mhurhangee/ep-ind-claims huggingface dataset:
An elongated conductor (100, 400) comprising: an elongated structure having a proximal region and a distal region and comprising two insulated conducting members that are in fixed relative position along at least a portion of the elongated structure and extend from the proximal region to the distal region, which conducting members are configured to conduct an entity, for example electrical current, charge, light, heat, a fluid, a gel, a biological sample, from the proximal region to the distal region or vice versa; and a pattern of insulation openings among the insulated conducting members at both of the proximal and distal regions, which pattern of insulation openings comprises a collection of areas or windows for example voids which insulation openings are configured to transmit the entity, wherein the two insulated conducting members are wound to define a lumen extending along at least a portion of the elongated structure, which lumen is an inner space or cavity, characterised in that the elongated structure comprises a first pattern of insulation openings among the insulated conducting members at the proximal region and a second pattern of insulation openings among the insulated conducting members at the distal region. an elongated structure having a proximal region and a distal region and comprising two insulated conducting members that are in fixed relative position along at least a portion of the elongated structure and extend from the proximal region to the distal region, which conducting members are configured to conduct an entity, for example electrical current, charge, light, heat, a fluid, a gel, a biological sample, from the proximal region to the distal region or vice versa; and a pattern of insulation openings among the insulated conducting members at both of the proximal and distal regions, which pattern of insulation openings comprises a collection of areas or windows for example voids which insulation openings are configured to transmit the entity, wherein the two insulated conducting members are wound to define a lumen extending along at least a portion of the elongated structure, which lumen is an inner space or cavity, characterised in that the elongated structure comprises a first pattern of insulation openings among the insulated conducting members at the proximal region and a second pattern of insulation openings among the insulated conducting members at the distal region.
A method of processing sperm comprising: staining a sperm sample having viable X-chromosome bearing sperm and viable Y-chromosome bearing sperm with a staining media; contacting the stained sperm sample with a sheath fluid in a flow path; and manipulating a ratio of viable X-chromosome bearing sperm to viable Y-chromosome bearing sperm to form at least one manipulated sperm population; wherein the sheath fluid comprises glycerol at a vol./vol. concentration between 1% and 6%.
An uninterruptible power supply, UPS, system (100; 300; 400), comprising: an enclosure; at least one exhaust fan (140; 330; 440) configured to exhaust air from the enclosure; a plurality of power converter modules (120; 320; 420) positioned in the enclosure, each power conversion module (120; 320; 420) comprising a power converter circuit, at least one module fan (122; 324), and a module controller circuit configured to control the power converter circuit and the at least one module fan (122; 324); a system controller (130; 310; 410) positioned in the enclosure and configured to receive module fan status information from the module controller circuits over a communications bus and to control the at least one exhaust fan (140; 330; 440) responsive to module fan status information received from the module controller circuits. an enclosure; at least one exhaust fan (140; 330; 440) configured to exhaust air from the enclosure; a plurality of power converter modules (120; 320; 420) positioned in the enclosure, each power conversion module (120; 320; 420) comprising a power converter circuit, at least one module fan (122; 324), and a module controller circuit configured to control the power converter circuit and the at least one module fan (122; 324); a system controller (130; 310; 410) positioned in the enclosure and configured to receive module fan status information from the module controller circuits over a communications bus and to control the at least one exhaust fan (140; 330; 440) responsive to module fan status information received from the module controller circuits.
Low specific gravity steel for forging use superior in machinability characterized by containing, by mass%, C: 0.05 to 0.50%, Si: 0.01 to 1.50%, Mn: 3.0 to 7.0%, P: 0.001 to 0.050%, S: 0.020 to 0.200%, Al: 3.0 to 6.0%, Cr: 0.01 to 1.00%, and N: 0.0040 to 0.0200% and optionally containing one or more of V: 0.05 to 0.30%, Nb: 0.05 to 0.30%, and Ti: 0.005 to 0.050% and having a balance of Fe und unavoidable impurities. C: 0.05 to 0.50%, Si: 0.01 to 1.50%, Mn: 3.0 to 7.0%, P: 0.001 to 0.050%, S: 0.020 to 0.200%, Al: 3.0 to 6.0%, Cr: 0.01 to 1.00%, and N: 0.0040 to 0.0200% and optionally containing one or more of V: 0.05 to 0.30%, Nb: 0.05 to 0.30%, and Ti: 0.005 to 0.050% and having a balance of Fe und unavoidable impurities.
A method of detecting a leak through a composite laminate skin of an aircraft, comprising: placing a leak detection layer over an area of the composite laminate skin; placing a vacuum bag over the leak detection layer and sealing the vacuum bag on the composite laminate skin; drawing a vacuum in the vacuum bag; and observing a visually observable change in at least one optical characteristic in the leak detection layer indicating the leak. placing a leak detection layer over an area of the composite laminate skin; placing a vacuum bag over the leak detection layer and sealing the vacuum bag on the composite laminate skin; drawing a vacuum in the vacuum bag; and observing a visually observable change in at least one optical characteristic in the leak detection layer indicating the leak.
A method for avoiding a network congestion at a network including an aggregator node and a plurality of worker nodes, wherein the plurality of workers share the same bottleneck link to the aggregator, the method comprising: counting a number of TCP connections between the aggregator and the workers adjusting a window size of each of the workers, wherein the window size is based on the number of TCP connections; adding an ACK delay (Δ) to an ACK, wherein the ACK delay (Δ) is based on the window size; and sending the ACK with the window size to the worker; wherein the ACK delay (Δ) is Δ = n Link capacity / MSS × advertise − RTT where advertise is the window size, MSS is a maximum segment size, RTT is a minimum round trip time, and n is a total number of concurrent connections. counting a number of TCP connections between the aggregator and the workers adjusting a window size of each of the workers, wherein the window size is based on the number of TCP connections; adding an ACK delay (Δ) to an ACK, wherein the ACK delay (Δ) is based on the window size; and sending the ACK with the window size to the worker; wherein the ACK delay (Δ) is Δ = n Link capacity / MSS × advertise − RTT where advertise is the window size, MSS is a maximum segment size, RTT is a minimum round trip time, and n is a total number of concurrent connections.
A method for sending information, comprising: receiving (201; 301), by a base station node, node B, an audit request message from a radio network controller, RNC; sending (202; 302), by the node B, an audit response message to the RNC, the audit response message including Fractional-Dedicated Physical Channel, F-DPCH, capability information element, IE, for indicating whether a local cell belonging to the Node B supports F-DPCH. receiving (201; 301), by a base station node, node B, an audit request message from a radio network controller, RNC; sending (202; 302), by the node B, an audit response message to the RNC, the audit response message including Fractional-Dedicated Physical Channel, F-DPCH, capability information element, IE, for indicating whether a local cell belonging to the Node B supports F-DPCH.
A temperature probe hub, comprising: a housing including a cap and a base, the cap coupled to the base, the cap forming an upper wall of the housing, the base forming a lower wall of the housing located opposite and spaced apart from the upper wall, the base having a central portion, a peripheral portion bounding the central portion, and a filler extending between the central portion and the peripheral portion, the filler flexibly coupling the central portion and the peripheral region, the filler forming a portion of the lower wall that extends downwardly from the central portion and the peripheral portion such that the filler is configured to contact a surface of an object onto which the lower wall of the base is to be positioned, the filler being configured to move the central portion upwardly relative to the peripheral portion in response to a downward compressive force applied to the cap while the filler is in contact with the surface of the object, wherein the filler is flexible; and a control button located within the housing between the upper wall and the lower wall, the control button configured to be actuated in response to upward movement of the central portion of the housing relative to the peripheral portion of the housing, wherein the control button is mounted on a bottom surface of a main board located within the housing. a housing including a cap and a base, the cap coupled to the base, the cap forming an upper wall of the housing, the base forming a lower wall of the housing located opposite and spaced apart from the upper wall, the base having a central portion, a peripheral portion bounding the central portion, and a filler extending between the central portion and the peripheral portion, the filler flexibly coupling the central portion and the peripheral region, the filler forming a portion of the lower wall that extends downwardly from the central portion and the peripheral portion such that the filler is configured to contact a surface of an object onto which the lower wall of the base is to be positioned, the filler being configured to move the central portion upwardly relative to the peripheral portion in response to a downward compressive force applied to the cap while the filler is in contact with the surface of the object, wherein the filler is flexible; and a control button located within the housing between the upper wall and the lower wall, the control button configured to be actuated in response to upward movement of the central portion of the housing relative to the peripheral portion of the housing, wherein the control button is mounted on a bottom surface of a main board located within the housing.
A system comprising: an article of footwear comprising a midsole, the midsole defining a cavity therein; an intelligent footwear system disposed in the cavity, and configured for removal from the cavity, the intelligent footwear system comprising: a sensing system that measures a performance characteristic of the article of footwear and sends a signal to a control system, wherein the signal is representative of the measured performance characteristic, and wherein the control system processes the signal; wherein the control system is adapted to send a signal to an actuation system, wherein the actuation system is for modifying a feature of the article of footwear in order to obtain an optimal performance characteristic; wherein the intelligent footwear system is further adapted to transmit data to a device with a display panel located with the user, wherein the data comprise the performance characteristic; and wherein the performance characteristic of the article of footwear is at least one of velocity, acceleration, jerk, distance and a stride frequency of a wearer. an article of footwear comprising a midsole, the midsole defining a cavity therein; an intelligent footwear system disposed in the cavity, and configured for removal from the cavity, the intelligent footwear system comprising: a sensing system that measures a performance characteristic of the article of footwear and sends a signal to a control system, wherein the signal is representative of the measured performance characteristic, and wherein the control system processes the signal; wherein the control system is adapted to send a signal to an actuation system, wherein the actuation system is for modifying a feature of the article of footwear in order to obtain an optimal performance characteristic; wherein the intelligent footwear system is further adapted to transmit data to a device with a display panel located with the user, wherein the data comprise the performance characteristic; and wherein the performance characteristic of the article of footwear is at least one of velocity, acceleration, jerk, distance and a stride frequency of a wearer. a sensing system that measures a performance characteristic of the article of footwear and sends a signal to a control system, wherein the signal is representative of the measured performance characteristic, and wherein the control system processes the signal; wherein the control system is adapted to send a signal to an actuation system, wherein the actuation system is for modifying a feature of the article of footwear in order to obtain an optimal performance characteristic; wherein the intelligent footwear system is further adapted to transmit data to a device with a display panel located with the user, wherein the data comprise the performance characteristic; and wherein the performance characteristic of the article of footwear is at least one of velocity, acceleration, jerk, distance and a stride frequency of a wearer.
A self-triggering ventilation valve for automatically self-opening after a pre-set time, the ventilation valve comprises: - a body having a body shape for engaging a channel opening of a window, the body comprising a body channel for allowing passage of an air flow from the channel opening and through the body; - a block member connected to the body and being displaceable between an open position and a closed position blocking the body channel; and - an actuator unit comprising: - a displacement member being adapted for displacing the block member from the closed position to the open position; - a trigger member configured for detecting the block member being displaced to the closed position; and - a controller configured for activating the displacement member after a pre-set time of detecting the block member being in the closed position by displacing the block member from the closed position to the open position. - a body having a body shape for engaging a channel opening of a window, the body comprising a body channel for allowing passage of an air flow from the channel opening and through the body; - a block member connected to the body and being displaceable between an open position and a closed position blocking the body channel; and - an actuator unit comprising: - a displacement member being adapted for displacing the block member from the closed position to the open position; - a trigger member configured for detecting the block member being displaced to the closed position; and - a controller configured for activating the displacement member after a pre-set time of detecting the block member being in the closed position by displacing the block member from the closed position to the open position. - a displacement member being adapted for displacing the block member from the closed position to the open position; - a trigger member configured for detecting the block member being displaced to the closed position; and - a controller configured for activating the displacement member after a pre-set time of detecting the block member being in the closed position by displacing the block member from the closed position to the open position.
Device for the exhaust-gas aftertreatment of internal combustion engines, in particular in motor vehicles, having at least one exhaust line which is connected to a cylinder head of the internal combustion engine, and having at least one exhaust-gas purification device which is arranged in the exhaust-gas mass flow, wherein at least one exhaust-gas purification device is arranged in the cylinder head and thus in the cylinder-head-side exhaust-gas mass flow, characterized in that the exhaust-gas purification device, which is formed by a particle filter, is cast into the cylinder head, in particular is cast into the cylinder head during the casting of the latter, and the exhaust-gas purification device, which is formed by a particle filter, is designed such that at high temperatures the particle filter exhibits ash penetration as a result of opening-up of filter pores.
A filter manufacturing method comprising: designating a use mode in a resonator to a first resonance mode; in response to designating to the first resonance mode, setting a band selected from a designated first frequency band to a passband in the resonator; switching the use mode in the resonator from the first resonance mode to a second resonance mode; in response to switching to the second resonance mode, setting a band selected from the first frequency band except for the passband to a stopband in the resonator; and manufacturing a primary filter comprising the resonator to which the passband and the stopband are set; and wherein a plurality of screws configured to mount the resonator on an inner surface of a housing is tunable by a stepper motor, the filter manufacturing method further comprising: increasing or decreasing a bandwidth of a band that is set to the passband by tuning a first screw and a third screw of the plurality of screws; or increasing or decreasing a bandwidth of a band that is set to the stopband by tuning a second screw and a fourth screw of the plurality of screws. designating a use mode in a resonator to a first resonance mode; in response to designating to the first resonance mode, setting a band selected from a designated first frequency band to a passband in the resonator; switching the use mode in the resonator from the first resonance mode to a second resonance mode; in response to switching to the second resonance mode, setting a band selected from the first frequency band except for the passband to a stopband in the resonator; and manufacturing a primary filter comprising the resonator to which the passband and the stopband are set; and wherein a plurality of screws configured to mount the resonator on an inner surface of a housing is tunable by a stepper motor, the filter manufacturing method further comprising: increasing or decreasing a bandwidth of a band that is set to the passband by tuning a first screw and a third screw of the plurality of screws; or increasing or decreasing a bandwidth of a band that is set to the stopband by tuning a second screw and a fourth screw of the plurality of screws. increasing or decreasing a bandwidth of a band that is set to the passband by tuning a first screw and a third screw of the plurality of screws; or increasing or decreasing a bandwidth of a band that is set to the stopband by tuning a second screw and a fourth screw of the plurality of screws.
A stator-rotor system of an eccentric screw pump comprising a rotor with a rotor screw and a stator with an internal thread, the stator comprising a support element and an elastomer part, wherein the support element surrounds the elastomer part in sections around the whole circumference, wherein the stator-rotor system comprises an adjusting mechanism for adjusting the stator, the adjusting mechanism comprising at least two adjustment elements (13, 14) coupled to the stator-rotor system, wherein the two adjustment elements (13, 14) are distance-variable relative to one another, wherein the two adjustment elements (13, 14) have a first distance from one another in a first working position and wherein the two adjustment elements (13, 14) have a second distance from one another in a second working position, wherein the first distance is not equal to the second distance, wherein in the second working position the cross-section and the length of the elastomer part of the stator are changed compared to the cross-section and the length of the elastomer part in the first working position, wherein for the adjustment or readjustment of a stator, the relative distance between the two adjustment elements (13, 14) can be adjusted in order to adapt the cross-section and the length of the elastomer part of the stator to given operating conditions, characterised in that the relative distance between the two adjustment elements (13, 14) can be reduced in order to reduce the length of the elastomer part of the stator, to increase the cross-section of the elastomer part of the stator, to reduce an inner contour of the stator and to increase pretensioning between the rotor and the stator, or that the relative distance between the two adjustment elements (13, 14) can be increased in order to increase a length of the elastomer part of the stator, to reduce a cross-section of the elastomer part of the stator, to increase an inner contour of the stator and to reduce pretensioning between the rotor and stator.
A device for connection of a tool to a robot arm, wherein said tool has electrical and/or service-fluid connections with said robot arm, said device comprising: - an annular body having a first face designed to be mounted on the wrist of a robot arm, a second face opposite to said first face, outer side walls, and inner side walls; and - an apparatus for fixing said annular body to a connection body coupled to said tool; wherein said second face of said annular body is designed to be coupled to a face of said connection body; and wherein said annular body comprises two or more bores or cavities (21', 23') that constitute passages or portions of said connections, and wherein said bores or cavities (21', 23') are designed to set themselves in a condition of mutual connection with corresponding bores or cavities made within said connection body; wherein: associated to said two or more bores or cavities (21', 23') of said annular body is at least one opening that opens out on said first face and optionally at least one opening that opens out on at least one of the inner side walls of said annular body, at least one of the bores or cavities of said annular body and its associated opening that opens out on said first face houses an electrical connector, and at least one of the bores or cavities of said annular body and its associated opening that opens out on said first face is configured for supplying fluid to the connection body. - an annular body having a first face designed to be mounted on the wrist of a robot arm, a second face opposite to said first face, outer side walls, and inner side walls; and - an apparatus for fixing said annular body to a connection body coupled to said tool; associated to said two or more bores or cavities (21', 23') of said annular body is at least one opening that opens out on said first face and optionally at least one opening that opens out on at least one of the inner side walls of said annular body, at least one of the bores or cavities of said annular body and its associated opening that opens out on said first face houses an electrical connector, and at least one of the bores or cavities of said annular body and its associated opening that opens out on said first face is configured for supplying fluid to the connection body.
A frictional power transmission belt comprising a compression layer having a power transmission surface, at least a part of which is capable of coming into contact with a pulley, wherein the compression layer comprises a polymer component and a polyvinyl alcohol-based resin; characterized in that the polyvinyl alcohol-based resin is polyvinyl alcohol-based resin particles, wherein the polyvinyl alcohol-based resin particles have an average aspect ratio of 10 or less.