mhurhangee/ep-ind-claims huggingface dataset:
A bone plate system for securing a bone plate to bone comprising: a bone screw having a central axis; a shaft configured and dimensioned to engage bone; and a head having a solid of rotation shaped portion defining in a longitudinal cross-section a circular arc segment with a radius of curvature and a radius of curvature center, the head having a thread on an outer surface of the solid of rotation shaped portion, the thread having in said longitudinal cross-section a profile comprising peaks, troughs, and flanks, the flanks connecting the peaks and troughs, wherein the peaks and troughs lie on respective non-linear curves one of parallel to and concentric with the circular arc segment, characterized in that the radius of curvature center is located at a distance from the central axis measured perpendicularly to the central axis. a bone screw having a central axis; a shaft configured and dimensioned to engage bone; and a head having a solid of rotation shaped portion defining in a longitudinal cross-section a circular arc segment with a radius of curvature and a radius of curvature center, the head having a thread on an outer surface of the solid of rotation shaped portion, the thread having in said longitudinal cross-section a profile comprising peaks, troughs, and flanks, the flanks connecting the peaks and troughs, wherein the peaks and troughs lie on respective non-linear curves one of parallel to and concentric with the circular arc segment, characterized in that the radius of curvature center is located at a distance from the central axis measured perpendicularly to the central axis.
Apparatus for additively manufacturing of three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material, the apparatus comprising: an irradiation device configured to generate an energy beam to irradiate and thereby consolidate layers of the build material in at least one consolidation zone, the irradiation device comprising at least one beam deflection unit configured to guide the energy beam along an optical beam path of the energy beam from the at least one beam deflection unit onto a build plane; and a detection device configured to detect radiation emitted from at least one adjacent zone (9, 10) adjacent to the consolidation zone, or to detect radiation emitted from the consolidation zone and radiation emitted from the adjacent zone (9, 10); characterized by a scanning unit configured to deflect to the detection device the radiation (12a, 12b) that is emitted from the at least one consolidation zone and/or the at least one adjacent zone (9, 10), wherein the radiation (12a, 12b) travels an optical beam path from the build plane to the scanning unit that differs from the optical beam path of the energy beam from the at least one beam deflection unit onto the build plane. an irradiation device configured to generate an energy beam to irradiate and thereby consolidate layers of the build material in at least one consolidation zone, the irradiation device comprising at least one beam deflection unit configured to guide the energy beam along an optical beam path of the energy beam from the at least one beam deflection unit onto a build plane; and a detection device configured to detect radiation emitted from at least one adjacent zone (9, 10) adjacent to the consolidation zone, or to detect radiation emitted from the consolidation zone and radiation emitted from the adjacent zone (9, 10); characterized by a scanning unit configured to deflect to the detection device the radiation (12a, 12b) that is emitted from the at least one consolidation zone and/or the at least one adjacent zone (9, 10), wherein the radiation (12a, 12b) travels an optical beam path from the build plane to the scanning unit that differs from the optical beam path of the energy beam from the at least one beam deflection unit onto the build plane.
Method for channel modification within a macro cell of a cellular mobile radio access network wherein the macro cell has a first transmitter and the macro cell overlapping at least partly with a radio coverage area created by a second transmitter, the method comprising the steps of providing a first control channel signal transmitted by the first transmitter; detecting and extracting said first control channel signal by the second transmitter; generating and transmitting a second control channel signal by the second transmitter, wherein the second control channel signal is transmitted by using the same physical layer configuration as the first control channel signal, wherein the second transmitter synchronises the second control channel signal to the first control channel signal, wherein the second control channel signal -- is a duplication of the first control channel signal but -- differs from the first control channel signal in at least one information element carried by the first control channel signal, wherein the at least one information element is carried on a broadcast channel (111, 121) of the first control channel signal and the second control channel signal respectively, wherein the at least one information element comprises a value of the Radio Ressource Control, RRC, parameter "Sintersearch" carried on the broadcast channel (111, 121), wherein the value of the RRC parameter "Sintersearch" carried on the broadcast channel of the second control channel signal is increased compared to the RRC parameter "Sintersearch" carried on a broadcast channel of the first control channel signal. -- is a duplication of the first control channel signal but -- differs from the first control channel signal in at least one information element carried by the first control channel signal,
A method performed by a User Equipment, UE, the method comprising: receiving a Radio Resource Control, RRC, Reconfiguration message, the RRC Reconfiguration message including first configuration information regarding a first bandwidth part and second configuration information regarding a second bandwidth part; performing radio link monitoring, RLM, on the first bandwidth part based on first RLM configuration information included in the received first configuration information, if an active bandwidth part of the UE is the first bandwidth part; receiving Downlink Control Information, DCI, on Physical Downlink Control Channel, PDCCH; switching, based on the received DCI, the active bandwidth part of the UE from the first bandwidth part to the second bandwidth part; and performing RLM on the second bandwidth part based on second RLM configuration information included in the received second configuration information, if the active bandwidth part of the UE is the second bandwidth part. receiving a Radio Resource Control, RRC, Reconfiguration message, the RRC Reconfiguration message including first configuration information regarding a first bandwidth part and second configuration information regarding a second bandwidth part; performing radio link monitoring, RLM, on the first bandwidth part based on first RLM configuration information included in the received first configuration information, if an active bandwidth part of the UE is the first bandwidth part; receiving Downlink Control Information, DCI, on Physical Downlink Control Channel, PDCCH; switching, based on the received DCI, the active bandwidth part of the UE from the first bandwidth part to the second bandwidth part; and performing RLM on the second bandwidth part based on second RLM configuration information included in the received second configuration information, if the active bandwidth part of the UE is the second bandwidth part.
A turbine rotor blade root, comprising: a shank (148, 148A) having a radially extending chamber defined therein; a blade mount at a radial inner end of the shank (148, 148A), the blade mount having a hollow interior defined therein, the hollow interior in fluid communication with the radially extending chamber; and a lattice support structure disposed within the hollow interior of the blade mount; characterised by further comprising: a platform positioned radially outward of the shank (148, 148A) and extending laterally outward relative to the shank (148, 148A) and terminating at least one slash face (230, 230PS, 230SS); a cooling circuit defined within the platform and in fluid communication with a source of a coolant flow; and at least one cooling passage (172, 240) defined in the platform and in fluid communication with the cooling circuit, the at least one cooling passage (172, 240) extending in a non-linear configuration from the cooling circuit to exit through the at least one slash face (230, 230PS, 230SS) of the platform, wherein the at least one slash face (230, 230PS, 230SS) includes an extension member, and wherein the at least one cooling passage (172, 240) extends through the extension member. a shank (148, 148A) having a radially extending chamber defined therein; a blade mount at a radial inner end of the shank (148, 148A), the blade mount having a hollow interior defined therein, the hollow interior in fluid communication with the radially extending chamber; and a lattice support structure disposed within the hollow interior of the blade mount; characterised by further comprising: a platform positioned radially outward of the shank (148, 148A) and extending laterally outward relative to the shank (148, 148A) and terminating at least one slash face (230, 230PS, 230SS); a cooling circuit defined within the platform and in fluid communication with a source of a coolant flow; and at least one cooling passage (172, 240) defined in the platform and in fluid communication with the cooling circuit, the at least one cooling passage (172, 240) extending in a non-linear configuration from the cooling circuit to exit through the at least one slash face (230, 230PS, 230SS) of the platform, wherein the at least one slash face (230, 230PS, 230SS) includes an extension member, and wherein the at least one cooling passage (172, 240) extends through the extension member. a platform positioned radially outward of the shank (148, 148A) and extending laterally outward relative to the shank (148, 148A) and terminating at least one slash face (230, 230PS, 230SS); a cooling circuit defined within the platform and in fluid communication with a source of a coolant flow; and at least one cooling passage (172, 240) defined in the platform and in fluid communication with the cooling circuit, the at least one cooling passage (172, 240) extending in a non-linear configuration from the cooling circuit to exit through the at least one slash face (230, 230PS, 230SS) of the platform, wherein the at least one slash face (230, 230PS, 230SS) includes an extension member, and wherein the at least one cooling passage (172, 240) extends through the extension member.
System for detecting broken rails on a railway line having at least one track, which is adapted for detecting broken rails by means of detecting an electrical discontinuity thereof, wherein the system comprises at least one emitting node, at least one receiving node and connection means for configuring at least one electrical circuit determined between both nodes (1, 2) and the section of rails between both nodes (1, 2), determining whether or not there is an electrical discontinuity in said section, the emitting node being configured for injecting at least one alternating electrical signal of a specific power into the electrical circuit, the system also comprising, in each of the nodes (1, 2), a detector associated with each rail in the section of rails which is part of the electrical circuit, for detecting the signal going through the corresponding rail as a response to the injection performed by the emitting node, and at least control means (11,21) which are connected to the detectors for receiving signals detected by said detectors and configured for detecting whether there is an electrical discontinuity in the electrical circuit based on the signals received from the detectors, and for determining the breakage of at least one of the rails which is part of said electrical circuit in said section given the presence of an electrical discontinuity in said electrical circuit.
A near-eye optical system, configured to receive an image beam, wherein the near-eye optical system comprises: a first optical waveguide, configured to expand the image beam in a first direction and in an opposite direction of the first direction, and comprising: a first surface having a first light-entering area; a second surface opposite to the first surface, the second surface having a concave area aligned with the first light-entering area, and the concave area having a flat bottom surface, and a first inclined sidewall and a second inclined sidewall opposite to each other; a plurality of first reflecting slopes disposed on the second surface; and a plurality of second reflecting slopes disposed on the second surface, wherein the plurality of first reflecting slopes, the concave area, and the plurality of second reflecting slopes are sequentially arranged along the first direction, and the first inclined sidewall, the flat bottom surface, and the second inclined sidewall are sequentially arranged along the first direction, and wherein the flat bottom surface corresponding to the first light-entering area is located between the first inclined sidewall and the second inclined sidewall, and configured to receive the image beam and guide the image beam to leave the first optical waveguide. a first surface having a first light-entering area; a second surface opposite to the first surface, the second surface having a concave area aligned with the first light-entering area, and the concave area having a flat bottom surface, and a first inclined sidewall and a second inclined sidewall opposite to each other; a plurality of first reflecting slopes disposed on the second surface; and a plurality of second reflecting slopes disposed on the second surface, wherein the plurality of first reflecting slopes, the concave area, and the plurality of second reflecting slopes are sequentially arranged along the first direction, and the first inclined sidewall, the flat bottom surface, and the second inclined sidewall are sequentially arranged along the first direction, and wherein the flat bottom surface corresponding to the first light-entering area is located between the first inclined sidewall and the second inclined sidewall, and configured to receive the image beam and guide the image beam to leave the first optical waveguide.
A range sensor comprising: a photoresponsive region, having a two-dimensional form including first and second longer sides (L1, L2) opposing each other and first and second shorter sides (S1, S2) opposing each other, for generating a charge in response to incident light; at least two pairs of signal charge collection regions (9a, 9b), arranged such as to oppose each other while interposing the photoresponsive region in the opposing direction of the first and second longer sides (L1, L2), for collecting signal charges from the photoresponsive region; a plurality of transfer electrodes (TX1, TX2) adapted to be fed with charge transfer signals having different phases and respectively disposed between the signal charge collection regions (9a, 9b) and the photoresponsive region; a plurality of unnecessary charge collection regions (11a, 11b), arranged between the signal charge collection regions (9a, 9b) in the opposing direction of the first and second shorter sides (S1, S2) such as to oppose each other while interposing the photoresponsive region in the opposing direction of the first and second longer sides (L1, L2), for collecting unnecessary charges from the photoresponsive region; and a plurality of unnecessary charge collection gate electrodes, respectively disposed between the plurality of unnecessary charge collection regions (11a, 11b) and the photoresponsive region, for selectively blocking and releasing flows of the unnecessary charges from the photoresponsive region to the plurality of unnecessary charge collection regions (11a, 11b). a photoresponsive region, having a two-dimensional form including first and second longer sides (L1, L2) opposing each other and first and second shorter sides (S1, S2) opposing each other, for generating a charge in response to incident light; at least two pairs of signal charge collection regions (9a, 9b), arranged such as to oppose each other while interposing the photoresponsive region in the opposing direction of the first and second longer sides (L1, L2), for collecting signal charges from the photoresponsive region; a plurality of transfer electrodes (TX1, TX2) adapted to be fed with charge transfer signals having different phases and respectively disposed between the signal charge collection regions (9a, 9b) and the photoresponsive region; a plurality of unnecessary charge collection regions (11a, 11b), arranged between the signal charge collection regions (9a, 9b) in the opposing direction of the first and second shorter sides (S1, S2) such as to oppose each other while interposing the photoresponsive region in the opposing direction of the first and second longer sides (L1, L2), for collecting unnecessary charges from the photoresponsive region; and a plurality of unnecessary charge collection gate electrodes, respectively disposed between the plurality of unnecessary charge collection regions (11a, 11b) and the photoresponsive region, for selectively blocking and releasing flows of the unnecessary charges from the photoresponsive region to the plurality of unnecessary charge collection regions (11a, 11b).
Process for manufacturing a silicone elastomer article comprising the following step: 1) providing a composition C, comprising water and at least 20% by weight of at least one poloxamer, into a container; 2) placing the container comprising the composition C at the required temperature T1 to form a gel; 3) printing a crosslinkable silicone composition X into the gel obtained in 2) with a 3D printer at the required temperature T1; 4) optionally allowing the printed composition X to partially or totally crosslink, optionally by heating, to obtain a silicone elastomer article, in the container; 5) optionally placing the container obtained in step 4) at a temperature T3 lower than the sol-gel transition temperature of composition C; 6) recovering the silicone elastomer article; and 7) optionally washing the obtained silicone elastomer article for example with water at a temperature T3 lower than the sol-gel transition temperature of composition C. 1) providing a composition C, comprising water and at least 20% by weight of at least one poloxamer, into a container; 2) placing the container comprising the composition C at the required temperature T1 to form a gel; 3) printing a crosslinkable silicone composition X into the gel obtained in 2) with a 3D printer at the required temperature T1; 4) optionally allowing the printed composition X to partially or totally crosslink, optionally by heating, to obtain a silicone elastomer article, in the container; 5) optionally placing the container obtained in step 4) at a temperature T3 lower than the sol-gel transition temperature of composition C; 6) recovering the silicone elastomer article; and 7) optionally washing the obtained silicone elastomer article for example with water at a temperature T3 lower than the sol-gel transition temperature of composition C.
An electronic magnetic bearing fault-tolerant drive module, comprising: a first plurality of switching- elements (104a,104c,104e) and a second plurality of switching elements (104b,104d,104f); a first winding and a second winding interposed between the first plurality of switching elements and the second plurality of switching elements, the first and second plurality of switching elements configured to selectively operate in a first mode and a second mode to generate an electromagnetic field; a diode (106a-f) connected across each switching element among the first and second plurality of switching elements to form a plurality of bi-directional phase-leg circuits; characterized in that the first mode is configured to generate a first winding current in a first direction through the first winding in response to receiving a first PWM output signal, and to generate a second winding current in a second direction opposite the first direction through the second winding in response to receiving a second PWM output signal; and wherein the first winding is interposed between a first bi-directional phase-leg circuit and a second bi-directional phase leg circuit forming a first H-bridge circuit, and the second winding is interposed between the second bi-directional phase-leg circuit and a third bi-directional phase leg circuit forming a second H-bridge circuit. a first plurality of switching- elements (104a,104c,104e) and a second plurality of switching elements (104b,104d,104f); a first winding and a second winding interposed between the first plurality of switching elements and the second plurality of switching elements, the first and second plurality of switching elements configured to selectively operate in a first mode and a second mode to generate an electromagnetic field; a diode (106a-f) connected across each switching element among the first and second plurality of switching elements to form a plurality of bi-directional phase-leg circuits; characterized in that the first mode is configured to generate a first winding current in a first direction through the first winding in response to receiving a first PWM output signal, and to generate a second winding current in a second direction opposite the first direction through the second winding in response to receiving a second PWM output signal; and wherein the first winding is interposed between a first bi-directional phase-leg circuit and a second bi-directional phase leg circuit forming a first H-bridge circuit, and the second winding is interposed between the second bi-directional phase-leg circuit and a third bi-directional phase leg circuit forming a second H-bridge circuit.
A chemical vapor deposition system comprising a reaction chamber comprising: a base plate; a bell jar securable to the base plate, the bell jar comprising a cooling conduit having a conduit inlet port and a conduit outlet port; and a radiation shield comprised of a nickel layer disposed on an interior surface of the bell jar, and a gold layer disposed on the nickel layer, the cooling conduit in thermal communication with the radiation shield. a base plate; a bell jar securable to the base plate, the bell jar comprising a cooling conduit having a conduit inlet port and a conduit outlet port; and a radiation shield comprised of a nickel layer disposed on an interior surface of the bell jar, and a gold layer disposed on the nickel layer, the cooling conduit in thermal communication with the radiation shield.
An optoelectronic component (1, 12), comprising a carrier element, at least two elements arranged in an adjacent fashion on a first side of the carrier element and each having at least one optically active region for generating electromagnetic radiation, and an electrically insulating protective layer arranged at least in part on a surface of the at least two adjacent elements which lies opposite the first side, wherein the protective layer, at least in a first region arranged between the at least two adjacent elements at least predominantly prevents a transmission of the electromagnetic radiation which can be generated by the optically active regions, wherein the electrically insulating protective layer absorbs the electromagnetic radiation in the first region, characterized in that, an electrically conductive connection layer for electrically connecting the at least two optically active regions is arranged on at least one second region of the protective layer.