mhurhangee/ep-ind-claims huggingface dataset:
An apparatus fabricated using a standard cell architecture including devices having different voltage thresholds, comprising: a first set of polylines associated with a first channel length (L c1), wherein each polyline within the first set of polylines is separated by a substantially constant pitch (P c); a second set of polylines associated with a second channel length (L c2) and aligned with the first set of polylines, wherein each polyline within the second set of polylines is laterally separated by the substantially constant pitch (P c), wherein the first channel length (L c1) is different from the second channel length (L c2); a first active region below the first set of polylines; and a second active region below the second set of polylines, wherein the first active region and the second active region are separated by a distance (D OD). a first set of polylines associated with a first channel length (L c1), wherein each polyline within the first set of polylines is separated by a substantially constant pitch (P c); a second set of polylines associated with a second channel length (L c2) and aligned with the first set of polylines, wherein each polyline within the second set of polylines is laterally separated by the substantially constant pitch (P c), wherein the first channel length (L c1) is different from the second channel length (L c2); a first active region below the first set of polylines; and a second active region below the second set of polylines, wherein the first active region and the second active region are separated by a distance (D OD).
A switching power supply device, comprising: a) a switching output circuit configured to generate an output voltage from an input voltage; and b) an oscillation circuit configured to generate a clock signal having a predetermined switching period, wherein the switching power supply device further comprises: c) a pulse-by-pulse type overcurrent protection circuit configured to detect an overcurrent flowing through the switching output circuit to generate an overcurrent protection signal forcibly stopping a switching operation of the switching output circuit; d) a pulse skip circuit configured to through-output the clock signal as a first control signal, or perform a pulse skip operation on the clock signal in response to the overcurrent protection signal, wherein upon generation of the overcurrent protection signal, the pulse skip circuit performs the pulse skip operation such that the clock signal is blocked and the first control signal is fixed to be a low logical level over a period that falls within a range between two positive integer multiples of the clock signal switching period; e) a control circuit configured to generate a driving control signal, which synchronizes with the clock signal and the first control signal; and f) a switching driving circuit configured to control driving of the switching output circuit based on the driving control signal received from the control circuit. a) a switching output circuit configured to generate an output voltage from an input voltage; and b) an oscillation circuit configured to generate a clock signal having a predetermined switching period, c) a pulse-by-pulse type overcurrent protection circuit configured to detect an overcurrent flowing through the switching output circuit to generate an overcurrent protection signal forcibly stopping a switching operation of the switching output circuit; d) a pulse skip circuit configured to through-output the clock signal as a first control signal, or perform a pulse skip operation on the clock signal in response to the overcurrent protection signal, wherein upon generation of the overcurrent protection signal, the pulse skip circuit performs the pulse skip operation such that the clock signal is blocked and the first control signal is fixed to be a low logical level over a period that falls within a range between two positive integer multiples of the clock signal switching period; e) a control circuit configured to generate a driving control signal, which synchronizes with the clock signal and the first control signal; and f) a switching driving circuit configured to control driving of the switching output circuit based on the driving control signal received from the control circuit.
An evacuation slide, comprising: a first side tube extending longitudinally between a head end and a toe end of the evacuation slide; a second side tube extending longitudinally between the head end and the toe end of the evacuation slide; a center tube extending longitudinally between the head end and the toe end of the evacuation slide; an arched tube configured to extend between the first side tube and the second side tube of the evacuation slide, the arched tube extends substantially orthogonal to the center tube, the arched tube comprising a concave surface, wherein first and second load paths are formed from the first and second side tubes to the arched tube; and a strap coupled between the arched tube and the center tube of the evacuation slide, wherein the arched tube is configured to provide vertical support to the first side tube and to the second side tube in response to a tension in the strap, and a third load path is formed between the arched tube and the center tube at a point of contact between the arched tube and the center tube wherein the load is transferred via the arched tube, in response to the arched tube contacting the center tube at concave surface, and a fourth load path is formed between the arched tube and the center tube via the strap. a first side tube extending longitudinally between a head end and a toe end of the evacuation slide; a second side tube extending longitudinally between the head end and the toe end of the evacuation slide; a center tube extending longitudinally between the head end and the toe end of the evacuation slide; an arched tube configured to extend between the first side tube and the second side tube of the evacuation slide, the arched tube extends substantially orthogonal to the center tube, the arched tube comprising a concave surface, wherein first and second load paths are formed from the first and second side tubes to the arched tube; and a strap coupled between the arched tube and the center tube of the evacuation slide, wherein the arched tube is configured to provide vertical support to the first side tube and to the second side tube in response to a tension in the strap, and a third load path is formed between the arched tube and the center tube at a point of contact between the arched tube and the center tube wherein the load is transferred via the arched tube, in response to the arched tube contacting the center tube at concave surface, and a fourth load path is formed between the arched tube and the center tube via the strap.
An apparatus for use in a blasting system which includes a spool with a hub, first and second discs (28, 30) which are mounted to the hub, an elongate flexible signal-transmitting conductor which has a first end and a second end and which is coiled on the hub between the discs, at least a first detonator which is connected to the signal-transmitting conductor at or near the first end, a connector device which is connected or exposed to the signal-transmitting conductor at or near the second end, characterised in that the signal-transmitting conductor includes spaced-apart markings or formations and wherein the spool includes a sensor, responsive to passage of a marking or formation past the sensor to produce a measure of a length of the signal-transmitting conductor which is uncoiled from the hub and a release mechanism which, in use, permits a degree of rotation of the spool or movement of the conductor when a tensile force exerted on the conductor increases above a predetermined level, thereby to reduce the level of the tensile force exerted on the conductor wherein the connector device includes, wholly located inside the hub, a transmitter/receiver module, a battery and a processor, and connector formations, and in that communication with a control device can be established via the connector formations or via the transmitter / receiver module.
A method for transmitting a downlink signal in a wireless communication system, the method performed by a base station and comprising: transmitting resource block assignment information including a bitmap; and transmitting the downlink signal through a resource block group, RBG, indicated by the bitmap in a bandwidth part, wherein a total number of resource block groups, RBGs, in the bandwidth part is determined based on an index of a starting resource block of the bandwidth part, a size of the bandwidth part, and a configured size of one resource block group, wherein: based on the bandwidth part being i-th bandwidth part, i being 0 or a natural number, and based on N start BWP,i denoting an index of a starting resource block of the i-th bandwidth part, N size BWP,i denoting a size of i-th bandwidth part and P denoting a configured size of one RBG, the total number, N RBG, of the RBGs is determined based on the following equation, N RBG = ⌈ N BWP, i size + N BWP, i start modP / P ⌉. transmitting resource block assignment information including a bitmap; and transmitting the downlink signal through a resource block group, RBG, indicated by the bitmap in a bandwidth part, wherein a total number of resource block groups, RBGs, in the bandwidth part is determined based on an index of a starting resource block of the bandwidth part, a size of the bandwidth part, and a configured size of one resource block group, wherein: based on the bandwidth part being i-th bandwidth part, i being 0 or a natural number, and based on N start BWP,i denoting an index of a starting resource block of the i-th bandwidth part, N size BWP,i denoting a size of i-th bandwidth part and P denoting a configured size of one RBG, the total number, N RBG, of the RBGs is determined based on the following equation, N RBG = ⌈ N BWP, i size + N BWP, i start modP / P ⌉.
An electrical test and measurement device with four analog channels, wherein each analog channel comprises an analog input, an attenuator circuit, an amplifier unit, and a digitizer such that each analog channel has its own digitizer, wherein the electrical test and measurement device comprises another digitizer allocated to a digitizer input of the electrical test and measurement device, wherein the digitizer input is configured to be connected to a measurement extension device so that the number of analog channels of the electrical test and measurement device is increased by the measurement extension device to be connected to the electrical test and measurement device, and wherein the digitizer input is configured to process signals each having several analog signals inputted to the separately formed measurement extension device.
A hinge bracket assembly comprising: an anchor plate including a retention member extending perpendicular to the anchor plate, wherein the anchor plate defines a first receiving aperture; a hinge plate aligned with the anchor plate and including a hinge arm and a protrusion, the protrusion extending from an edge of the hinge plate opposite the hinge arm, wherein the hinge plate defines a second receiving aperture aligned with the first receiving aperture when the protrusion is received by a space defined by the retention member; and a locking arm rotatable between an unlocked position and a locked position and configured to be at least partially received by the first and second receiving apertures (22, 42) to couple the anchor plate and the hinge plate, characterized in that the retention member includes a projection at least partially defining a retention space, and a lip extending perpendicularly from an end of the projection to retain the locking arm when the locking arm is in the locked position. an anchor plate including a retention member extending perpendicular to the anchor plate, wherein the anchor plate defines a first receiving aperture; a hinge plate aligned with the anchor plate and including a hinge arm and a protrusion, the protrusion extending from an edge of the hinge plate opposite the hinge arm, wherein the hinge plate defines a second receiving aperture aligned with the first receiving aperture when the protrusion is received by a space defined by the retention member; and a locking arm rotatable between an unlocked position and a locked position and configured to be at least partially received by the first and second receiving apertures (22, 42) to couple the anchor plate and the hinge plate,
A method for dynamic allocation of bandwidth within wireless network systems, comprising: generating a first request via a host application of a gateway device to a system manager of the gateway device for a network bandwidth comprising a first data transfer rate, the gateway device being configured to connect field devices that use different network protocols; receiving a first reply from the system manager as to whether the first data transfer rate is available for transfer of data from the gateway device requesting the network bandwidth to a field device; transferring the data via a network interface from the gateway device to the field device when the first data transfer rate is available; generating a second request via the host application of the gateway device to the system manager of the gateway device for a network bandwidth when the first data transfer rate is unavailable, wherein the second request comprises at least a second data transfer rate; and transferring the data via the network interface from the gateway device to the field device when the second data transfer rate is available. generating a first request via a host application of a gateway device to a system manager of the gateway device for a network bandwidth comprising a first data transfer rate, the gateway device being configured to connect field devices that use different network protocols; receiving a first reply from the system manager as to whether the first data transfer rate is available for transfer of data from the gateway device requesting the network bandwidth to a field device; transferring the data via a network interface from the gateway device to the field device when the first data transfer rate is available; generating a second request via the host application of the gateway device to the system manager of the gateway device for a network bandwidth when the first data transfer rate is unavailable, wherein the second request comprises at least a second data transfer rate; and transferring the data via the network interface from the gateway device to the field device when the second data transfer rate is available.
A method for fusing a plurality of depth images, wherein the method comprises: obtaining N depth images collected by N image collection units, wherein N≥2; obtaining a first foreground pixel of an i th depth image of the N depth images, wherein i≥1 and i≤N, and the i th depth image is a depth image collected by an i th image collection unit of the N image collection units; back-projecting the first foreground pixel to three-dimensional space, to obtain a foreground three-dimensional space point, and projecting the foreground three-dimensional space point to imaging planes of N-1 image collection units of the N image collection units other than the i th collection unit, to obtain N-1 projected points that correspond to the first foreground pixel and that are in depth images respectively collected by the N-1 image collection units; determining whether depth values of the foreground three-dimensional space point in respective coordinate systems of the N-1 image collection units are greater than or equal to depth values of the respective N-1 projected points corresponding to the first foreground pixel; and when the depth values of the foreground three-dimensional space point in the respective coordinate systems of the N-1 image collection units are greater than or equal to the depth values of the respective N-1 projected points corresponding to the first foreground pixel, obtaining a three-dimensional point cloud by means of fusion and according to the first foreground pixel and the N-1 projected points corresponding to the first foreground pixel. obtaining N depth images collected by N image collection units, wherein N≥2; obtaining a first foreground pixel of an i th depth image of the N depth images, wherein i≥1 and i≤N, and the i th depth image is a depth image collected by an i th image collection unit of the N image collection units; back-projecting the first foreground pixel to three-dimensional space, to obtain a foreground three-dimensional space point, and projecting the foreground three-dimensional space point to imaging planes of N-1 image collection units of the N image collection units other than the i th collection unit, to obtain N-1 projected points that correspond to the first foreground pixel and that are in depth images respectively collected by the N-1 image collection units; determining whether depth values of the foreground three-dimensional space point in respective coordinate systems of the N-1 image collection units are greater than or equal to depth values of the respective N-1 projected points corresponding to the first foreground pixel; and when the depth values of the foreground three-dimensional space point in the respective coordinate systems of the N-1 image collection units are greater than or equal to the depth values of the respective N-1 projected points corresponding to the first foreground pixel, obtaining a three-dimensional point cloud by means of fusion and according to the first foreground pixel and the N-1 projected points corresponding to the first foreground pixel.
A manufacturing method for a bismuth iron oxide powder, comprising: adding ammonium hydrogen carbonate and ammonia water to a solution in which iron nitrate and bismuth nitrate are dissolved in a nitric acid solution, so as to obtain a bismuth iron composite oxide; agglomerating the bismuth iron composite oxide using a nonionic polymer flocculant so as to obtain an aggregate; and calcining the aggregate at a temperature of 400 degrees centigrade or higher and 650 degrees centigrade or lower. adding ammonium hydrogen carbonate and ammonia water to a solution in which iron nitrate and bismuth nitrate are dissolved in a nitric acid solution, so as to obtain a bismuth iron composite oxide; agglomerating the bismuth iron composite oxide using a nonionic polymer flocculant so as to obtain an aggregate; and calcining the aggregate at a temperature of 400 degrees centigrade or higher and 650 degrees centigrade or lower.
Device for heat-treating at least two multilayer bodies (4.1, 4.2) on at least two process levels (3.1, 3.2) disposed one beneath another in at least one heating chamber and at least one cooling chamber, which are disposed one behind another relative to the transport direction, wherein the heating chamber comprises - a first process level (3.1) with a first process box (5.1) for at least one first multilayer body (4.1), which is situated between a first radiator field (2.1) and a second radiator field (2.2) with radiant heaters for heating the first multilayer body (4.1), - a second process level (3.2) with a second process box (5.2) for at least one second multilayer body (4.2), which is situated between the second radiator field (2.2) and a third radiator field (2.3) with radiant heaters for heating the second multilayer body (4.2), wherein the first radiator field (2.1) and the second radiator field (2.2) are implemented such that the first process level (3.1) can be irradiated by the first radiator field (2.1) with a different radiation intensity than by the second radiator field (2.2) and/or wherein the second radiator field (2.2) and the third radiator field (2.3) are implemented such that the second process level (3.2) can be irradiated by the second radiator field (2.2) with a different radiation intensity than by the third radiator field (2.3), and wherein the cooling chamber comprises - a cooling device - the first process level (3.1) for cooling the at least one first multilayer body (4.1) and the second process level (3.2) for cooling the at least one second multilayer body (4.2). - a first process level (3.1) with a first process box (5.1) for at least one first multilayer body (4.1), which is situated between a first radiator field (2.1) and a second radiator field (2.2) with radiant heaters for heating the first multilayer body (4.1), - a second process level (3.2) with a second process box (5.2) for at least one second multilayer body (4.2), which is situated between the second radiator field (2.2) and a third radiator field (2.3) with radiant heaters for heating the second multilayer body (4.2), wherein the first radiator field (2.1) and the second radiator field (2.2) are implemented such that the first process level (3.1) can be irradiated by the first radiator field (2.1) with a different radiation intensity than by the second radiator field (2.2) and/or wherein the second radiator field (2.2) and the third radiator field (2.3) are implemented such that the second process level (3.2) can be irradiated by the second radiator field (2.2) with a different radiation intensity than by the third radiator field (2.3), and wherein the cooling chamber comprises - a cooling device - the first process level (3.1) for cooling the at least one first multilayer body (4.1) and the second process level (3.2) for cooling the at least one second multilayer body (4.2).
An apparatus for detecting a downhole feature in a well having a wellbore, the apparatus comprising: an electromagnetic antenna comprising a receiver; and a first tube provided in a casing of the wellbore, wherein the first tube comprises an at least partially porous or perforated wall or side wall which is fluid permeable and wherein the first tube comprises a first waveguide. an electromagnetic antenna comprising a receiver; and a first tube provided in a casing of the wellbore, wherein the first tube comprises an at least partially porous or perforated wall or side wall which is fluid permeable and wherein the first tube comprises a first waveguide.
A screen assembly for a window comprising a screen supported by an elongate support member adapted to be mounted in an upper region of the window opening, a pair of mounting brackets being provided for attachment to respective sides of the window opening adjacent the top face of the window opening, each end of the elongate support member being provided with a recess adapted to receive a body portion of a respective mounting bracket such that the elongate support member may be engaged over the mounting brackets to retain the support member between the sides of the window opening, a respective biasing means being associated with each recess and/or body portion acting to provide a biasing force to urge the respective mounting bracket away from the respective recess in the adjacent end of the elongate support member, such biasing forces acting to centralise the elongate support member within the window opening, characterised in that each respective biasing means comprises a resilient member extending outwardly from a base portion of the respective recess or an outer face of the body portion of the respective mounting bracket.