mhurhangee/ep-ind-claims huggingface dataset:
A system for identifying objects by means of distributed neural networks, wherein - a highly performant neural network is provided at a base station; - a less performant neural network is provided on a front-end side, wherein the less performant neural network has a lower depth and thus a lower performance capacity than the highly performant neural network; - a high-resolution camera device is provided on the front-end side for generating a high-resolution video; - the front-end side neural network is designed to identify and mark image areas of interest in the video, wherein the image areas of interest are image areas which contain characteristic features which allow conclusions on objects to be identified within the scope of an object identification mission, wherein the final evaluation and characterization is not possible due to the lower performance capacity of the front-end side neural network; characterized in that the System comprises: - a video-processing means for selecting and defining ROIs, ROI - 'Region of Interest', due to the previously identified image areas of interest and for encoding the ROIs into the video; - a data radio connection for transmitting the video from the video-processing means to the base station; and wherein - the base-station side neural network is designed to evaluate the ROIs extracted from the video received and identify objects present in the ROIs. - a highly performant neural network is provided at a base station; - a less performant neural network is provided on a front-end side, wherein the less performant neural network has a lower depth and thus a lower performance capacity than the highly performant neural network; - a high-resolution camera device is provided on the front-end side for generating a high-resolution video; - the front-end side neural network is designed to identify and mark image areas of interest in the video, wherein the image areas of interest are image areas which contain characteristic features which allow conclusions on objects to be identified within the scope of an object identification mission, wherein the final evaluation and characterization is not possible due to the lower performance capacity of the front-end side neural network; - a video-processing means for selecting and defining ROIs, ROI - 'Region of Interest', due to the previously identified image areas of interest and for encoding the ROIs into the video; - a data radio connection for transmitting the video from the video-processing means to the base station; and wherein - the base-station side neural network is designed to evaluate the ROIs extracted from the video received and identify objects present in the ROIs.
Mixture comprising or consisting of two or more compounds selected from formula (Ia) or (Ib) wherein independently in each of the formulae (Ia) and (Ib) X represents a methylene or ethylene group, and the wavy line indicates that the configuration on the associated double bond is E or Z, and in the formula (Ia) the configuration on the carbon atom numbered 14 is R or S.
A laser riser and blowout preventer system for use with an offshore drilling rig, a vessel or a platform to control and manage potential emergency and emergency situations, the laser riser blowout preventer system comprising: a. a high-power laser; b. a high-power beam switch that is optically associated with the high-power laser; c. a riser; d. a blowout preventer; e. a first laser cutter and a second laser cutter, in optical association with the high-power beam switch; f. wherein the first laser cutter is positioned adjacent the riser, whereby the first laser cutter is capable of directing a first high power laser beam toward a component of the riser; g. wherein the second laser cutter is positioned in the blowout preventer, whereby the second laser cutter is capable of directing a second high-power laser beam toward a tubular within the blowout preventer; and, h. a control network in data and control communication with the laser, the beam switch and the blowout preventer, wherein the control network provides for firing of the laser and actuation of the blowout preventer. a. a high-power laser; b. a high-power beam switch that is optically associated with the high-power laser; c. a riser; d. a blowout preventer; e. a first laser cutter and a second laser cutter, in optical association with the high-power beam switch; f. wherein the first laser cutter is positioned adjacent the riser, whereby the first laser cutter is capable of directing a first high power laser beam toward a component of the riser; g. wherein the second laser cutter is positioned in the blowout preventer, whereby the second laser cutter is capable of directing a second high-power laser beam toward a tubular within the blowout preventer; and, h. a control network in data and control communication with the laser, the beam switch and the blowout preventer, wherein the control network provides for firing of the laser and actuation of the blowout preventer.
A radiation detection assembly including: an ionization chamber for detecting radiation, the ionization chamber including a volume of pressurized gas; an exterior enclosure housing the ionization chamber within an interior volume, the exterior enclosure including a frangible section; and a relief assembly defining a gas flow path from the ionization chamber to the frangible section of the exterior enclosure, wherein the frangible section releases pressure from within the ionization chamber when the pressurized gas within the ionization chamber exceeds a predetermined pressure such that at least some of the pressurized gas flows through the relief assembly and through the frangible section of the exterior enclosure whereupon the pressurized gas is released to an exterior of the exterior enclosure. an ionization chamber for detecting radiation, the ionization chamber including a volume of pressurized gas; an exterior enclosure housing the ionization chamber within an interior volume, the exterior enclosure including a frangible section; and a relief assembly defining a gas flow path from the ionization chamber to the frangible section of the exterior enclosure, wherein the frangible section releases pressure from within the ionization chamber when the pressurized gas within the ionization chamber exceeds a predetermined pressure such that at least some of the pressurized gas flows through the relief assembly and through the frangible section of the exterior enclosure whereupon the pressurized gas is released to an exterior of the exterior enclosure.
An engine comprising a piston part and a cylinder body part with a sliding surface on which the piston part is slidable, the cylinder body part being made of an Al alloy with an Si content of 16% by mass or more and preferably formed by a high-pressure die casting process, the cylinder body part including Si primary crystal grains, Si eutectic crystal grains, and an Al alloy base material, the Si eutectic crystal grains having an average crystal grain diameter less than an average crystal grain diameter of the Si primary crystal grains, characterized in that the sliding surface being configured such that, at least in an upper quarter region of the sliding surface, the Si primary crystal grains and the Al alloy base material are exposed so as to be contactable with the piston part, and a plurality of substantially parallel linear grooves are formed at a pitch greater than the average crystal grain diameter of the Si primary crystal grains so that the plurality of substantially parallel linear grooves have a portion that exists between adjacent ones of the Si primary crystal grains, the plurality of substantially parallel linear grooves having a depth equal to or more than one-third of an upper limit value of a diameter range of the Si eutectic crystal grains in a grain size distribution of Si crystal grains in the cylinder body part.
An image forming apparatus, comprising: a fixing part including a first heat generating member and a second heat generating member respectively adapted to generate heat by electric power supplied from a commercial power supply through a power supply path to heat-fix an image formed on a recording material to the recording material; and a connection state switching part (RL1, RL2) adapted to switch connection of the first heat generating member and the second heat generating member between a serial connection state and a parallel connection state; characterized in a current detection part adapted to detect a current flowing in the power supply path, wherein the current detection part is disposed in the power supply path after branching toward the first heat generating member and the second heat generating member in the parallel connection state. a fixing part including a first heat generating member and a second heat generating member respectively adapted to generate heat by electric power supplied from a commercial power supply through a power supply path to heat-fix an image formed on a recording material to the recording material; and a connection state switching part (RL1, RL2) adapted to switch connection of the first heat generating member and the second heat generating member between a serial connection state and a parallel connection state; characterized in a current detection part adapted to detect a current flowing in the power supply path, wherein the current detection part is disposed in the power supply path after branching toward the first heat generating member and the second heat generating member in the parallel connection state.
A mounting arrangement for locating a stator within a casing of a rotating machine comprising at least one mounting plate adapted to engage with the stator and the casing, the plate has a series of discrete apertures therein, the apertures extending through the plate and adjacent apertures overlap one another and are arranged to provide a convoluted path to impede the transmission of forces through the plate, characterised in that each aperture has a radial and a tangential portion such that when a fault occurs the aperture in the radial portion diminishes until contact is made between the opposing faces and the apertures elastically deform in the tangential portion until opposing faces contact one another during an external event.
User equipment, comprising: a transmission and reception unit configured to transmit and receive radio signals to/from a base station; and a DRX unit configured to discontinuously receive the radio signals transmitted from the base station, wherein the DRX unit manages a system frame number, SFN, a subframe number and a hyper SFN, HSFN, in radio communication with the base station, wherein the HSFN counts how many times the SFN wraps around, and uses the HSFN to activate an extended DRX, eDRX, having a specified reception period, wherein the transmission and reception unit indicates to the base station a maximum value of the HSFN supported by the user equipment as capability information. a transmission and reception unit configured to transmit and receive radio signals to/from a base station; and a DRX unit configured to discontinuously receive the radio signals transmitted from the base station, wherein the DRX unit manages a system frame number, SFN, a subframe number and a hyper SFN, HSFN, in radio communication with the base station, wherein the HSFN counts how many times the SFN wraps around, and uses the HSFN to activate an extended DRX, eDRX, having a specified reception period, wherein the transmission and reception unit indicates to the base station a maximum value of the HSFN supported by the user equipment as capability information.
A lens edging system, comprising: an edger configured to perform edging of a spectacle lens using an edging tool; a shape measurement device configured to measure an edging shape of a circumferential edge of the spectacle lens after edging by the edger; a memory part configured to store information regarding a reference shape of the edging tool used by the edger; a shape comparing and judging part configured to compare a measurement result obtained by the shape measurement device and a reference shape of the edging tool specified from the information stored in the memory part, and judge necessity/non-necessity for exchanging the edging tool based on a comparison result; and an information output part configured to output information regarding necessity for exchange when the shape comparing and judging part so judges, wherein the shape comparing and judging part judges necessity/non-necessity for exchanging the edging tool, by comparing an edging shape of the circumferential edge of the spectacle lens and a reference shape of the edging tool and calculating a difference degree between them, and dividing a calculation result of the difference degree by an edge thickness of the lens at a measurement point of the edging shape, thereby obtaining a value converted to a difference per unit thickness, and comparing the converted value and a predefined threshold value. an edger configured to perform edging of a spectacle lens using an edging tool; a shape measurement device configured to measure an edging shape of a circumferential edge of the spectacle lens after edging by the edger; a memory part configured to store information regarding a reference shape of the edging tool used by the edger; a shape comparing and judging part configured to compare a measurement result obtained by the shape measurement device and a reference shape of the edging tool specified from the information stored in the memory part, and judge necessity/non-necessity for exchanging the edging tool based on a comparison result; and an information output part configured to output information regarding necessity for exchange when the shape comparing and judging part so judges, wherein the shape comparing and judging part judges necessity/non-necessity for exchanging the edging tool, by comparing an edging shape of the circumferential edge of the spectacle lens and a reference shape of the edging tool and calculating a difference degree between them, and dividing a calculation result of the difference degree by an edge thickness of the lens at a measurement point of the edging shape, thereby obtaining a value converted to a difference per unit thickness, and comparing the converted value and a predefined threshold value.
A hot-stamping formed body comprising, as a chemical composition, by mass%: C: more than 0.50% and 1.00% or less; Si: 0.50% to 3.00%; Mn: more than 3.00% and 5.00% or less; Al: 0.100% to 3.000%; Co: 0.100% to 3.000%; P: 0.100% or less; S: 0.1000% or less; N: 0.0100% or less; Nb: 0% to 0.150%; Ti: 0% to 0.150%; Mo: 0% to 1.00%; Cr: 0% to 1.00%; Cu: 0% to 1.00%; V: 0% to 1.00%; W: 0% to 1.00%; Ni: 0% to 3.00%; Mg: 0% to 1.00%; Zr: 0% to 1.00%; Sb: 0% to 1.00%; Ca: 0% to 0.10%; REM: 0% to 0.30%; B: 0% to 0.0100%; and a remainder consisting of Fe and impurities; and microstructure which includes residual austenite of which an area ratio is in a range of 20% to 30%, bainite and tempered martensite of which a total area ratio is in a range of 70% to 80%, and a remainder in microstructure of which an area ratio is less than 5%, among grain boundaries of crystal grains of the bainite and the tempered martensite, a ratio of a length of a grain boundary having a rotation angle in a range of 55° to 75° to a total length of a grain boundary having a rotation angle in a range of 4° to 12°, a grain boundary having a rotation angle in a range of 49° to 54°, and a grain boundary having a rotation angle in the range of 55° to 75° to the <011> direction as a rotation axis is 30% or more, and in which the microstructure and the length of the grain boundary are determined according to the method disclosed in the description. C: more than 0.50% and 1.00% or less; Si: 0.50% to 3.00%; Mn: more than 3.00% and 5.00% or less; Al: 0.100% to 3.000%; Co: 0.100% to 3.000%; P: 0.100% or less; S: 0.1000% or less; N: 0.0100% or less; Nb: 0% to 0.150%; Ti: 0% to 0.150%; Mo: 0% to 1.00%; Cr: 0% to 1.00%; Cu: 0% to 1.00%; V: 0% to 1.00%; W: 0% to 1.00%; Ni: 0% to 3.00%; Mg: 0% to 1.00%; Zr: 0% to 1.00%; Sb: 0% to 1.00%; Ca: 0% to 0.10%; REM: 0% to 0.30%; B: 0% to 0.0100%; and a remainder consisting of Fe and impurities; and microstructure which includes residual austenite of which an area ratio is in a range of 20% to 30%, bainite and tempered martensite of which a total area ratio is in a range of 70% to 80%, and a remainder in microstructure of which an area ratio is less than 5%, among grain boundaries of crystal grains of the bainite and the tempered martensite, a ratio of a length of a grain boundary having a rotation angle in a range of 55° to 75° to a total length of a grain boundary having a rotation angle in a range of 4° to 12°, a grain boundary having a rotation angle in a range of 49° to 54°, and a grain boundary having a rotation angle in the range of 55° to 75° to the <011> direction as a rotation axis is 30% or more, and in which the microstructure and the length of the grain boundary are determined according to the method disclosed in the description.
A computer-implemented method for determining fluid flow and acoustics through a three-dimensional porous material, the method comprising: obtaining measured geometrical and physical characteristics of the three-dimensional porous material; modeling, using the measured geometrical and physical characteristics, the three-dimensional porous material as a two-dimensional interface having a length, a width, and an insignificant thickness in a simulation space (1502, 1506), in which fluid flows and sound waves travel through the porous material and experience pressure and acoustic losses; simulating, using the measured geometrical and physical characteristics, in the simulation space (1502, 1506), fluid flow and propagation of sound waves, the activity of the fluid being simulated so as to simulate movement of elements within the simulation space (1502, 1506) and across the two-dimensional interface, where the simulation of the movement of the elements across the two-dimensional interface is governed by the model; and determining acoustic damping characteristics of the three-dimensional porous material based on the simulation. obtaining measured geometrical and physical characteristics of the three-dimensional porous material; modeling, using the measured geometrical and physical characteristics, the three-dimensional porous material as a two-dimensional interface having a length, a width, and an insignificant thickness in a simulation space (1502, 1506), in which fluid flows and sound waves travel through the porous material and experience pressure and acoustic losses; simulating, using the measured geometrical and physical characteristics, in the simulation space (1502, 1506), fluid flow and propagation of sound waves, the activity of the fluid being simulated so as to simulate movement of elements within the simulation space (1502, 1506) and across the two-dimensional interface, where the simulation of the movement of the elements across the two-dimensional interface is governed by the model; and determining acoustic damping characteristics of the three-dimensional porous material based on the simulation.
A head-up display having a glare trap and an eye-box, wherein the head-up display comprises: a picture generating unit; an optical system comprising at least one mirror, a cover glass and a beam splitter, wherein the beam splitter is substantially reflective to infrared light and transmissive to visible light; an infrared image capture device (660; 712) disposed within the volume of the optical system; and a plurality of infrared light sources packaged with the glare trap (704; 716), wherein the infrared light sources are arranged to illuminate the eye-box; wherein the glare trap is transmissive to infrared light, and wherein infrared light reflected off a viewer at the eye-box has an infrared light path through the glare trap and comprises a reflection from the beam splitter to the infrared image capture device. a picture generating unit; an optical system comprising at least one mirror, a cover glass and a beam splitter, wherein the beam splitter is substantially reflective to infrared light and transmissive to visible light; an infrared image capture device (660; 712) disposed within the volume of the optical system; and a plurality of infrared light sources packaged with the glare trap (704; 716), wherein the infrared light sources are arranged to illuminate the eye-box; wherein the glare trap is transmissive to infrared light, and wherein infrared light reflected off a viewer at the eye-box has an infrared light path through the glare trap and comprises a reflection from the beam splitter to the infrared image capture device.
Locking device made as a nut provided with an axial threaded seat or bore or as a bolt provided with a cylindrical axial threaded stem, comprising a body (13;113;213) in which a guide portion (17;217) is defined, which may also be an engaging portion, for an actuating wrench for rotating the nut or bolt when the device is to be engaged onto a threaded stem or into a threaded seat or bore, respectively, wherein the guide portion (17;217) comprises a hollow cap (19; 219), wherein the guide portion (17;217) comprises at least one face which is concave relative to a transverse plane and the cap (19;219) comprises in its inside at least one complementary convex face, characterized in that the body (13;113;213) of the device is made of steel and the cap (19;219) is made of stainless steel.
Device, in particular a Micro-Electro-Mechanical-System, MEMS, mirror, comprising: a movable structure configured to rotate around at least one axis of rotation; one micro-magnet connected to the moveable structure, wherein the micro-magnet is cylindrical and has an aspect ratio larger than 1:1; wherein a rotation of the moveable structure around the at least one axis of rotation rotates the micro-magnet around the same axis of rotation; and a fixed structure comprising an arrangement of two or more magnetic field sensors positioned at a certain distance (h mag) below the micro-magnet, wherein the distance (h mag) between the fixed structure and the micro-magnet is in the range between 5 μm to 1000 μm, wherein the arrangement of the magnetic field sensors is configured to sense a change of a magnetic field distribution caused by a rotation of the micro-magnet. a movable structure configured to rotate around at least one axis of rotation; one micro-magnet connected to the moveable structure, wherein the micro-magnet is cylindrical and has an aspect ratio larger than 1:1; wherein a rotation of the moveable structure around the at least one axis of rotation rotates the micro-magnet around the same axis of rotation; and a fixed structure comprising an arrangement of two or more magnetic field sensors positioned at a certain distance (h mag) below the micro-magnet, wherein the distance (h mag) between the fixed structure and the micro-magnet is in the range between 5 μm to 1000 μm, wherein the arrangement of the magnetic field sensors is configured to sense a change of a magnetic field distribution caused by a rotation of the micro-magnet.