mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for holding radioactive objects, comprising: a base; a central pillar extending upwardly between a bottom end coupled to the base and a top end above the base; a plurality of inner segments spaced around the central pillar; and a plurality of outer segments spaced around the inner segments to form pairs, wherein the inner segments, the outer segments and the central pillar are coupled together to permit limited radial movement of at least one of the segments (16, 18) of each pair, wherein each pair defines a generally vertical, object-receiving channel arranged between the inner and outer segment (16, 18) of the pair, wherein the segments (16, 18) of each pair are adapted to bear against an object in the channel of the pair to laterally restrain the object and facilitate heat transfer from the object, and characterised in that each of the inner segments is adapted to move generally radially with respect to the central pillar. a base; a central pillar extending upwardly between a bottom end coupled to the base and a top end above the base; a plurality of inner segments spaced around the central pillar; and a plurality of outer segments spaced around the inner segments to form pairs, wherein the inner segments, the outer segments and the central pillar are coupled together to permit limited radial movement of at least one of the segments (16, 18) of each pair, wherein each pair defines a generally vertical, object-receiving channel arranged between the inner and outer segment (16, 18) of the pair, wherein the segments (16, 18) of each pair are adapted to bear against an object in the channel of the pair to laterally restrain the object and facilitate heat transfer from the object, and characterised in that each of the inner segments is adapted to move generally radially with respect to the central pillar.
A method for configuring a given playback device, the method comprising: transmitting, by at least one computing device (610, 701), playback device configuration information to a given playback device that is located in a particular playback environment; receiving, by the at least one computing device (610, 701), calibration data corresponding to a plurality of playback devices (704a, 704b, 704c), wherein each respective playback device of the plurality of playback devices (704a, 704b, 704c) is located in a different, respective playback environment (705a, 705b, 705c) other than the particular playback environment in which the given playback device is located; receiving, by the at least one computing device (610, 701), playback device characteristic data indicating at least one playback device characteristic for each respective playback device of the plurality of playback devices; based on at least the received calibration data and the received playback device characteristic data, determining updated playback device configuration information; and transmitting data indicating the updated playback device configuration information to the given playback device. transmitting, by at least one computing device (610, 701), playback device configuration information to a given playback device that is located in a particular playback environment; receiving, by the at least one computing device (610, 701), calibration data corresponding to a plurality of playback devices (704a, 704b, 704c), wherein each respective playback device of the plurality of playback devices (704a, 704b, 704c) is located in a different, respective playback environment (705a, 705b, 705c) other than the particular playback environment in which the given playback device is located; receiving, by the at least one computing device (610, 701), playback device characteristic data indicating at least one playback device characteristic for each respective playback device of the plurality of playback devices; based on at least the received calibration data and the received playback device characteristic data, determining updated playback device configuration information; and transmitting data indicating the updated playback device configuration information to the given playback device.
Compact density measuring instrument for measuring density of fluids in a volume in a container, especially in a fluid flow in a pipe, the container wall including a cavity that has a depth less than the thickness of the container wall, the instrument comprising a radiation source in the gamma range positioned on one side of the fluid and a detector positioned on the opposite side of the fluid for receiving said radiation, and the fluid being contained in the container, wherein the source is positioned in a source housing, said source housing being at least partially fitted into the cavity in the container wall, said source housing comprises a source holder containing the gamma source positioned in the holder axis and comprising a channel from the source through one end of the holder, said one end adapted to be aimed toward the fluid, wherein the outer part of said one end of the source holder being a conically shaped tip provided on the source holder which protrudes into the pipe wall wherein the channel in the core extends through the source holder and out from the tip (10 thus protruding toward the fluid and being adapted to fitted into said corresponding cavity in the container wall, thus leaving a part of the container wall between the top of the tip and the fluid.
A vacuum insulation panel, comprising glass fibers as a core material, a gas adsorbent for adsorbing moisture and gas from an inside of the vacuum insulation panel, and an airtight sealing member for sealing the glass fibers, characterized in that the glass fibers are annealed binderless glass fibers obtained by annealing binderless glass fibers for a period of time ranging from 0.5 min to less than 20 min using an annealing furnace at 300 ∼ 700°C.
An aluminum sintering material that is used for producing a porous aluminum sintered compact, wherein a plurality of aluminum base materials are sintered together in the porous aluminum sintered compact, the aluminum sintering material comprising: the aluminum base materials; and a plurality of titanium powder particles fixed to outer surfaces of the aluminum base materials, wherein the aluminum base materials are composed of aluminum powder and aluminum fibers with a ratio of aluminum powder set to be in a range of 1.0 mass% to 10 mass%, fiber diameters of the aluminum fibers are set to be in the range of 40 μm to 300 μm, particle diameters of the aluminum powder are set to be in the range of 20 μm to 300 μm, an amount of the titanium powder particles is set to be in the range of 0.5 mass% to 20 mass%, particle diameters of the titanium powder particles are set to be in the range of 1 μm to 50 μm, and wherein the titanium powder particles are composed of either one or both of metallic titanium powder particles and hydrogenated titanium powder particles. the aluminum base materials; and a plurality of titanium powder particles fixed to outer surfaces of the aluminum base materials, wherein the aluminum base materials are composed of aluminum powder and aluminum fibers with a ratio of aluminum powder set to be in a range of 1.0 mass% to 10 mass%, fiber diameters of the aluminum fibers are set to be in the range of 40 μm to 300 μm, particle diameters of the aluminum powder are set to be in the range of 20 μm to 300 μm, an amount of the titanium powder particles is set to be in the range of 0.5 mass% to 20 mass%, particle diameters of the titanium powder particles are set to be in the range of 1 μm to 50 μm, and wherein the titanium powder particles are composed of either one or both of metallic titanium powder particles and hydrogenated titanium powder particles.
An electromechanical valve, comprising a housing and comprising in the housing - a core of a magnetic material surrounded by a coil of the valve to be supplied with excitation current, - a valve seat, and - a valve washer of a magnetic material arranged in a space to open/close the valve in response to an excitation current supplied to said coil by moving in the space between the valve seat and the core, and wherein said valve washer is formed by multiple stacked plates (91, 95, 96) made of a magnetic material providing a return spring force when the valve washer is attracted to by the energized coil, said plates being at least partially displaceable in relation to each other in at least one direction, wherein the plates (91, 95, 96) are provided with slits (97, 98), wherein the plates (91, 95, 96) are generally circular and the slits (97, 98) are provided in a radial direction, characterised in that the width of the slits (97, 98) increases in a radial direction towards the perimeter edge of the plates (91, 95, 96). - a core of a magnetic material surrounded by a coil of the valve to be supplied with excitation current, - a valve seat, and - a valve washer of a magnetic material arranged in a space to open/close the valve in response to an excitation current supplied to said coil by moving in the space between the valve seat and the core, and wherein said valve washer is formed by multiple stacked plates (91, 95, 96) made of a magnetic material providing a return spring force when the valve washer is attracted to by the energized coil, said plates being at least partially displaceable in relation to each other in at least one direction, wherein the plates (91, 95, 96) are provided with slits (97, 98), wherein the plates (91, 95, 96) are generally circular and the slits (97, 98) are provided in a radial direction,
A method of context-based monitoring of sensors, comprising: obtaining, by a first computing device, an output of a first sensor; determining, by the first computing device, whether an anomaly event is likely to occur based, at least in part, on the obtained output of the first sensor; transmitting, prior to occurrence of the anomaly event, a message to at least a second computing device, wherein the message is configured to cause the at least second computing device to log output of sensors of the at least second computing device in response to determining that the anomaly event is likely to occur; determining, by the first computing device, whether the anomaly event occurred; transmitting, by the first computing device, a sensor output request in response to determining that the anomaly event occurred, wherein the sensor output request is configured to cause the at least second computing device to transmit, to the first computing device, sensor output data including the logged output of the sensors of the at least second computing device; receiving, by the first computing device, the sensor output data from the at least second computing device. obtaining, by a first computing device, an output of a first sensor; determining, by the first computing device, whether an anomaly event is likely to occur based, at least in part, on the obtained output of the first sensor; transmitting, prior to occurrence of the anomaly event, a message to at least a second computing device, wherein the message is configured to cause the at least second computing device to log output of sensors of the at least second computing device in response to determining that the anomaly event is likely to occur; determining, by the first computing device, whether the anomaly event occurred; transmitting, by the first computing device, a sensor output request in response to determining that the anomaly event occurred, wherein the sensor output request is configured to cause the at least second computing device to transmit, to the first computing device, sensor output data including the logged output of the sensors of the at least second computing device; receiving, by the first computing device, the sensor output data from the at least second computing device.
A flexible heating device comprising one or more flexible heating pad, the flexible heating pad comprising: a flexible substrate layer; an electroconductive heat module formed over the flexible substrate layer and comprising a first electrode, a second electrode, a flexible heat generating flayer, and a lateral heat transferring layer; the first and second electrodes being apart from each other; the flexible heat generating layer interposed and electrically connecting between the first and second electrodes; wherein the flexible heat generating layer is made of an electrically conductive material having a surface resistance sufficient to generate two-dimensional electroconductive heating when an electric current flows between the first and second electrodes; the lateral heat transfer layer is interposed between the flexible substrate layer and the flexible heat generating layer, and is configured for laterally transferring heat from the flexible heat generating layer, characterized in that the flexible heat generating layer comprises a number of perforations formed through a thickness thereof and in that the lateral heat transfer layer comprises a number of thermally conductive pouches overlaying at least one of the perforations to reduce a temperature gradient between inside and around the at least one perforation. a flexible substrate layer; an electroconductive heat module formed over the flexible substrate layer and comprising a first electrode, a second electrode, a flexible heat generating flayer, and a lateral heat transferring layer; the first and second electrodes being apart from each other; the flexible heat generating layer interposed and electrically connecting between the first and second electrodes; wherein the flexible heat generating layer is made of an electrically conductive material having a surface resistance sufficient to generate two-dimensional electroconductive heating when an electric current flows between the first and second electrodes; the lateral heat transfer layer is interposed between the flexible substrate layer and the flexible heat generating layer, and is configured for laterally transferring heat from the flexible heat generating layer, characterized in that the flexible heat generating layer comprises a number of perforations formed through a thickness thereof and in that the lateral heat transfer layer comprises a number of thermally conductive pouches overlaying at least one of the perforations to reduce a temperature gradient between inside and around the at least one perforation.
A flow meter, comprising: a flow conduit; a driver configured to vibrate the conduit; a first pick-off including a first pick-off component and a second pick-off component; a reference member disposed proximate the flow conduit, wherein the first pick-off component is coupled to the reference member and the second pick-off component is coupled to the conduit proximate the first pick-off component; and characterized by: an active portion of the reference member adapted to vibrate about a bending axis (W-W); and a balancing element coupled to the reference member sized and located such that a momentum of the balancing element is substantially opposite and equal to or greater than a momentum of the active portion of the reference member. about the bending axis (W-W) a flow conduit; a driver configured to vibrate the conduit; a first pick-off including a first pick-off component and a second pick-off component; a reference member disposed proximate the flow conduit, wherein the first pick-off component is coupled to the reference member and the second pick-off component is coupled to the conduit proximate the first pick-off component; and characterized by: an active portion of the reference member adapted to vibrate about a bending axis (W-W); and a balancing element coupled to the reference member sized and located such that a momentum of the balancing element is substantially opposite and equal to or greater than a momentum of the active portion of the reference member. about the bending axis (W-W)
A method for wireless communication, the method comprising: transmitting, by a wireless communication device, a first portion of a temporary identifier of the wireless communication device to a radio access network in a first message, wherein the first portion is a plurality of least significant bits of the temporary identifier, and characterised in that the temporary identifier comprises a temporary mobile subscriber identity and access and mobility management function information; and transmitting, by the wireless communication device, a second portion of the temporary identifier to the radio access network in a second message, wherein the second portion is a plurality of most significant bits of the temporary identifier. transmitting, by a wireless communication device, a first portion of a temporary identifier of the wireless communication device to a radio access network in a first message, wherein the first portion is a plurality of least significant bits of the temporary identifier, and characterised in that the temporary identifier comprises a temporary mobile subscriber identity and access and mobility management function information; and transmitting, by the wireless communication device, a second portion of the temporary identifier to the radio access network in a second message, wherein the second portion is a plurality of most significant bits of the temporary identifier.
A conveyor device comprising: - at least one moving member; - a plurality of containers carried by said at least one moving member and arranged one after the other, in which each container is configured to hold and carry at least one object along a path in a direction of advancement, wherein each container comprises at least two lateral containment walls for at least one object, wherein each lateral containment wall extends in length in a longitudinal direction that is transverse to said direction of advancement; - for each container, at least one rotating element configured to receive and support at least one object in such a way that a rotation of said at least one rotating element causes a rotation of the supported object; characterized in that, for each container, said at least two lateral containment walls are configured so as to be movable one with respect to the other so that it is possible to vary their reciprocal distance considered along said direction of advancement. - at least one moving member; - a plurality of containers carried by said at least one moving member and arranged one after the other, in which each container is configured to hold and carry at least one object along a path in a direction of advancement, wherein each container comprises at least two lateral containment walls for at least one object, wherein each lateral containment wall extends in length in a longitudinal direction that is transverse to said direction of advancement; - for each container, at least one rotating element configured to receive and support at least one object in such a way that a rotation of said at least one rotating element causes a rotation of the supported object;
A coil assembly for generating or for receiving alternating magnetic fields, said coil assembly comprising: at least one primary coil having at least one winding; and at least one secondary coil provided for a selective influencing of the resonance behavior of the coil assembly and having at least one winding, wherein the primary coil has a main conductor and a shielding conductor at least sectionally surrounding the main conductor; wherein the shielding conductor is electrically conductively connected to the main conductor and has at least one section (34, 34') which is electrically interrupted; and wherein the primary coil and the secondary coil are not electrically connected to one another. at least one primary coil having at least one winding; and at least one secondary coil provided for a selective influencing of the resonance behavior of the coil assembly and having at least one winding, wherein the primary coil has a main conductor and a shielding conductor at least sectionally surrounding the main conductor; wherein the shielding conductor is electrically conductively connected to the main conductor and has at least one section (34, 34') which is electrically interrupted; and wherein the primary coil and the secondary coil are not electrically connected to one another.
A method of forming a cushioned envelope, the method comprising: feeding a laminated web material comprising a cushioning web and a shell web, wherein each of the cushioning web and the shell web includes an inner side and an outer side, wherein the outer side of the cushioning web is laminated to the inner side of the shell web; applying a crimping adhesive to a first transverse seam of the inner side of the cushioning web and to a second transverse seam of the inner side of the cushioning web; folding the laminated web material so that the first transverse seam on the inner side of the cushioning web is folded in on itself and the second transverse seam on the inner side of the cushioning web is folded in on itself; after folding the laminated web material, crimping the laminated web material at the first transverse seam and at the second transverse seam; and after crimping the laminated web material, cutting the laminated web material at a location in the first transverse seam and at a location in the second transverse seam. feeding a laminated web material comprising a cushioning web and a shell web, wherein each of the cushioning web and the shell web includes an inner side and an outer side, wherein the outer side of the cushioning web is laminated to the inner side of the shell web; applying a crimping adhesive to a first transverse seam of the inner side of the cushioning web and to a second transverse seam of the inner side of the cushioning web; folding the laminated web material so that the first transverse seam on the inner side of the cushioning web is folded in on itself and the second transverse seam on the inner side of the cushioning web is folded in on itself; after folding the laminated web material, crimping the laminated web material at the first transverse seam and at the second transverse seam; and after crimping the laminated web material, cutting the laminated web material at a location in the first transverse seam and at a location in the second transverse seam.