mhurhangee/ep-ind-claims huggingface dataset:
A radiotherapy treatment system (100, 200, 300, 800) comprising: a computer system; an electron emission device (105, 205, 305) for producing and emitting an electron beam; a target (125, 215, 315, 515, 605, 705); a plurality of steering coils (120, 210, 310, 815) for providing magnetic fields in perpendicular directions for steering said electron beam to said target (125, 215, 315, 515, 605, 705), wherein said target generates x-rays responsive to interaction with said electron beam; and a field shaping device configured to be placed between said target (125, 215, 315, 515, 605, 705 and a patient (230, 330, 405), said field shaping device operable to shape a treatment volume of said x-rays, characterized in that: said computer system comprises instructions, that when executed, cause said computer system to control said plurality of steering coils (120, 210, 310, 815) to scan said electron beam across said target (125, 215, 315, 515, 605, 705) in a 2D periodic path (510, 610, 710) to produce a 2D periodic distribution of x-rays. a computer system; an electron emission device (105, 205, 305) for producing and emitting an electron beam; a target (125, 215, 315, 515, 605, 705); a plurality of steering coils (120, 210, 310, 815) for providing magnetic fields in perpendicular directions for steering said electron beam to said target (125, 215, 315, 515, 605, 705), wherein said target generates x-rays responsive to interaction with said electron beam; and a field shaping device configured to be placed between said target (125, 215, 315, 515, 605, 705 and a patient (230, 330, 405), said field shaping device operable to shape a treatment volume of said x-rays, characterized in that: said computer system comprises instructions, that when executed, cause said computer system to control said plurality of steering coils (120, 210, 310, 815) to scan said electron beam across said target (125, 215, 315, 515, 605, 705) in a 2D periodic path (510, 610, 710) to produce a 2D periodic distribution of x-rays.
A diagnostic test device comprising: a housing body having a lateral flow test component positioned therein, the housing body being in a horizontal plane and having a lower surface; and a curving handle interconnected with, and rising up from, the housing body, the curving handle including an ascending section, a transverse section, and a descending section positioned above the horizontal plane of the housing; wherein the lateral flow test component comprises a sample receiving member extending outward from the housing body at a forward end thereof; the diagnostic test device further comprising: a base member attached to the lower surface of the housing body. a housing body having a lateral flow test component positioned therein, the housing body being in a horizontal plane and having a lower surface; and a curving handle interconnected with, and rising up from, the housing body, the curving handle including an ascending section, a transverse section, and a descending section positioned above the horizontal plane of the housing; wherein the lateral flow test component comprises a sample receiving member extending outward from the housing body at a forward end thereof;
An airport surface surveillance system comprising an image acquisition system (10, 12) for capturing frames of digital images of an area of the airport surface mapped to a predetermined coordinate system, and for executing a stabilization algorithm to provide corresponding frames of stabilized images, wherein the image acquisition system includes a camera array including at least one camera for capturing the frames of digital images, and an acquisition array for executing the stabilization algorithm upon the frames of digital images to provide the corresponding frames of stabilized images, the acquisition array statistically comparing a new image with a previous image to generate at least one stabilized image corresponding to the new image, a target identification system (13, 16) executing a target identification algorithm for identifying pixels in the frames of stabilized images which correspond to a target (116, 200), the target identification system calculating a position of the target on the airport surface based on the identified pixels, and a display system (14, 18) for receiving the position of the target and for generating a two-dimensional plan view rendering of the airport surface with an icon having a geometric shape representing the position of the target on a visual display, characterized in that the acquisition array generates a first histogram corresponding to the new image and a second histogram corresponding to the previous stabilized image, and the acquisition array comparing the first histogram to the second histogram for determining one or more of a translation or rotation of the new image relative to the previous image.
A driving circuit for driving half bridge connected electrically controlled power switches (PT1, PT2) with a near zero interlock delay time (NZID) between on-states of the power switches (PT1, PT2), wherein the driving circuit is configured to receive an input signal and to generate: - a first drive signal (J 1) being adapted to switch a first power switch between the on and off state, - a second drive signal (J 2) being adapted to switch a second power switch between the on and off state, wherein at every odd stepwise change of the input signal the first drive signal (J 1) starts increasing its value via a slope from a negative DC gate supply voltage (V G-) to a positive DC gate supply voltage (V G+) and the second drive signal (J 2) starts decreasing its value from a positive DC gate supply voltage (V G+) to a negative DC gate supply voltage (V G-), wherein at every even stepwise change of the input signal the first drive signal (J 1) starts decreasing its value via a slope from a positive DC gate supply voltage (V G+) to a negative DC gate supply voltage (V G-) and the second drive signal (J 2) starts increasing its value from a negative DC gate supply voltage (V G-) to a positive DC gate supply voltage (V G+), wherein the value of said slope defines the value of an interlock delay wherein the interlock delay is the time between on-states of the first power switch and second power switch, wherein the term near zero interlock delay (NZID) refers to an interlock delay, which is short enough for charge carriers in the body diode (D B) not to occur, wherein the negative DC gate supply voltage (V G-) pushes the first power switch and the second power switch deep into a cutoff region, wherein the positive DC gate supply voltage(V G+) pushes the first power switch and the second power switch deep into an ohmic region, wherein the signal curve of the first drive signal (J 1) is mirrored with respect to the signal curve of the second drive signal (J 2) along a time axis of a mirroring voltage value (V m) within a transition time (t t), wherein the mirroring voltage value (V m) is defined as a middle voltage between the positive DC gate supply voltage (V G+) and the negative DC gate supply voltage (V G-) and wherein the positive DC gate supply voltage (V G+) and the negative DC gate supply voltage (V G-) are adjusted such that the mirroring voltage value (V m) is within the cutoff region of the power switches (PT1, PT2). - a first drive signal (J 1) being adapted to switch a first power switch between the on and off state, - a second drive signal (J 2) being adapted to switch a second power switch between the on and off state,
A method of preparing paraffin-based hydrocarbon in the diesel oil range, comprising: (a) hydrodeoxygenating a feed containing triglyceride; (b) separating a product of (a) into a gas and a liquid; (c) removing impurities and a light component from the liquid; and (d) isomerizing part of a product of (c) and then recycling the isomerized product so as to be mixed with the feed in (a), and recovering a remainder thereof as a final product, said method being characterized in that a gas-liquid mixture after isomerizing in (d) is mixed with the feed in (a) without additional use of a pressure-increasing equipment and/or a gas-liquid separator. (a) hydrodeoxygenating a feed containing triglyceride; (b) separating a product of (a) into a gas and a liquid; (c) removing impurities and a light component from the liquid; and (d) isomerizing part of a product of (c) and then recycling the isomerized product so as to be mixed with the feed in (a), and recovering a remainder thereof as a final product,
A dynamic adaptive streaming over hypertext transfer protocol, DASH, assisting network element, DANE,, comprising a memory storing executable instructions that execute one or more computer executable components; and a processor configured to execute the executable instructions for the one or more executable components comprising: a media path interface component configured to communicatively couple to a media origin server and a client device, and deliver streaming media content to the client device from the media origin server based on a set of parameters; characterised in that the executable components further comprise: a client-to-DANE interface component configured to receive a set of metric and status messages from the client device concurrent with a delivery of the streaming media content via the media path interface component; and a content adaptation component, communicatively coupled to the media path interface component and the client-to-DANE interface component, configured to generate a modification including a transcoding or a transrating of the streaming media content during the delivery to the client device via the media path interface component based on the set of metric and status messages received via the client-to-DANE interface component, wherein the set of metric and status messages comprises a set of throughput parameters, a set of quality of service parameters, and a set of transcoding parameters that enable transcoding operations to be offloaded from the media origin server. a client-to-DANE interface component configured to receive a set of metric and status messages from the client device concurrent with a delivery of the streaming media content via the media path interface component; and a content adaptation component, communicatively coupled to the media path interface component and the client-to-DANE interface component, configured to generate a modification including a transcoding or a transrating of the streaming media content during the delivery to the client device via the media path interface component based on the set of metric and status messages received via the client-to-DANE interface component, wherein the set of metric and status messages comprises a set of throughput parameters, a set of quality of service parameters, and a set of transcoding parameters that enable transcoding operations to be offloaded from the media origin server.
A sample collection apparatus, comprising: a container having an interior portion configured to contain a sample and an opening to the interior portion for receiving the sample; a funnel configured to be secured to the opening of the container, the funnel having a mouth portion and a neck portion depending from the mouth portion, the neck portion configured to be inserted into the opening of the container; and a closure assembly including: a first closure structure, and a second closure structure configured to releasably cover the mouth portion of the funnel, wherein the first closure structure is removably attached to the second closure structure, characterized in that the first closure structure is configured to releasably seal the opening of the container, the first closure structure including a rigid housing having a basket-shaped chamber and one or more apertures disposed along a lateral periphery, such that the chamber is in fluid communication with the interior portion of the container when the opening is sealed by the first closure structure, and in that the closure assembly includes: a chemical reagent contained within the chamber. a container having an interior portion configured to contain a sample and an opening to the interior portion for receiving the sample; a funnel configured to be secured to the opening of the container, the funnel having a mouth portion and a neck portion depending from the mouth portion, the neck portion configured to be inserted into the opening of the container; and a closure assembly including: a first closure structure, and a second closure structure configured to releasably cover the mouth portion of the funnel, a first closure structure, and a second closure structure configured to releasably cover the mouth portion of the funnel, wherein the first closure structure is removably attached to the second closure structure, characterized in that the first closure structure is configured to releasably seal the opening of the container, the first closure structure including a rigid housing having a basket-shaped chamber and one or more apertures disposed along a lateral periphery, such that the chamber is in fluid communication with the interior portion of the container when the opening is sealed by the first closure structure, and in that the closure assembly includes: a chemical reagent contained within the chamber. a chemical reagent contained within the chamber.
A sidelink communication method, comprising: receiving, by a terminal device, resource configuration information sent by a network device, wherein the resource configuration information is used to configure a common resource for the terminal device, and the common resource is a resource that is configured by the network device for all terminal devices within coverage of the network device and that is to be used by all the terminal devices to perform sidelink communication; receiving, by the terminal device, sidelink BWP indication information sent by the network device, wherein the sidelink BWP indication information is used to indicate N sidelink bandwidth parts SL-BWPs, the N SL-BWPs are bandwidth parts BWPs used by the terminal device to perform sidelink communication, and the N SL-BWPs comprise a frequency domain resource corresponding to the common resource, wherein N is a positive integer; and performing, by the terminal device, sidelink communication with another terminal device in the N SL-BWPs, characterized by the resource configuration information carries multiplexing format indication information, the multiplexing format indication information is used to indicate a multiplexing format of sidelink data and sidelink control information that are sent by the terminal device when the terminal device performs sidelink communication on the common resource, and the multiplexing format comprises frequency division multiplexing and time division multiplexing. receiving, by a terminal device, resource configuration information sent by a network device, wherein the resource configuration information is used to configure a common resource for the terminal device, and the common resource is a resource that is configured by the network device for all terminal devices within coverage of the network device and that is to be used by all the terminal devices to perform sidelink communication; receiving, by the terminal device, sidelink BWP indication information sent by the network device, wherein the sidelink BWP indication information is used to indicate N sidelink bandwidth parts SL-BWPs, the N SL-BWPs are bandwidth parts BWPs used by the terminal device to perform sidelink communication, and the N SL-BWPs comprise a frequency domain resource corresponding to the common resource, wherein N is a positive integer; and performing, by the terminal device, sidelink communication with another terminal device in the N SL-BWPs, characterized by the resource configuration information carries multiplexing format indication information, the multiplexing format indication information is used to indicate a multiplexing format of sidelink data and sidelink control information that are sent by the terminal device when the terminal device performs sidelink communication on the common resource, and the multiplexing format comprises frequency division multiplexing and time division multiplexing.
A luminaire (10, 50) acting as a node (10,50) of a wireless network, the luminaire comprising: - at least a light source which can function according different dimming levels, - a communication unit for transmitting or receiving data packets from neighboring nodes, - a control unit adapted to adjust a communication mode of the communication unit based on the dimming level of the light source to improve the transmission efficiency. - at least a light source which can function according different dimming levels, - a communication unit for transmitting or receiving data packets from neighboring nodes, - a control unit adapted to adjust a communication mode of the communication unit based on the dimming level of the light source to improve the transmission efficiency.
A computer-implemented method for performing antivirus analysis of a file, comprising: detecting, by a hardware processor using an antivirus software, an attempt to access the file on a computer; collecting an identifier of the file and one or more current attributes of the file; using the identifier to search in a data store for one or more old attributes of the file; comparing one or more of the current attributes of the file with one or more of the old attributes of the file found in the data store to determine whether the file is modified; selecting a synchronous file access method or an asynchronous file access method for the antivirus software to perform antivirus analysis of the file based on the determination of whether the file is modified or unmodified, when the file is determined to be modified, synchronously accessing the file by the antivirus software to perform antivirus analysis of the file, wherein during the synchronous access of the file one or more other programs are prohibited from accessing the analyzed file; when the file is determined to be unmodified, asynchronously accessing the file by the antivirus software to perform antivirus analysis of the file, wherein during the asynchronous access of the file one or more of the other programs are allowed to access the analyzed file. detecting, by a hardware processor using an antivirus software, an attempt to access the file on a computer; collecting an identifier of the file and one or more current attributes of the file; using the identifier to search in a data store for one or more old attributes of the file; comparing one or more of the current attributes of the file with one or more of the old attributes of the file found in the data store to determine whether the file is modified; selecting a synchronous file access method or an asynchronous file access method for the antivirus software to perform antivirus analysis of the file based on the determination of whether the file is modified or unmodified, when the file is determined to be modified, synchronously accessing the file by the antivirus software to perform antivirus analysis of the file, wherein during the synchronous access of the file one or more other programs are prohibited from accessing the analyzed file; when the file is determined to be unmodified, asynchronously accessing the file by the antivirus software to perform antivirus analysis of the file, wherein during the asynchronous access of the file one or more of the other programs are allowed to access the analyzed file.
A semiconductor light emitting device comprising: a semiconductor layer including a light emitting layer, a first surface, and a second surface opposite to the first surface; a first electrode (16, 26, 36) provided in a emitting region on the second surface; a second electrode (17, 27, 37) provided in a non-emitting region on the second surface; a first interconnection section (21, 23) provided on the first electrode (16, 26, 36) and electrically connected to the first electrode (16, 26, 36); a second interconnection section (22, 24) provided on the second electrode (17, 27, 37) and on the first electrode (16, 26, 36) and electrically connected to the second electrode (17, 27, 37); and a varistor film provided in contact with the first electrode (16, 26, 36) and the second interconnection section (22, 24) between the first electrode (16, 26, 36) and the second interconnection section (22, 24); characterized by further comprising: a first insulating film covering an end surface of the light emitting layer; and a second insulating film (25, 35) provided between the first interconnection section (21, 23) and the second interconnection section (22, 24); wherein the first insulating film and the second insulating film (25, 35) have a higher breakdown voltage than the varistor film. a semiconductor layer including a light emitting layer, a first surface, and a second surface opposite to the first surface; a first electrode (16, 26, 36) provided in a emitting region on the second surface; a second electrode (17, 27, 37) provided in a non-emitting region on the second surface; a first interconnection section (21, 23) provided on the first electrode (16, 26, 36) and electrically connected to the first electrode (16, 26, 36); a second interconnection section (22, 24) provided on the second electrode (17, 27, 37) and on the first electrode (16, 26, 36) and electrically connected to the second electrode (17, 27, 37); and a varistor film provided in contact with the first electrode (16, 26, 36) and the second interconnection section (22, 24) between the first electrode (16, 26, 36) and the second interconnection section (22, 24); characterized by further comprising: a first insulating film covering an end surface of the light emitting layer; and a second insulating film (25, 35) provided between the first interconnection section (21, 23) and the second interconnection section (22, 24); a first insulating film covering an end surface of the light emitting layer; and a second insulating film (25, 35) provided between the first interconnection section (21, 23) and the second interconnection section (22, 24); wherein the first insulating film and the second insulating film (25, 35) have a higher breakdown voltage than the varistor film.