar optical waveguide being on the top surface of the first planar substrate; and a second planar substrate (3, 63, 73) having a lens layer of forming glass, and optionally an isolator layer or a filter layer, wherein a lens (4, 64, 74) is integrally formed of forming glass in the lens layer, wherein the planar optical waveguide (2, 62, 72) comprises a reflecting surface (13, 713) configured so that light passes through the lens layer (3, 63, 73), and, if present, through the isolator layer and the filter layer; characterised in that the first planar substrate (1, 61, 71) is made of forming glass, and both the first (1, 61, 71) and the second (3, 63, 73) planar substrates comprise markers (101, 103) of forming glass having a convex or concave shape and having the property of being transparent to light. a first planar substrate (1, 61, 71) having a planar optical waveguide (2, 62, 72), the planar optical waveguide being on the top surface of the first planar substrate; and a second planar substrate (3, 63, 73) having a lens layer of forming glass, and optionally an isolator layer or a filter layer, wherein a lens (4, 64, 74) is integrally formed of forming glass in the lens layer, wherein the planar optical waveguide (2, 62, 72) comprises a reflecting surface (13, 713) configured so that light passes through the lens layer (3, 63, 73), and, if present, through the isolator layer and the filter layer; characterised in that the first planar substrate (1, 61, 71) is made of forming glass, and both the first (1, 61, 71) and the second (3, 63, 73) planar substrates comprise markers (101, 103) of forming glass having a convex or concave shape and having the property of being transparent to light.
A system for electronic patient care, the system comprising: a hub or monitoring client configured to monitor a patient-care device, the hub or monitoring client comprising: a sandbox component configured to control access to at least one of a hardware resource and a software resource; wherein the hub or monitoring client is further configured to identify the patient-care device and execute an application to monitor the patient-care device, and wherein the hub or monitoring client executes the application within the sandbox component such that the application accesses the at least one of the hardware resource and the software resource through the sandbox component, wherein the sandbox component is configured to prioritize access to the at least one of the hardware resource and the software resource, wherein, if multiple applications request access to an alarm device or variable that indicates an alarm condition, the sandbox component is configured to prioritize the sources of the requests and generate a prioritized list of alarm causes, wherein the alarm condition is disableable based on the prioritized list of alarm causes, wherein the hub or monitoring client configured to communicate with electronic medical records, wherein the hub or monitoring client is configured to identify a patient and the patient-care device, and wherein the hub or monitoring client is configured to download at least one treatment parameter from the electronic medical records and program the patient-care device with the at least one treatment parameter. a sandbox component configured to control access to at least one of a hardware resource and a software resource; wherein the hub or monitoring client is further configured to identify the patient-care device and execute an application to monitor the patient-care device, and wherein the hub or monitoring client executes the application within the sandbox component such that the application accesses the at least one of the hardware resource and the software resource through the sandbox component, wherein the sandbox component is configured to prioritize access to the at least one of the hardware resource and the software resource, wherein, if multiple applications request access to an alarm device or variable that indicates an alarm condition, the sandbox component is configured to prioritize the sources of the requests and generate a prioritized list of alarm causes, wherein the alarm condition is disableable based on the prioritized list of alarm causes, wherein the hub or monitoring client configured to communicate with electronic medical records, wherein the hub or monitoring client is configured to identify a patient and the patient-care device, and wherein the hub or monitoring client is configured to download at least one treatment parameter from the electronic medical records and program the patient-care device with the at least one treatment parameter.