mhurhangee/ep-ind-claims huggingface dataset:
A screw compression apparatus comprises: a screw compressor in which a rotor shaft of a screw rotor that is rotatably housed to compress a target gas together with a rotor lubricating fluid in a male/female interlocking arrangement in a rotor chamber formed in a housing is held by a bearing (10, 11) arranged in a bearing space (7, 8) formed in the housing adjacently to the rotor chamber, and which includes a shaft sealing member (30, 31) that isolates the bearing space (7, 8) from the rotor chamber; a lubricating fluid separating collector which separates the rotor lubricating fluid from the target gas discharged from the screw compressor; a rotor lubricating fluid feeding means which introduces the rotor lubricating fluid separated by the lubricating fluid separating collector into the rotor chamber; and a bearing lubricating system which supplies a bearing lubricating fluid to the bearing space (7, 8), and returns into the bearing space (7, 8) the bearing lubricating fluid discharged from the bearing space (7, 8), wherein the rotor lubricating fluid and the bearing lubricating fluid are fluids isolated from each other and circulated in different systems independently, and the shaft sealing member (30, 31) is configured to connect the rotor chamber and bearing space (7, 8) to each other through a plurality of narrow gaps, characterized in that a part of the target gas from which the rotor lubricating fluid is separated in the lubricating fluid separating collector is supplied into midstream in the shaft sealing member (30, 31). a screw compressor in which a rotor shaft of a screw rotor that is rotatably housed to compress a target gas together with a rotor lubricating fluid in a male/female interlocking arrangement in a rotor chamber formed in a housing is held by a bearing (10, 11) arranged in a bearing space (7, 8) formed in the housing adjacently to the rotor chamber, and which includes a shaft sealing member (30, 31) that isolates the bearing space (7, 8) from the rotor chamber; a lubricating fluid separating collector which separates the rotor lubricating fluid from the target gas discharged from the screw compressor; a rotor lubricating fluid feeding means which introduces the rotor lubricating fluid separated by the lubricating fluid separating collector into the rotor chamber; and a bearing lubricating system which supplies a bearing lubricating fluid to the bearing space (7, 8), and returns into the bearing space (7, 8) the bearing lubricating fluid discharged from the bearing space (7, 8), wherein the rotor lubricating fluid and the bearing lubricating fluid are fluids isolated from each other and circulated in different systems independently, and the shaft sealing member (30, 31) is configured to connect the rotor chamber and bearing space (7, 8) to each other through a plurality of narrow gaps, characterized in that a part of the target gas from which the rotor lubricating fluid is separated in the lubricating fluid separating collector is supplied into midstream in the shaft sealing member (30, 31).
Method for the spaced fastening of a blind frame to a reveal of a wall using at least one screw and at least one fixing device, characterized in that the screw is screwed through the blind frame and through the fixing deice into the reveal, wherein, during and/or after screwing in, the fixing device is pressed by rotation with respect to the reveal onto the reveal in such a way that the fixing device, by frictional and/or form-fitting engagement, transmits forces from the screw to the reveal that act perpendicularly to the screw axis.
A computer-implemented method for providing haptic feedback, the method comprising: processing a first control track for media content with a processor, the first control track comprising a first control signal configured to cause a first haptic output device to generate a first haptic feedback during playback of the media content; generating a second control track for the media content with the processor based on the processing of the first control track, the second control track comprising a second control signal, different from the first control signal, configured to cause a second haptic output device, different from the first haptic output device, to generate a second haptic feedback during playback of the media content, wherein the second haptic feedback is different from the first haptic feedback and the second haptic feedback is output at approximately the same time as the first haptic feedback; and providing the media content to a media output device such that the first haptic feedback and the second haptic feedback are coordinated with playback of the media content. generating a second control track for the media content with the processor based on the processing of the first control track, the second control track comprising a second control signal, different from the first control signal, configured to cause a second haptic output device, different from the first haptic output device, to generate a second haptic feedback during playback of the media content, wherein the second haptic feedback is different from the first haptic feedback and the second haptic feedback is output at approximately the same time as the first haptic feedback; and providing the media content to a media output device such that the first haptic feedback and the second haptic feedback are coordinated with playback of the media content.
A water distiller, for distilling contaminated water, the water distiller comprising: a) a first container, for containing contaminated water, the first container comprising a first base and a first wall, upwardly extending from the first base; b) an outer cover, c) a water collection unit, characterised in that the water distiller further comprises an inner cover, for enclosing a volume in the first container, which inner cover comprises at least one aperture and is positioned below the outer cover, wherein the inner cover and the outer cover are designed for transporting condensed water to the water collection unit, wherein the outer cover is transparent for heating the contaminated water in the first container by sun radiation, wherein the water collection unit is an outer container, for collecting distilled water, comprising an outer base and an outer wall upwardly extending from the outer base, wherein the first container is covered with the inner cover and is positioned inside the outer container which is covered and closed by the outer cover, and wherein the inner cover is opaque or in-transparent, preferably in-transparent and preferably provided with a light absorbing substance, to absorb energy from sunlight. a) a first container, for containing contaminated water, the first container comprising a first base and a first wall, upwardly extending from the first base; b) an outer cover, c) a water collection unit, characterised in that the water distiller further comprises an inner cover, for enclosing a volume in the first container, which inner cover comprises at least one aperture and is positioned below the outer cover, wherein the inner cover and the outer cover are designed for transporting condensed water to the water collection unit, wherein the outer cover is transparent for heating the contaminated water in the first container by sun radiation, wherein the water collection unit is an outer container, for collecting distilled water, comprising an outer base and an outer wall upwardly extending from the outer base, wherein the first container is covered with the inner cover and is positioned inside the outer container which is covered and closed by the outer cover, and wherein the inner cover is opaque or in-transparent, preferably in-transparent and preferably provided with a light absorbing substance, to absorb energy from sunlight.
A charging station for charging an electric vehicle with a control device for controlling the charging process, characterized in that - the charging station comprises a near-field communication device in communication with the control device, which enables electromagnetic near-field communication with an external wireless telecommunication terminal, and - said control device is configured such that it allows remote control of at least one function related to the charging operation of said charging station by said external wireless telecommunication terminal via said near-field communication device, wherein said charging station comprises a far-field communication device allowing far-field electromagnetic communication with said external wireless telecommunication terminal, wherein the charging station has a changeover module which is designed such that it performs changeover of an existing near-field communication via the near-field communication device to a far-field communication via the far-field communication device if the reception signal of the near-field communication device is defective and quality and/or signal level thereof fall below a predetermined minimum quality threshold or minimum level threshold. - the charging station comprises a near-field communication device in communication with the control device, which enables electromagnetic near-field communication with an external wireless telecommunication terminal, and - said control device is configured such that it allows remote control of at least one function related to the charging operation of said charging station by said external wireless telecommunication terminal via said near-field communication device, wherein said charging station comprises a far-field communication device allowing far-field electromagnetic communication with said external wireless telecommunication terminal, wherein the charging station has a changeover module which is designed such that it performs changeover of an existing near-field communication via the near-field communication device to a far-field communication via the far-field communication device if the reception signal of the near-field communication device is defective and quality and/or signal level thereof fall below a predetermined minimum quality threshold or minimum level threshold.
A fuel injection module, comprising: a housing body; a fuel nozzle portion defined within the housing body and having a fuel nozzle plenum defined within the housing body; and at least one fuel injection lance in fluid communication with an injector fuel plenum defined within the housing body, wherein the housing body includes a forward plate, an aft plate, and an outer perimeter wall that extends axially from the forward plate to the aft plate, characterized in that the fuel nozzle portion further comprises a plurality of tubes, each tube of the plurality of tubes having an inlet defined through the forward plate and an outlet defined through the aft plate. a housing body; a fuel nozzle portion defined within the housing body and having a fuel nozzle plenum defined within the housing body; and at least one fuel injection lance in fluid communication with an injector fuel plenum defined within the housing body, wherein the housing body includes a forward plate, an aft plate, and an outer perimeter wall that extends axially from the forward plate to the aft plate, characterized in that the fuel nozzle portion further comprises a plurality of tubes, each tube of the plurality of tubes having an inlet defined through the forward plate and an outlet defined through the aft plate.
An arrangement of a high-voltage network, a low-voltage network and a device for insulation monitoring between the low-voltage network and the high-voltage network, wherein the device can be connected to a high-voltage plus connection as well as to a high-voltage minus connection as well as to the low-voltage network, wherein the device has a plurality of electrical contacts for coupling monitoring connections to the high-voltage circuit by means of a respective high-voltage plus connection and by means of a respective high-voltage minus connection which can be connected in different sections of the high-voltage network, wherein at least a first monitoring connection can be switched off and at least a second monitoring connection is fixedly connected and wherein the sections of the high-voltage network can be separated from one another through switching devices, characterised in that the internal resistance of the monitoring connections which cannot be switched off is greater by at least the factor 10 than with the monitoring connection which can be switched off.
A device, comprising: a solar panel frame (103, 105, 133, 135, 143, 145, 153, 155) forming a closed perimeter that is capable of surrounding and supporting an active element of a solar PV panel (101, 102, 132, 134, 142, 144, 152, 154),the solar panel frame comprises a frame face (105a, 135a, 145a, 155a) that forms an outside perimeter of the solar panel frame, a return flange (105b, 135b, 145b, 155b) extending inward from a bottom end of the frame face, a detent riser (103c, 105c, 135c, 145c, 155c) extending upward from an end of the return flange, characterised by a first detent (103d, 105d, 135d, 145d, 153d, 155d) extending inward and downward into the frame face toward the detent riser, and a second detent (103e, 105e, 135e, 145e, 153e, 155e) that extends downward from the detent riser toward the frame face, wherein the first detent is suitable for being engaged and secured by a first hook end of a panel attachment bracket (114, 117, 118, 120), and the second detent is suitable for being engaged and secured by a second hook end of a panel attachment bracket. a solar panel frame (103, 105, 133, 135, 143, 145, 153, 155) forming a closed perimeter that is capable of surrounding and supporting an active element of a solar PV panel (101, 102, 132, 134, 142, 144, 152, 154),the solar panel frame comprises a frame face (105a, 135a, 145a, 155a) that forms an outside perimeter of the solar panel frame, a return flange (105b, 135b, 145b, 155b) extending inward from a bottom end of the frame face, a detent riser (103c, 105c, 135c, 145c, 155c) extending upward from an end of the return flange, characterised by a first detent (103d, 105d, 135d, 145d, 153d, 155d) extending inward and downward into the frame face toward the detent riser, and a second detent (103e, 105e, 135e, 145e, 153e, 155e) that extends downward from the detent riser toward the frame face, wherein the first detent is suitable for being engaged and secured by a first hook end of a panel attachment bracket (114, 117, 118, 120), and the second detent is suitable for being engaged and secured by a second hook end of a panel attachment bracket.
A mass storage memory system, comprising: an interface adapted to receive data from a host system; a plurality of memory die (1500, 1702), wherein the plurality of memory die (1500, 1702) are arranged in respective groups and each respective group is connected to a respective one of a plurality of control channels (1502, 1704); and a controller (424, 1706) in communication with the interface and the plurality of memory die (1500, 1702) over the plurality of control channels (1502, 1704), characterised by the controller (424, 1706) being configured to: in response to receiving a first request from the host system, read or write data fully in parallel in a plurality of memory die (1500, 1702) connected to different ones of the plurality of control channels (1502, 1704); and in response to receiving a second request from the host system, read or write data independently and asynchronously with concurrent operations in different memory die (1500, 1702) connected to a same one of the plurality of control channels (1502, 1704). an interface adapted to receive data from a host system; a plurality of memory die (1500, 1702), wherein the plurality of memory die (1500, 1702) are arranged in respective groups and each respective group is connected to a respective one of a plurality of control channels (1502, 1704); and a controller (424, 1706) in communication with the interface and the plurality of memory die (1500, 1702) over the plurality of control channels (1502, 1704), characterised by the controller (424, 1706) being configured to: in response to receiving a first request from the host system, read or write data fully in parallel in a plurality of memory die (1500, 1702) connected to different ones of the plurality of control channels (1502, 1704); and in response to receiving a second request from the host system, read or write data independently and asynchronously with concurrent operations in different memory die (1500, 1702) connected to a same one of the plurality of control channels (1502, 1704). in response to receiving a first request from the host system, read or write data fully in parallel in a plurality of memory die (1500, 1702) connected to different ones of the plurality of control channels (1502, 1704); and in response to receiving a second request from the host system, read or write data independently and asynchronously with concurrent operations in different memory die (1500, 1702) connected to a same one of the plurality of control channels (1502, 1704).
A valve replacement system for delivering a replacement valve to a target site in or near a heart, the system comprising: a trocar for penetrating the heart at or near the apex of the heart; a delivery member movably disposed within the trocar, the delivery member having distal and proximal ends and an expansion and contracting member; and a replacement cardiac valve disposed on the expansion and contracting member of the delivery member. a trocar for penetrating the heart at or near the apex of the heart; a delivery member movably disposed within the trocar, the delivery member having distal and proximal ends and an expansion and contracting member; and a replacement cardiac valve disposed on the expansion and contracting member of the delivery member.
An optical stack (150; 500; 1200) comprising: a first basic transparent conductor (156: 530; 1110) having a first substrate (158; 532; 1112) and a plurality of networking silver nanostructures (160; 534; 1114); a second substrate (168; 538; 1130), a UV-blocking OCA layer (166; 536; 1120) positioned between the second substrate (168; 538; 1130) and the first basic transparent conductor (156; 530; 1110), wherein the first basic transparent conductor (156; 530; 1110) contacts the UV-blocking layer (166; 536; 1120) by the first substrate (158; 532; 1112), wherein a direct contact between the networking silver nanostructures (160; 534; 1114) and the UV-blocking OCA layer is avoided. a first basic transparent conductor (156: 530; 1110) having a first substrate (158; 532; 1112) and a plurality of networking silver nanostructures (160; 534; 1114); a second substrate (168; 538; 1130), a UV-blocking OCA layer (166; 536; 1120) positioned between the second substrate (168; 538; 1130) and the first basic transparent conductor (156; 530; 1110), wherein the first basic transparent conductor (156; 530; 1110) contacts the UV-blocking layer (166; 536; 1120) by the first substrate (158; 532; 1112), wherein a direct contact between the networking silver nanostructures (160; 534; 1114) and the UV-blocking OCA layer is avoided.
A Ni-based alloy core wire for a covered electrode comprising, as a chemical composition, by unit mass%: C: 0.0100% to 0.0800%; Si: 0.010% to 0.800%; Mn: 0.010% to 1.800%; Mo: 15.0% to 28.0%; W: 2.5% to 8.0%; Cu: 0.10% to 1.20%; Ta: 0.002% to 0.120%; Ni: 65.0% to 82.3%; Mg: 0% to 0.60%; Al: 0% to 2.20%; Ti: 0% to 2.20%; P: 0.025% or less; S: 0.025% or less; N: 0% to 0.150%; O: 0% to 0.012%; Fe: 0% to 12.0%; Co: 0% to 0.150%; Cr: 0% to 0.150%; V: 0% to 0.150%; Nb: 0% to 0.150%; B: 0% to 0.015%; Bi: 0% to 0.080%; Ca: 0% to 0.025%; REM: 0% to 0.030%; Zr: 0% to 0.150%; and a remainder: impurities, wherein a value X defined by Expression 1 is 0.010% to 0.160%, X = Ta + 10 × REM here, symbols indicated in Expression 1 are amounts of corresponding elements by unit mass%. C: 0.0100% to 0.0800%; Si: 0.010% to 0.800%; Mn: 0.010% to 1.800%; Mo: 15.0% to 28.0%; W: 2.5% to 8.0%; Cu: 0.10% to 1.20%; Ta: 0.002% to 0.120%; Ni: 65.0% to 82.3%; Mg: 0% to 0.60%; Al: 0% to 2.20%; Ti: 0% to 2.20%; P: 0.025% or less; S: 0.025% or less; N: 0% to 0.150%; O: 0% to 0.012%; Fe: 0% to 12.0%; Co: 0% to 0.150%; Cr: 0% to 0.150%; V: 0% to 0.150%; Nb: 0% to 0.150%; B: 0% to 0.015%; Bi: 0% to 0.080%; Ca: 0% to 0.025%; REM: 0% to 0.030%; Zr: 0% to 0.150%; and a remainder: impurities, wherein a value X defined by Expression 1 is 0.010% to 0.160%, X = Ta + 10 × REM here, symbols indicated in Expression 1 are amounts of corresponding elements by unit mass%.
A medical apparatus for preventing leakage of an injected therapeutic agent from a target site of injection inside the body of a subject, wherein the medical apparatus comprises: an injection device for injecting a therapeutic agent into a target site of injection inside the body of a subject, wherein the injection of the therapeutic agent creates an unwanted or artificially-created space or cavity inside the body of a subject; a filling device that can be delivered to the unwanted or artificially-created space or cavity, wherein the filling device is adapted to take the shape that can substantially fill the unwanted or artificially-created space or cavity or substantially close the unwanted or artificially-created space or cavity, wherein the filling device is made of biocompatible material comprising photochemically crosslinked type I collagen matrix, collagen and glycosaminoglycan composite, or a combination thereof; wherein the filling device is an annulus plug; and wherein the filling device is in dehydrated state. an injection device for injecting a therapeutic agent into a target site of injection inside the body of a subject, wherein the injection of the therapeutic agent creates an unwanted or artificially-created space or cavity inside the body of a subject; a filling device that can be delivered to the unwanted or artificially-created space or cavity, wherein the filling device is adapted to take the shape that can substantially fill the unwanted or artificially-created space or cavity or substantially close the unwanted or artificially-created space or cavity, wherein the filling device is made of biocompatible material comprising photochemically crosslinked type I collagen matrix, collagen and glycosaminoglycan composite, or a combination thereof; wherein the filling device is an annulus plug; and wherein the filling device is in dehydrated state.