mhurhangee/ep-ind-claims huggingface dataset:
Rotary container treatment machine (1, 2, 3, 4, 5, 6, 7, 8, 9), particularly stretch blow molding machine, preform-transport section, filler, labeler, sterilizer, rinser or transport buffer section, comprising grippers arranged at the treatment machine which grippers are adapted to handle preforms or containers during their transport and/or take-over and/or hand-out while being compulsorily transported along a predetermined transport section wherein each gripper has at least two gripper claws (15, 16, 15a, 15b, 16a) swivable about at least one swivel axis on a holder, the holder comprising at least one activatable electric or magnetic drive (18, M, S) for swivably actuating the gripper claws, the gripper claws being swivable relative to each other in opening and closing directions at least between defined gripping and release positions, wherein at least one gripper claw (15, 16, 15a, 15b, 16a) can be individually separately swiveled in the opening and/or closing direction relative to another gripper claw of the gripper by the drive (18, M, S).
An electronic device comprising: a first microphone configured to obtain external sound and produce a first signal; and a processor operatively connected to the first microphone, wherein the processor is configured to: receive the first signal from the first microphone; produce a first high-frequency signal by passing the first signal through a first high-pass filter; determine a first energy value of the first high-frequency signal; determine a second energy value of the first signal; produce a first result by comparing a product of the second energy value of the first signal and the first energy value of the first high-frequency signal with a first threshold value; and determine, based on the first result, whether the first microphone is in a blocked state in which the first microphone is physically shielded by a user's fingers or an external obj ect. a first microphone configured to obtain external sound and produce a first signal; and a processor operatively connected to the first microphone, wherein the processor is configured to: receive the first signal from the first microphone; produce a first high-frequency signal by passing the first signal through a first high-pass filter; determine a first energy value of the first high-frequency signal; determine a second energy value of the first signal; produce a first result by comparing a product of the second energy value of the first signal and the first energy value of the first high-frequency signal with a first threshold value; and determine, based on the first result, whether the first microphone is in a blocked state in which the first microphone is physically shielded by a user's fingers or an external obj ect. receive the first signal from the first microphone; produce a first high-frequency signal by passing the first signal through a first high-pass filter; determine a first energy value of the first high-frequency signal; determine a second energy value of the first signal; produce a first result by comparing a product of the second energy value of the first signal and the first energy value of the first high-frequency signal with a first threshold value; and determine, based on the first result, whether the first microphone is in a blocked state in which the first microphone is physically shielded by a user's fingers or an external obj ect.
A sensor system, comprising: a radar sensor capable of performing radar measurements; a capacitive device for storing electrical energy, the capacitive device being coupled to the radar sensor; a power supply input for connecting the sensor system to a switched-mode power supply; a switch circuit capable of selectively connecting the capacitive device to the power supply input; and characterized by a control circuit configured to control the switch circuit to: connect the capacitive device to the power supply input during a time period between two consecutive radio frequency emissions by the radar sensor; and disconnect the capacitive device from the power supply input during the radio frequency emissions by the radar sensor in order to exclusively power the radar sensor by the capacitive device during the radio frequency emissions by the radar sensor. a radar sensor capable of performing radar measurements; a capacitive device for storing electrical energy, the capacitive device being coupled to the radar sensor; a power supply input for connecting the sensor system to a switched-mode power supply; a switch circuit capable of selectively connecting the capacitive device to the power supply input; and characterized by a control circuit configured to control the switch circuit to: connect the capacitive device to the power supply input during a time period between two consecutive radio frequency emissions by the radar sensor; and disconnect the capacitive device from the power supply input during the radio frequency emissions by the radar sensor in order to exclusively power the radar sensor by the capacitive device during the radio frequency emissions by the radar sensor. connect the capacitive device to the power supply input during a time period between two consecutive radio frequency emissions by the radar sensor; and disconnect the capacitive device from the power supply input during the radio frequency emissions by the radar sensor in order to exclusively power the radar sensor by the capacitive device during the radio frequency emissions by the radar sensor.
A scroll fluid machine comprising: a crankshaft that makes a circling scroll revolve to circle around a fixed scroll fixed inside a housing; and a variable circling radius mechanism that, by pushing the circling scroll to the fixed scroll, seals a compression chamber defined by the fixed scroll and the circling scroll in a radial direction, wherein the crankshaft includes a reinforced shaft unit, a circular column-like large diameter unit, and an eccentric shaft, the reinforced shaft unit having a predetermined diameter is provided continuously at a driving device side of the circular column-like large diameter unit, the eccentric shaft projects from a shaft center of a rotating shaft in the circular column-like large diameter unit at a predetermined eccentricity ratio f, the circular column-like large diameter unit is rotatably coupled to the housing via a needle bearing, the predetermined diameter of the reinforced shaft unit is set so that a deflection amount towards a side of the eccentric shaft, while transmitting a driving force by the crankshaft, falls within an acceptable range to stably operate the variable circling radius mechanism, the scroll fluid machine characterized in that the eccentricity ratio f of the crankshaft is calculated by the following formula, and the eccentricity ratio f is set to 1≤f≤2: f = r / L, where: L = ε 2 − ρ 2 cos 2 α − ρ sin α where f indicates the eccentricity ratio of the eccentric shaft, r indicates a radius of the eccentric shaft, L indicates a distance between a center of and a driving center of the eccentric shaft, ε indicates an eccentric amount of the eccentric shaft, ρ indicates a circling radius, and α indicates an angle at which the eccentric shaft is set. a crankshaft that makes a circling scroll revolve to circle around a fixed scroll fixed inside a housing; and a variable circling radius mechanism that, by pushing the circling scroll to the fixed scroll, seals a compression chamber defined by the fixed scroll and the circling scroll in a radial direction, wherein
A storage unit for welding wire comprising: an outer case in which an outer bottom supporting part is formed in a lower end thereof and a wire accommodation part configured to accommodate a wound welding wire is formed therein; an inner case configured to come into close contact with an inner surface of the outer case, and having an inner bottom supporting part formed in a lower portion thereof; characterized in, further comprising a bottom part seated on and coupled to the outer bottom supporting part, and wherein the inner bottom supporting part is seated on the bottom part, wherein the outer case is formed by a strength reinforcement part formed at an outer side of the outer case and a shock absorption part formed at an inner side of the outer case, and the shock absorption part is formed at an inner side of the strength reinforcement part to absorb a shock from the outside. an outer case in which an outer bottom supporting part is formed in a lower end thereof and a wire accommodation part configured to accommodate a wound welding wire is formed therein; an inner case configured to come into close contact with an inner surface of the outer case, and having an inner bottom supporting part formed in a lower portion thereof; characterized in, further comprising a bottom part seated on and coupled to the outer bottom supporting part, and wherein the inner bottom supporting part is seated on the bottom part, wherein the outer case is formed by a strength reinforcement part formed at an outer side of the outer case and a shock absorption part formed at an inner side of the outer case, and the shock absorption part is formed at an inner side of the strength reinforcement part to absorb a shock from the outside.
A sensor device for a building barrier, wherein the building barrier is surrounded by a surrounding frame, the sensor device comprising: a plunger adapted to engage either the building barrier or the surrounding frame to secure the building barrier when in a closed position and to disengage either the building barrier or the surrounding frame when the building barrier is in an opened position; an adjustment mechanism, the adjustment mechanism adapted to adjust a depth of the plunger with respect to the gap between the building barrier and the surrounding frame; a switch having first and second states indicative of the closed and opened positions of the plunger, respectively; and a linkage coupling the plunger to the switch, wherein the linkage moves responsive to movement of the plunger, characterized in that the sensor further comprises means for limiting rotation of the sensor device, wherein the means for limiting rotation of the sensor device comprises: a set hole diagonally positioned from a front surface of the threaded portion; and a set screw secured in the set hole, wherein the set screw inhibits the threaded portion from rotating when the set screw is screwed into the surrounding frame. a plunger adapted to engage either the building barrier or the surrounding frame to secure the building barrier when in a closed position and to disengage either the building barrier or the surrounding frame when the building barrier is in an opened position; an adjustment mechanism, the adjustment mechanism adapted to adjust a depth of the plunger with respect to the gap between the building barrier and the surrounding frame; a switch having first and second states indicative of the closed and opened positions of the plunger, respectively; and a linkage coupling the plunger to the switch, wherein the linkage moves responsive to movement of the plunger, characterized in that the sensor further comprises means for limiting rotation of the sensor device, wherein the means for limiting rotation of the sensor device comprises: a set hole diagonally positioned from a front surface of the threaded portion; and a set screw secured in the set hole, wherein the set screw inhibits the threaded portion from rotating when the set screw is screwed into the surrounding frame. a set hole diagonally positioned from a front surface of the threaded portion; and a set screw secured in the set hole, wherein the set screw inhibits the threaded portion from rotating when the set screw is screwed into the surrounding frame.
A power supply device (100, 200, 300, 400) comprising: a battery stack configured to be formed by stacking a plurality of battery cells; a pair of end plates configured to be disposed at both ends of the battery stack in a stacking direction; a bind bar configured to have both ends coupled to the pair of end plates and fix the plurality of battery cells in the stacking direction; and a cooling plate configured to be made of metal different from metal of the bind bar and disposed on a surface of the battery stack in a thermally coupled state, the cooling plate being fixed to the battery stack via a plurality of bolts disposed in a longitudinal direction of the battery stack, characterized in that the bind bar presents a fixed region fixed to the cooling plate via the plurality of bolts and non-fixed regions, wherein the fixed region is provided at a central portion of a bent portion of the bind bar and wherein a length of the fixed region is less than or equal to 70% of a total length of the bind bar, and the non-fixed regions of the same length are not fixed to the cooling plate via the plurality of bolts, and are provided at both ends of the bent portion of the bind bar, and wherein the plurality of bolts are disposed side by side in the fixed region provided at the central portion of the bent portion of the bind bar. a battery stack configured to be formed by stacking a plurality of battery cells; a pair of end plates configured to be disposed at both ends of the battery stack in a stacking direction; a bind bar configured to have both ends coupled to the pair of end plates and fix the plurality of battery cells in the stacking direction; and a cooling plate configured to be made of metal different from metal of the bind bar and disposed on a surface of the battery stack in a thermally coupled state, the cooling plate being fixed to the battery stack via a plurality of bolts disposed in a longitudinal direction of the battery stack, characterized in that the bind bar presents a fixed region fixed to the cooling plate via the plurality of bolts and non-fixed regions, wherein the fixed region is provided at a central portion of a bent portion of the bind bar and wherein a length of the fixed region is less than or equal to 70% of a total length of the bind bar, and the non-fixed regions of the same length are not fixed to the cooling plate via the plurality of bolts, and are provided at both ends of the bent portion of the bind bar, and wherein the plurality of bolts are disposed side by side in the fixed region provided at the central portion of the bent portion of the bind bar.
A magnetic flowmeter comprising: a flowtube configured to receive process fluid flow, the flowtube having a plurality of electrodes disposed proximate an inner diameter to contact process fluid; at least one ultrasonic transducer disposed within the flowtube and configured to couple ultrasonic energy to the process fluid proximate at least one electrode; and flowmeter electronics coupled to the plurality of electrodes and the at least one ultrasonic transducer, characterized in that the flowmeter electronics is configured to detect at least partial electrode coating or buildup and responsively generate a cleaning cycle within the flowtube using the at least one ultrasonic transducer, wherein the at least one ultrasonic transducer includes a pair of ultrasonic transducers for each electrode, and wherein each pair of ultrasonic transducers includes a first ultrasonic transducer spaced from a respective electrode in a first radial direction and a second ultrasonic transducer spaced from the respective electrode in a second radial direction opposite the first radial direction. a flowtube configured to receive process fluid flow, the flowtube having a plurality of electrodes disposed proximate an inner diameter to contact process fluid; at least one ultrasonic transducer disposed within the flowtube and configured to couple ultrasonic energy to the process fluid proximate at least one electrode; and flowmeter electronics coupled to the plurality of electrodes and the at least one ultrasonic transducer, characterized in that the flowmeter electronics is configured to detect at least partial electrode coating or buildup and responsively generate a cleaning cycle within the flowtube using the at least one ultrasonic transducer, wherein the at least one ultrasonic transducer includes a pair of ultrasonic transducers for each electrode, and wherein each pair of ultrasonic transducers includes a first ultrasonic transducer spaced from a respective electrode in a first radial direction and a second ultrasonic transducer spaced from the respective electrode in a second radial direction opposite the first radial direction.
A teleoperated manipulator system comprising: a mounting base; an arm comprising a distal pitch arc portion, a pitch-adjustment actuator, a yaw-adjustment motor, and a movable link, the arm being rotatably coupled to the mounting base and driven by actuation of the yaw-adjustment motor to rotate around a yaw axis, the movable link having a proximal end and a distal end, the proximal end of the movable link being coupled to the pitch-adjustment actuator, the pitch-adjustment actuator comprising a linear actuator, the pitch arc portion defining a pitch arc having a center; a tool actuator assembly coupling coupled to translate on a curvilinear path in the pitch arc portion of the arm, the distal end of the movable link of the arm being pivotably coupled to the tool actuator assembly coupling; and a tool actuator assembly defining a space configured to receive a surgical tool, the tool actuator assembly removably coupled to the tool actuator assembly coupling, a long axis of the tool actuator assembly defining a tool insertion axis; wherein the yaw axis, the center of the pitch arc, and the tool insertion axis are coincident and define a remote center of motion of the manipulator system; and wherein the tool actuator assembly coupling comprises a roll-adjustment actuator coupled to drive the tool actuator assembly to rotate around the tool insertion axis. a mounting base; an arm comprising a distal pitch arc portion, a pitch-adjustment actuator, a yaw-adjustment motor, and a movable link, the arm being rotatably coupled to the mounting base and driven by actuation of the yaw-adjustment motor to rotate around a yaw axis, the movable link having a proximal end and a distal end, the proximal end of the movable link being coupled to the pitch-adjustment actuator, the pitch-adjustment actuator comprising a linear actuator, the pitch arc portion defining a pitch arc having a center; a tool actuator assembly coupling coupled to translate on a curvilinear path in the pitch arc portion of the arm, the distal end of the movable link of the arm being pivotably coupled to the tool actuator assembly coupling; and a tool actuator assembly defining a space configured to receive a surgical tool, the tool actuator assembly removably coupled to the tool actuator assembly coupling, a long axis of the tool actuator assembly defining a tool insertion axis; wherein the yaw axis, the center of the pitch arc, and the tool insertion axis are coincident and define a remote center of motion of the manipulator system; and wherein the tool actuator assembly coupling comprises a roll-adjustment actuator coupled to drive the tool actuator assembly to rotate around the tool insertion axis.
A system for processing audio files for radio broadcast, the system comprising: an Internet network interface (320, 440); and a first server including: a first port operatively coupled to the Internet network interface (320, 440), a memory, a processor, and a service application for execution by the processor, wherein the service application is configured to: receive a digital audio file and associated radio broadcast information via the Internet network interface (320, 440); obtain an audio file identifier using a segment of the digital audio file; forward the digital audio file to a radio broadcast system according to the radio broadcast information; receive the segment of the digital audio file and associated radio reception information via the internet network interface (320, 440); and identify the digital audio file and record the radio reception information for the identified digital audio file. an Internet network interface (320, 440); and a first server including: a first port operatively coupled to the Internet network interface (320, 440), a memory, a processor, and a service application for execution by the processor, wherein the service application is configured to: receive a digital audio file and associated radio broadcast information via the Internet network interface (320, 440); obtain an audio file identifier using a segment of the digital audio file; forward the digital audio file to a radio broadcast system according to the radio broadcast information; receive the segment of the digital audio file and associated radio reception information via the internet network interface (320, 440); and identify the digital audio file and record the radio reception information for the identified digital audio file. receive a digital audio file and associated radio broadcast information via the Internet network interface (320, 440); obtain an audio file identifier using a segment of the digital audio file; forward the digital audio file to a radio broadcast system according to the radio broadcast information; receive the segment of the digital audio file and associated radio reception information via the internet network interface (320, 440); and identify the digital audio file and record the radio reception information for the identified digital audio file.