mhurhangee/ep-ind-claims huggingface dataset:
A device configured for performing localization using one or both of a depth sensor and a monocular camera that are transportable with the device, the device comprising: at least one processor operationally connected to the depth sensor and the monocular camera; at least one memory storing program code that is executed by the at least one processor to perform operations to: receive depth data from the depth sensor; determine a benefit level of activating the monocular camera for localization, based on the depth data; and activate the monocular camera for localization based on a determination that the benefit level of activating the monocular camera satisfies an activation rule; characterized in that the benefit level of activating the monocular camera for localization is determined based on: converting the depth data, which represents a 3-dimensional, 3D, localization map, to 2-dimensional, 2D, depth data representing a 2D depth image; generating an approximation of depth information that can be acquired from the monocular camera if activated, based on the 2D depth image; and determining the benefit level of activating the monocular camera for localization based on the approximation of depth information. at least one processor operationally connected to the depth sensor and the monocular camera; at least one memory storing program code that is executed by the at least one processor to perform operations to: receive depth data from the depth sensor; determine a benefit level of activating the monocular camera for localization, based on the depth data; and activate the monocular camera for localization based on a determination receive depth data from the depth sensor; determine a benefit level of activating the monocular camera for localization, based on the depth data; and activate the monocular camera for localization based on a determination that the benefit level of activating the monocular camera satisfies an activation rule; characterized in that the benefit level of activating the monocular camera for localization is determined based on: converting the depth data, which represents a 3-dimensional, 3D, localization map, to 2-dimensional, 2D, depth data representing a 2D depth image; generating an approximation of depth information that can be acquired from the monocular camera if activated, based on the 2D depth image; and determining the benefit level of activating the monocular camera for localization based on the approximation of depth information. converting the depth data, which represents a 3-dimensional, 3D, localization map, to 2-dimensional, 2D, depth data representing a 2D depth image; generating an approximation of depth information that can be acquired from the monocular camera if activated, based on the 2D depth image; and determining the benefit level of activating the monocular camera for localization based on the approximation of depth information.
A lean duplex stainless steel superior in corrosion resistance of a weld characterized in that the duplex stainless steel consists of by mass%: C: 0.001 to 0.06%, Si: 0.1 to 1.5%, Mn: 2.0 to 4.0%, P: 0.005 to 0.05%, S: 0.0001 to 0.005%, Cr: 23.0 to 27.0%, Ni: 2.0 to 6.0%, Mo: 0.5 to 2.5%, Cu: 0.5 to 3.0%, V: 0.05 to 0.25%, Al: 0.003 to 0.045%, O: 0.0005 to 0.007%, and N: 0.20 to 0.28%; and comprises further one, or two or more, selected from: Ca: 0.0005 to 0.0050%, Mg: 0.0005 to 0.0050%, and REM: 0.005 to 0.050%; and optionally comprises one, or two or more, selected from: Nb: 0.02 to 0.08%, Co: 0.02 to 1.00%, B: 0.0040% or less, Ti: 0.05% or less, Zr: 0.02% or less, Ta: 0.07% or less, W: 1.0% or less, and Sn: 0.1% or less; and the balance being Fe and unavoidable impurities; wherein the area ratio of an austenite phase is 40 to 70%; the PI value according to the following formula 1 is 30 to 38; the NI value according to the following formula 2 is 100 to 140; and the estimated value of the equilibrium precipitation temperature for an austenite phase (γpre) according to the following formula 3 is 1350 to 1450; PI = Cr + 3, 3 Mo + 16 N NI = Cr + Mo / N γpre = − 15 Cr − 28 Si − 12 Mo + 19 Ni + 4 Mn + 19 Cu + 770 N + 1160 C + 1475 and if Nb is present, the value of the following Formula 4 is 0.003 to 0.015 Nb × N wherein in the formulas each element name represents the content thereof by mass-%. C: 0.001 to 0.06%, Si: 0.1 to 1.5%, Mn: 2.0 to 4.0%, P: 0.005 to 0.05%, S: 0.0001 to 0.005%, Cr: 23.0 to 27.0%, Ni: 2.0 to 6.0%, Mo: 0.5 to 2.5%, Cu: 0.5 to 3.0%, V: 0.05 to 0.25%, Al: 0.003 to 0.045%, O: 0.0005 to 0.007%, and N: 0.20 to 0.28%; Ca: 0.0005 to 0.0050%, Mg: 0.0005 to 0.0050%, and REM: 0.005 to 0.050%; Nb: 0.02 to 0.08%, Co: 0.02 to 1.00%, B: 0.0040% or less, Ti: 0.05% or less, Zr: 0.02% or less, Ta: 0.07% or less, W: 1.0% or less, and Sn: 0.1% or less;
A safety barrier comprising a transmitter and a receiver connected to the transmitter via a feedback path, the transmitter comprising: a source of electromagnetic radiation; a charge storage means; actuation means arranged to cause the source to intermittently emit electromagnetic radiation, wherein the intensity of emission of electromagnetic radiation is determined by the amount of charge stored in the charge storage means; and setting means arranged to set the intensity of the electromagnetic radiation by storing a predetermined charge in the charge storage means in a period of time when the actuation means does not cause the source to emit electromagnetic radiation; Characterised In That: the receiver is arranged to provide an indication via the feedback path whether electromagnetic radiation consistent with electromagnetic radiation emitted by the transmitter is received at the receiver, the transmitter arranged to monitor the feedback path and to cause the setting means to increase the predetermined intensity if, after a preceding decrease in the predetermined intensity, the indication on the feedback path has changed to no longer indicate that electromagnetic radiation consistent with electromagnetic radiation emitted by the transmitter is being received at the receiver. a source of electromagnetic radiation; a charge storage means; actuation means arranged to cause the source to intermittently emit electromagnetic radiation, wherein the intensity of emission of electromagnetic radiation is determined by the amount of charge stored in the charge storage means; and setting means arranged to set the intensity of the electromagnetic radiation by storing a predetermined charge in the charge storage means in a period of time when the actuation means does not cause the source to emit electromagnetic radiation; Characterised In That: the receiver is arranged to provide an indication via the feedback path whether electromagnetic radiation consistent with electromagnetic radiation emitted by the transmitter is received at the receiver, the transmitter arranged to monitor the feedback path and to cause the setting means to increase the predetermined intensity if, after a preceding decrease in the predetermined intensity, the indication on the feedback path has changed to no longer indicate that electromagnetic radiation consistent with electromagnetic radiation emitted by the transmitter is being received at the receiver.
A hot-plate stirrer system comprising: - at least one non-contact temperature sensor functionally connected to a control unit of the hot-plate stirrer system, the control unit controlling a heating of a heat-able plate and an operation of a magnetised stir-able device, - a holder, - a glass container, wherein the holder and the glass container are designed such that the holder without being in contact with the heat-able plate, holds the glass container such that the glass container is in contact with the heat-able plate, and - an engagement/positioning means (25, 25') to couple with the holder for the glass container by means of engagement/positioning means (80, 80') at a base of the holder. - at least one non-contact temperature sensor functionally connected to a control unit of the hot-plate stirrer system, the control unit controlling a heating of a heat-able plate and an operation of a magnetised stir-able device, - a holder, - a glass container, wherein the holder and the glass container are designed such that the holder without being in contact with the heat-able plate, holds the glass container such that the glass container is in contact with the heat-able plate, and - an engagement/positioning means (25, 25') to couple with the holder for the glass container by means of engagement/positioning means (80, 80') at a base of the holder.
An apparatus, comprising: a gear comprising a gear hub; a swing-arm rotationally mounted on the gear hub; and a compressive member circumferentially mounted on the gear hub and the swing-arm to apply a radial clamping force between the swing-arm and the gear hub, wherein torque is frictionally coupled from the gear hub to the swing-arm to lock a capped print head assembly in a non-printing location by engaging the swing-arm with a hook of a cap sled assembly. a gear comprising a gear hub; a swing-arm rotationally mounted on the gear hub; and a compressive member circumferentially mounted on the gear hub and the swing-arm to apply a radial clamping force between the swing-arm and the gear hub, wherein torque is frictionally coupled from the gear hub to the swing-arm to lock a capped print head assembly in a non-printing location by engaging the swing-arm with a hook of a cap sled assembly.
Use of a composition comprising the combination of at least two types of particles of inorganic oxide materials, where each of the at least two types of particles has a different size and/or morphology, where the variation in the particle size distribution is less than 20% of the mean particle size and where the inorganic oxide materials have at least one transition metal or one lanthanide element, and radiofrequency wave absorption properties, for preparing or marking a security document or article.
Device for limiting or regulating the temperature in a cooking utensil, intended to be heated by an electromagnetic induction generator, said device comprising: - a holding body of a coil, said holding body comprising a nonmagnetic and non-conductive part intended to face the electromagnetic induction generator with respect to the coil, - the coil held by the holding body, and - an impedance transition means connected to the coil and having: - a first operating state, wherein the coil is placed in a first electrical state of high impedance, - a second operating state, wherein the coil is placed in a second electrical state of low impedance, characterized in that said device having a thermal operating mode, wherein the impedance transition means passes from the first operating state thereof the second operating state thereof and vice versa according to predetermined temperature conditions of the impedance transition means. - a holding body of a coil, said holding body comprising a nonmagnetic and non-conductive part intended to face the electromagnetic induction generator with respect to the coil, - the coil held by the holding body, and - an impedance transition means connected to the coil and having: - a first operating state, wherein the coil is placed in a first electrical state of high impedance, - a second operating state, wherein the coil is placed in a second electrical state of low impedance, characterized in that said device having a thermal operating mode, wherein the impedance transition means passes from the first operating state thereof the second operating state thereof and vice versa according to predetermined temperature conditions of the impedance transition means. - a first operating state, wherein the coil is placed in a first electrical state of high impedance, - a second operating state, wherein the coil is placed in a second electrical state of low impedance,
A fiber component having a fusion splice section for connecting optical fibers (101A, 102), comprising: a plurality of first optical fibers for transmitting light, each including a first core, a second optical fiber for receiving the light including: a second core; a first inner resin coat for covering the second core, having a refractive index lower than refractive index of the second core; and a first outer resin coat for covering the first inner resin coat; and a fusion splice section for connecting the plurality of first optical fibers with the second optical fiber, an area adjacent to the fusion splice section contains a resin-coat removed section in which the first outer resin coat and the first inner resin coat of the second optical fiber are removed, an area adjacent to the resin-coat removed section contains a boundary section in which the first outer resin coat of the second optical fiber is removed and the first inner resin coat is exposed to outside, and each of the first cores tapers down toward the fusion splice section. a plurality of first optical fibers for transmitting light, each including a first core, a second optical fiber for receiving the light including: a second core; a first inner resin coat for covering the second core, having a refractive index lower than refractive index of the second core; and a first outer resin coat for covering the first inner resin coat; and a second core; a first inner resin coat for covering the second core, having a refractive index lower than refractive index of the second core; and a first outer resin coat for covering the first inner resin coat; and a fusion splice section for connecting the plurality of first optical fibers with the second optical fiber, an area adjacent to the fusion splice section contains a resin-coat removed section in which the first outer resin coat and the first inner resin coat of the second optical fiber are removed, an area adjacent to the resin-coat removed section contains a boundary section in which the first outer resin coat of the second optical fiber is removed and the first inner resin coat is exposed to outside, and each of the first cores tapers down toward the fusion splice section.
Connecting profile strip for components adjoining plaster, such as window or door frames, as well as roller shutter elements, having a sealing limb, which at least indirectly carries a sealing strip, and having a plastering limb, wherein the sealing strip is at least indirectly connected to the plastering limb via a flexible strip, wherein the strip is accommodated in a receiving space when the sealing strip is arranged to lie at least indirectly against the sealing limb, wherein a profile part is provided on the plastering limb opposite the sealing limb, wherein the profile part has two limbs (13 and 14) which delimit the receiving space for the strip, and wherein the receiving space is open away from the plastering limb, wherein the sealing strip rests against the sealing limb via a supporting strip, and wherein the strip, once folded, is accommodated in the receiving space substantially in its entirety, characterized in that the profile part is composed of the two limbs (13 and 14) which are at an obtuse angle to one another, in that the flexible strip is connected at its longitudinal edge, which is associated with the supporting strip, to the longitudinal edge of the supporting strip adjacent to the receiving space and disposed adjoining the receiving space, in that the strip is connected with its longitudinal edge, which is adjacent to the receiving space, to the profile part at the free edge of the limb on which a plaster strip is provided and to which a protective limb is connected.
A method for fabricating a single nanopore in a membrane, comprising: - selecting an electric potential that induces an electric field in the membrane, where the electric field has a value greater than 0.1 volt per nanometer; - applying the electric potential across a membrane comprised of a dielectric material, where the membrane is immersed in a solution containing ions; - monitoring leakage current across the membrane while the electric potential is being applied across the membrane; - detecting an abrupt increase in the leakage current across the membrane while the electric potential is being applied across the membrane; and - removing the electric potential across the membrane in response to detecting the abrupt increase in the leakage current to stop the pore fabrication. - selecting an electric potential that induces an electric field in the membrane, where the electric field has a value greater than 0.1 volt per nanometer; - applying the electric potential across a membrane comprised of a dielectric material, where the membrane is immersed in a solution containing ions; - monitoring leakage current across the membrane while the electric potential is being applied across the membrane; - detecting an abrupt increase in the leakage current across the membrane while the electric potential is being applied across the membrane; and - removing the electric potential across the membrane in response to detecting the abrupt increase in the leakage current to stop the pore fabrication.
A method in a first terminal device for facilitating direct communication with a second terminal device, comprising: - transmitting to the second terminal device a Modulation and Coding Scheme, MCS, index, based on which the second terminal device can selectively obtain a modulation order and a Transport Block Size, TBS, in accordance with a first mapping or a second mapping between MCS indices on one hand and modulation orders and TBSs on the other, wherein the MCS index is determined by the first terminal device by selectively applying the first or second mapping, - transmitting to the second terminal device a Modulation and Coding Scheme, MCS, index, based on which the second terminal device can selectively obtain a modulation order and a Transport Block Size, TBS, in accordance with a first mapping or a second mapping between MCS indices on one hand and modulation orders and TBSs on the other,
A method of representing a sound field by display on a physical space, the method comprising: capturing sound from the physical space with a sound transducer array (100, 200, 700, 930, 1600, 1900); calculating a sound projection pattern of the captured sound, wherein the sound projection pattern comprises a representation of a sound field of the captured sound; and displaying the sound projection pattern on the physical space from which sound is captured, the sound projection pattern extending between the sound transducer array and an intended user. capturing sound from the physical space with a sound transducer array (100, 200, 700, 930, 1600, 1900); calculating a sound projection pattern of the captured sound, wherein the sound projection pattern comprises a representation of a sound field of the captured sound; and displaying the sound projection pattern on the physical space from which sound is captured, the sound projection pattern extending between the sound transducer array and an intended user.
Decorative panel, in particular a floor panel, ceiling panel or wall panel wherein a first panel edge preferably comprises a first coupling profile, and a second panel edge, preferably opposite to the first panel edge, preferably comprises a second coupling profile being designed to engage interlockingly with said first coupling profile of an adjacent panel, both in horizontal direction and in vertical direction, wherein said decorative panel further comprises: - a core provided with an upper side and a lower side, - a decorative top structure affixed, directly or indirectly, on said upper side of the core, said decorative top structure comprising: o at least one, preferably digitally printed, decorative layer forming at least one décor image, and o at least one transparent and/or translucent protective layer covering said decorative layer; characterized in that said decorative panel also comprises: - at least one intermediate layer (71,79) comprising non-human collagen, wherein said at least one intermediate layer (71, 79) is positioned underneath said decorative top structure. - a core provided with an upper side and a lower side, - a decorative top structure affixed, directly or indirectly, on said upper side of the core, said decorative top structure comprising: o at least one, preferably digitally printed, decorative layer forming at least one décor image, and o at least one transparent and/or translucent protective layer covering said decorative layer; o at least one, preferably digitally printed, decorative layer forming at least one décor image, and o at least one transparent and/or translucent protective layer covering said decorative layer; - at least one intermediate layer (71,79) comprising non-human collagen, wherein said at least one intermediate layer (71, 79) is positioned underneath said decorative top structure.
A compound chosen from a halogenated alkyl or aryl ester of an unsaturated fatty acid, wherein the unsaturated fatty acid is cyclopropanated, and wherein the alkoxy or aryloxy group of the ester has at least one hydrogen atom replaced with a fluorine atom.
Electric circuit board, in particular a printed circuit board, for an aircraft solid state power controller, the electric circuit board comprising a power connection assembly comprising a power connector and a complementary connection element, the power connector comprising: a first portion including a socket configured for receiving an electric plug, which is insertable into the socket in a receiving direction; and a second portion comprising a connection surface configured for mating with a complementary connection surface of the complementary connection element; wherein at least one opening is formed within the connection surface; wherein the complementary connection element comprises a complementary connection surface, which is configured for mating with the connection surface formed at the second portion of the power connector; and wherein the connection surface and the complementary connection surface extend in a direction parallel, or essentially parallel, to the plane of the electric circuit board; characterized in that the power connector further comprises a connection channel extending between the socket and a lower surface (81 b) of the power connector, and at least one electric connector arranged within the connection channel; and in that the electric circuit board further comprises at least one conducting path electrically connecting with the electric connector, which is arranged within the connection channel. a first portion including a socket configured for receiving an electric plug, which is insertable into the socket in a receiving direction; and a second portion comprising a connection surface configured for mating with a complementary connection surface of the complementary connection element; wherein at least one opening is formed within the connection surface; wherein the complementary connection element comprises a complementary connection surface, which is configured for mating with the connection surface formed at the second portion of the power connector; and wherein the connection surface and the complementary connection surface extend in a direction parallel, or essentially parallel, to the plane of the electric circuit board; characterized in that the power connector further comprises a connection channel extending between the socket and a lower surface (81 b) of the power connector, and at least one electric connector arranged within the connection channel; and in that the electric circuit board further comprises at least one conducting path electrically connecting with the electric connector, which is arranged within the connection channel.