mhurhangee/ep-ind-claims huggingface dataset:
A control system for controlling operation of an execution device, the control system comprising: a master controller; a microprocessor; and a signal line; wherein the master controller is configured to send a control signal to the microprocessor via the signal line; the microprocessor is configured to: send the control signal to the execution device to drive the execution device to operate; acquire, at a time interval, a feedback signal representing an operation state of the execution device; and send the feedback signal to the signal line; and the master controller is further configured to: acquire the feedback signal from the signal line; determine, from the feedback signal, the operation state of the execution device; and regulate the control signal based on the operation state; characterized in that, a first control module of the main controller comprises a first storage module configured to prestore a first combination list, wherein the first combination list comprises a plurality of combinations of a duration of the control signal and a duration of a low level signal; a third feedback signal is a combination of a duration of the control signal and a duration of the low level signal; and the master controller is configured to: determine the operation state of the execution device based on whether the third feedback signal is same as one of the plurality of combinations of the duration of the control signal and the duration of the low level signal in the first combination list; and regulate the control signal based on the operation state. a master controller; a microprocessor; and a signal line; wherein the master controller is configured to send a control signal to the microprocessor via the signal line; the microprocessor is configured to: send the control signal to the execution device to drive the execution device to operate; acquire, at a time interval, a feedback signal representing an operation state of the execution device; and send the feedback signal to the signal line; and the master controller is further configured to: acquire the feedback signal from the signal line; determine, from the feedback signal, the operation state of the execution device; and regulate the control signal based on the operation state; characterized in that, a first control module of the main controller comprises a first storage module configured to prestore a first combination list, wherein the first combination list comprises a plurality of combinations of a duration of the control signal and a duration of a low level signal; a third feedback signal is a combination of a duration of the control signal and a duration of the low level signal; and the master controller is configured to: determine the operation state of the execution device based on whether the third feedback signal is same as one of the plurality of combinations of the duration of the control signal and the duration of the low level signal in the first combination list; and regulate the control signal based on the operation state.
A lighting device for a motor vehicle, comprising at least one vehicle light, which is designed in such a manner that the latter emits light in an approved target color, wherein in the lighting device a projection lens with lighting means is arranged, wherein the projection lens with the lighting means is designed in such a manner that the latter emits light in a projection color, characterized in that the projection lens is designed with the lighting means in such a manner that the latter generate warning light signals for other road users, wherein at least one scattered light source of a mixed color is assigned to the lighting means, which is designed in such a manner that the scattered light portions of the lighting means are converted at the projection lens into the target color.
Heating apparatus (10, 100, 200, 300), comprising both thermochemical decomposition means configured to receive a biomass which functions as fuel and a first comburent and suitable to thermochemically decompose said biomass and produce at least one combustible gas, and also a combustion chamber configured to receive a second comburent and said at least one combustible gas and suitable to develop heat by means of a flame fed by said at least one combustible gas and which produces fumes, also comprising both conveyor means interposed between said thermochemical decomposition means and said combustion chamber to convey said at least one combustible gas to said combustion chamber, and also recirculation means to convey at least a first part of said fumes from said combustion chamber to said thermochemical decomposition means, said first part of said fumes constituting said first comburent, wherein said thermochemical decomposition means comprise a brazier substantially closed with respect to the external environment, such that the brazier does not have any apertures that allow the comburent air to enter directly from the external environment, and comprising a first entry aperture for said biomass to enter, a second entry aperture for said first comburent to enter and an exit aperture for said at least one combustible gas to exit, wherein said combustion chamber also comprises an entry aperture to receive said second comburent from the external environment and said combustible gas and said conveyor means comprise at least one conveyor compartment interposed between said exit aperture of said brazier and said entry aperture of said combustion chamber, wherein said at least one combustible gas to exit the exit aperture of the brazier is to flow directly into said conveyor compartment, which defines said conveyor means. wherein said thermochemical decomposition means comprise a brazier substantially closed with respect to the external environment, such that the brazier does not have any apertures that allow the comburent air to enter directly from the external environment, and comprising a first entry aperture for said biomass to enter, a second entry aperture for said first comburent to enter and an exit aperture for said at least one combustible gas to exit, wherein said combustion chamber also comprises an entry aperture to receive said second comburent from the external environment and said combustible gas and said conveyor means comprise at least one conveyor compartment interposed between said exit aperture of said brazier and said entry aperture of said combustion chamber, wherein said at least one combustible gas to exit the exit aperture of the brazier is to flow directly into said conveyor compartment, which defines said conveyor means.
Expanding mandrel for expanding a plastics dowel, comprising - a shaft element and - a tip element which is made of a different material to that of the shaft element and has extending from its rearward end an elongated anchor portion which is embedded in the shaft element, characterised in that the cross section of the elongated anchor portion decreases along the full length of the anchor portion along the elongated anchor portion to the rearward end of the tip element, so that the tip element ends with a tapering cross section towards its rearward end. - a shaft element and - a tip element which is made of a different material to that of the shaft element and has extending from its rearward end an elongated anchor portion which is embedded in the shaft element,
Method for playback of an original Higher-Order Ambisonics audio signal denoted HOA and assigned to a video signal that is to be presented on a current screen but was generated for an original and different screen, said method including the steps: - decoding (83, 93) an input vector A in of input HOA coefficients of said HOA signal so as to provide decoded audio signals s in in space domain for regularly positioned loudspeaker positions by calculating s in = Ψ 1 − 1 A in using the inverse Ψ 1 − 1 of a HOA mode matrix Ψ 1; - receiving or establishing reproduction adaptation information derived from the difference between said original screen and said current screen in their widths and possibly their heights and possibly their curvatures; - adapting said decoded audio signals by warping and encoding them in the space domain into an output vector A out of adapted output HOA coefficients by calculating A out = Y 2 s in, wherein the mode vectors of mode matrix Ψ 1 are modified according to a warping function by which the angles of the original loudspeaker positions for said original screen are in the HOA coefficients output vector A out mapped into the target angles of the target loudspeaker positions for the current screen, wherein said reproduction adaption information controls said warping such that for a current-screen watcher and listener of said adapted decoded audio signals, the perceived position of at least one audio object represented by said adapted decoded audio signals matches the perceived position of related video object on said screen; - rendering and outputting for loudspeakers the adapted audio signals in space domain. - decoding (83, 93) an input vector A in of input HOA coefficients of said HOA signal so as to provide decoded audio signals s in in space domain for regularly positioned loudspeaker positions by calculating s in = Ψ 1 − 1 A in using the inverse Ψ 1 − 1 of a HOA mode matrix Ψ 1; - receiving or establishing reproduction adaptation information derived from the difference between said original screen and said current screen in their widths and possibly their heights and possibly their curvatures; - adapting said decoded audio signals by warping and encoding them in the space domain into an output vector A out of adapted output HOA coefficients by calculating A out = Y 2 s in, wherein the mode vectors of mode matrix Ψ 1 are modified according to a warping function by which the angles of the original loudspeaker positions for said original screen are in the HOA coefficients output vector A out mapped into the target angles of the target loudspeaker positions for the current screen, wherein said reproduction adaption information controls said warping such that for a current-screen watcher and listener of said adapted decoded audio signals, the perceived position of at least one audio object represented by said adapted decoded audio signals matches the perceived position of related video object on said screen; - rendering and outputting for loudspeakers the adapted audio signals in space domain.
A heat exchanger comprising: a plurality of heat exchange function surface units; an upper header pipe; and a lower header pipe, the plurality of heat exchange function surface units having the upper header pipe, the lower header pipe, and a plurality of heat exchange pipes provided between a pair of the upper header pipe and the lower header pipe; the plurality of heat exchange function surface units having a parallel connection relationship; a plurality of the lower header pipes being connected to a lower collection pipe through a branch current adjusting section; wherein the branch current adjusting section comprises a distributer and at least one flow rate adjusting section; wherein the distributer is provided between the lower collection pipe and the plurality of the lower header pipes, and equalizes a dryness of refrigerant to be supplied to the plurality of the lower header pipes; wherein the at least one flow rate adjusting section is arranged between the distributer and a corresponding one of the plurality of the lower header pipes; and characterized by the each of the plurality of the lower header pipes having a perforated pipe, the perforated pipe including distribution holes being arranged approximately in the lower section of the perforated pipe. a plurality of heat exchange function surface units; an upper header pipe; and a lower header pipe, the plurality of heat exchange function surface units having the upper header pipe, the lower header pipe, and a plurality of heat exchange pipes provided between a pair of the upper header pipe and the lower header pipe; the plurality of heat exchange function surface units having a parallel connection relationship; a plurality of the lower header pipes being connected to a lower collection pipe through a branch current adjusting section; wherein the branch current adjusting section comprises a distributer and at least one flow rate adjusting section; wherein the distributer is provided between the lower collection pipe and the plurality of the lower header pipes, and equalizes a dryness of refrigerant to be supplied to the plurality of the lower header pipes; wherein the at least one flow rate adjusting section is arranged between the distributer and a corresponding one of the plurality of the lower header pipes; and characterized by the each of the plurality of the lower header pipes having a perforated pipe, the perforated pipe including distribution holes being arranged approximately in the lower section of the perforated pipe.
A method of registering a security sensor device with a product device to be protected via the security sensor device, the method comprising: obtaining, by a networked computing device, sensor data identifying the security sensor device and comprising a sensor timestamp for an alteration in power delivery to the security sensor device; obtaining, by the networked computing device, product data identifying the product device and comprising a product timestamp for an alteration in power delivery to the product device; implementing, by the networked computing device, a comparison of the sensor timestamp and the product timestamp; and generating, by the networked computing device, registration data for the security sensor device and the product device based on the comparison, the registration data associating the security sensor device and the product device. obtaining, by a networked computing device, sensor data identifying the security sensor device and comprising a sensor timestamp for an alteration in power delivery to the security sensor device; obtaining, by the networked computing device, product data identifying the product device and comprising a product timestamp for an alteration in power delivery to the product device; implementing, by the networked computing device, a comparison of the sensor timestamp and the product timestamp; and generating, by the networked computing device, registration data for the security sensor device and the product device based on the comparison, the registration data associating the security sensor device and the product device.
The use of a crack detection composition for defect recognition by the intrusion method, wherein it is a microemulsion comprising: A) at least 10% by weight of water A), B) at least 0.1% by weight of at least one dye B) which has a solubility in water of less than 0.1 g/l at 20°C under atmospheric pressure, C) at least 5% by weight of at least one substantially water-insoluble liquid phase C), where the solubility of the substantially water-insoluble or water-insoluble organic compounds of the substantially water-insoluble phase C) at 20°C under atmospheric pressure is not more than 60 g/l in distilled water, and D) at least 2% by weight of at least one surfactant D) selected from among nonionic, anionic and amphoteric surfactants, where the sum of all constituents is 100% by weight, where the crack detection composition has an average particle size in the range from 1 to 250 nm measured by means of a Zetasizer Nano-ZS from Malvern and also a transparency of at least 70% at 600 nm in a fused silica cell having a 10 mm path length of the liquid through which light passes at a temperature of 20°C under atmospheric pressure measured by means of a CADA 100-V photometer from Hach Lange GmbH on a similar microemulsion which however does not comprise any dye except in the case of yellow-fluorescing crack detection compositions. A) at least 10% by weight of water A), B) at least 0.1% by weight of at least one dye B) which has a solubility in water of less than 0.1 g/l at 20°C under atmospheric pressure, C) at least 5% by weight of at least one substantially water-insoluble liquid phase C), where the solubility of the substantially water-insoluble or water-insoluble organic compounds of the substantially water-insoluble phase C) at 20°C under atmospheric pressure is not more than 60 g/l in distilled water, and D) at least 2% by weight of at least one surfactant D) selected from among nonionic, anionic and amphoteric surfactants,
A vehicle steering wheel assembly, comprising a steering wheel, a control component, a rotation measuring component for measuring the rotation condition of the steering wheel, and a road sense simulator for applying a resistance torque to the rotation of the steering wheel according to the rotation condition of the steering wheel; a steering column is disposed under the steering wheel, wherein the upper end of the steering column is connected to the steering wheel, and the lower end of the steering column is connected to the road sense simulator, and the road sense simulator is fixed to the vehicle body of the vehicle; the rotation measuring component and the road sense simulator are both connected to the control component, and the control component controls the road sense simulator to apply the resistance torque to the rotation of the steering wheel according to the measurement data of the rotation measuring component, wherein the control component is configured to send a steering command to the steering mechanisms of the wheels to perform steering according to the received rotation condition of the steering wheel, characterized in that the control component is configured to receive the actual wheel rotation resistance at the time of steering, and wherein the control component is configured to transmit a control signal to the road sense simulator according to the actual wheel rotation resistance, and wherein the road sense simulator is configured to apply a resistance torque to the rotation of the steering wheel according to the received control signal.
Device for controlled translational displacement, and optionally rotational displacement, of an elongated element that terminates in a frontal functional end, in particular an instrument or a tool that is designed to be brought to an internal site in a patient, more particularly an exploratory instrument or a surgical tool placed in a catheter or in an operating channel or working channel of a flexible endoscope, whereby said device comprises a linear actuator that acts at the rear end of the elongated element that is located opposite its frontal functional end and outside of the patient, said actuator consisting of a direct-drive electromagnetic linear motor that comprises a shaft that moves in translation relative to a stator and that drives the elongated element, characterized in that said elongated element passes through said linear motor, in that said shaft that moves in translation consists either of a hollow tube that is provided with permanent magnets and through which the elongated element passes, whereby the latter is made integral by magnetization or by tightening with said tubular movable shaft, or of a portion of the elongated element incorporating a plurality of permanent magnets in series, and in that the rear end of the elongated element comprises a portion extending beyond the linear motor, possibly beyond the tubular moving shaft, and provided with at least one organ (8, 8') that makes possible the manual manipulation in translation and/or in rotation of the elongated element, in cooperation with the linear motor or in support or in replacement of the latter.
A medical device, comprising: an elongate shaft having a distal end region; a balloon coupled to the distal end region; a cutting member (20, 120, 220, 320, 420, 520) coupled to the balloon, the cutting member having a cutting surface, a base, a first segment (44a, 144a, 244a, 544a), a second segment (44b, 144b, 244b, 544b), and a bridge segment (46, 146a, 246, 346, 446, 546) extending between the first segment and the second segment, wherein the bridge segment is configured to yield when flexed beyond a selected curvature during use; and a joining member disposed adjacent the base of the cutting member and coupled to the balloon; wherein the joining member encapsulates the bridge segment; wherein the bridge segment is configured to separate from the first segment, the second segment, or both during use of the medical device. an elongate shaft having a distal end region; a balloon coupled to the distal end region; a cutting member (20, 120, 220, 320, 420, 520) coupled to the balloon, the cutting member having a cutting surface, a base, a first segment (44a, 144a, 244a, 544a), a second segment (44b, 144b, 244b, 544b), and a bridge segment (46, 146a, 246, 346, 446, 546) extending between the first segment and the second segment, wherein the bridge segment is configured to yield when flexed beyond a selected curvature during use; and a joining member disposed adjacent the base of the cutting member and coupled to the balloon; wherein the joining member encapsulates the bridge segment; wherein the bridge segment is configured to separate from the first segment, the second segment, or both during use of the medical device.
A computer system, comprising: a memory controller; a non-volatile dual in-line memory module (NVDIMM) connected to the memory controller by a bus, the NVDIMM having a non-volatile memory for storing data and a media controller; the memory controller being configured to: send, to the media controller of the NVDIMM, a read command for reading first data stored in the NVDIMM, the first data comprising multiple data subblocks, wherein the read command comprises an identifier identifying the read command; receive, from the media controller, multiple ready signals, each of the multiple ready signals notifying the memory controller that one of the multiple data subblocks of the first data is available; send, to the media controller, multiple send commands for fetching the multiple data subblocks, each of the multiple send commands being in response to one of the multiple ready signals; and receive, from the media controller, the multiple data subblocks of the first data, wherein each of the multiple data subblocks is received with the identifier identifying the read command. a memory controller; a non-volatile dual in-line memory module (NVDIMM) connected to the memory controller by a bus, the NVDIMM having a non-volatile memory for storing data and a media controller; the memory controller being configured to: send, to the media controller of the NVDIMM, a read command for reading first data stored in the NVDIMM, the first data comprising multiple data subblocks, wherein the read command comprises an identifier identifying the read command; receive, from the media controller, multiple ready signals, each of the multiple ready signals notifying the memory controller that one of the multiple data subblocks of the first data is available; send, to the media controller, multiple send commands for fetching the multiple data subblocks, each of the multiple send commands being in response to one of the multiple ready signals; and receive, from the media controller, the multiple data subblocks of the first data, wherein each of the multiple data subblocks is received with the identifier identifying the read command. send, to the media controller of the NVDIMM, a read command for reading first data stored in the NVDIMM, the first data comprising multiple data subblocks, wherein the read command comprises an identifier identifying the read command; receive, from the media controller, multiple ready signals, each of the multiple ready signals notifying the memory controller that one of the multiple data subblocks of the first data is available; send, to the media controller, multiple send commands for fetching the multiple data subblocks, each of the multiple send commands being in response to one of the multiple ready signals; and receive, from the media controller, the multiple data subblocks of the first data, wherein each of the multiple data subblocks is received with the identifier identifying the read command.