mhurhangee/ep-ind-claims huggingface dataset:
A heating control unit for an airborne vehicle, comprising: a controller housing; a microcontroller arranged within the controller housing, the microcontroller being configured to generate a control signal for a heater and to output the control signal via a control line to the heater; and a temperature sensor arranged within the controller housing and coupled to the microcontroller, wherein an active sensor surface of the temperature sensor forms at least part of an outer surface of the controller housing, characterized in that the heating control unit further comprises at least one connection element (6a; 6b) for mechanically connecting the controller housing to a tube or conduit of the airborne vehicle, and in that the temperature sensor is adapted to measure a temperature of the tube or conduit and to relay the respective temperature value signal to the microcontroller. a controller housing; a microcontroller arranged within the controller housing, the microcontroller being configured to generate a control signal for a heater and to output the control signal via a control line to the heater; and a temperature sensor arranged within the controller housing and coupled to the microcontroller, wherein an active sensor surface of the temperature sensor forms at least part of an outer surface of the controller housing, characterized in that the heating control unit further comprises at least one connection element (6a; 6b) for mechanically connecting the controller housing to a tube or conduit of the airborne vehicle, and in that the temperature sensor is adapted to measure a temperature of the tube or conduit and to relay the respective temperature value signal to the microcontroller.
A method, comprising: determining at a first network node a first communication session with a second network node; determining a first communication parameter based on the first communication session; modifying a first connection object based on the first communication parameter; receiving a message at the first connection object during the first communication session, the message received from a first application; transforming the message based on a first characteristic of the first connection object, the first characteristic based on the first communication parameter; communicating a first packet comprising a data payload including a portion of the message, wherein the first packet does not include an indicator of the first communication parameter, wherein the first application is executed at a first processor and wherein the first connection object is executed at a network interface device different from the first processor, the network interface device configured to provide an interface between the first processor and a network. determining at a first network node a first communication session with a second network node; determining a first communication parameter based on the first communication session; modifying a first connection object based on the first communication parameter; receiving a message at the first connection object during the first communication session, the message received from a first application; transforming the message based on a first characteristic of the first connection object, the first characteristic based on the first communication parameter; communicating a first packet comprising a data payload including a portion of the message, wherein the first packet does not include an indicator of the first communication parameter, wherein the first application is executed at a first processor and wherein the first connection object is executed at a network interface device different from the first processor, the network interface device configured to provide an interface between the first processor and a network.
A rubber composition that is based upon a cross-linkable elastomer composition, the cross-linkable elastomer composition comprising, per 100 parts by weight of rubber (phr): a modified rubber component selected from a modified polybutadiene rubber, a modified styrene-butadiene rubber or combinations thereof, wherein the modified rubber component has been modified with a functional group having a hydrogen bond acceptor atom, the functional group selected from the group consisting of a pyridine, a pyrrolidone, an ether, a ketone, an epoxide and a sulfone, and wherein the modified rubber component has a Tg of between -80 °C and -110 °C, as measured by differential scanning calorimetry in accordance with ASTM D3418; between 10 phr and 75 phr of a second rubber component selected from the group consisting of a polybutadiene rubber, a styrene-butadiene rubber and combinations thereof, between 30 phr and 130 phr of an efficient plasticizing resin, wherein the efficient plasticizing resin, when included in a mixture consisting of the modified rubber component and 67 phr of the efficient plasticizing resin, causes a Tg of the mixture to be at least 14° C higher than the Tg of the modified rubber component, the Tg being determined by differential scanning calorimetry in accordance with ASTM D3418, and wherein the efficient plasticizing resin has a hydrogen bond donor group; a reinforcement filler; and a curing system. a modified rubber component selected from a modified polybutadiene rubber, a modified styrene-butadiene rubber or combinations thereof, wherein the modified rubber component has been modified with a functional group having a hydrogen bond acceptor atom, the functional group selected from the group consisting of a pyridine, a pyrrolidone, an ether, a ketone, an epoxide and a sulfone, and wherein the modified rubber component has a Tg of between -80 °C and -110 °C, as measured by differential scanning calorimetry in accordance with ASTM D3418; between 10 phr and 75 phr of a second rubber component selected from the group consisting of a polybutadiene rubber, a styrene-butadiene rubber and combinations thereof, between 30 phr and 130 phr of an efficient plasticizing resin, wherein the efficient plasticizing resin, when included in a mixture consisting of the modified rubber component and 67 phr of the efficient plasticizing resin, causes a Tg of the mixture to be at least 14° C higher than the Tg of the modified rubber component, the Tg being determined by differential scanning calorimetry in accordance with ASTM D3418, and wherein the efficient plasticizing resin has a hydrogen bond donor group; a reinforcement filler; and a curing system.
Air refueling system for monitoring the degradation status of refueling hoses on air, the air refueling system comprising a serving carriage configured to allow winding of a refueling hose in such a way to avoid jamming by conducting the refueling hose to a proper location in a drum while winding or unwinding, the air refueling system characterized in that it further comprises a monitoring system comprising a device comprising at least one sensor adapted to produce data for monitoring the degradation status of refueling hoses on air about the external surface of the refueling hose, the device being a ring adapted to partially or completely surround the refueling hose and adapted to move longitudinally along the refueling hose so that the whole length of the hose can be monitored, the ring being moored to the serving carriage to be driven by the serving carriage and the ring comprising rollers adapted to move the ring along the refueling hose.
Safety architecture for a machine work cell comprising: a barrier separating a work cell area for positioning machines (14, 16) that are automated manufacturing positioning machines from a personnel area for personnel that maintain the positioning machines in the work cell area; a control system communicating with the positioning machines (14, 16) and controlling movements and functioning of the positioning machines; characterized in that it further comprises an opening through the barrier, the opening providing personnel in the personnel area access through the opening to a positioning machine in the work cell area that has been controlled to move to a position adjacent the opening and then controlled to be immobile and nonfunctioning while other positioning machines in the work cell area are mobile and functioning, and the opening being a cart and end effector opening through the barrier; and a tooling opening through the barrier, the tooling opening providing personnel in the personnel area access to a tool changing location in the work cell area through the tooling opening, or a test coupon opening through the barrier, the test coupon opening providing personnel in the personnel area access to a test coupon location in the work cell area through the test coupon opening. a barrier separating a work cell area for positioning machines (14, 16) that are automated manufacturing positioning machines from a personnel area for personnel that maintain the positioning machines in the work cell area; a control system communicating with the positioning machines (14, 16) and controlling movements and functioning of the positioning machines; characterized in that it further comprises an opening through the barrier, the opening providing personnel in the personnel area access through the opening to a positioning machine in the work cell area that has been controlled to move to a position adjacent the opening and then controlled to be immobile and nonfunctioning while other positioning machines in the work cell area are mobile and functioning, and the opening being a cart and end effector opening through the barrier; and a tooling opening through the barrier, the tooling opening providing personnel in the personnel area access to a tool changing location in the work cell area through the tooling opening, or a test coupon opening through the barrier, the test coupon opening providing personnel in the personnel area access to a test coupon location in the work cell area through the test coupon opening.
A gas turbine engine de-icing system comprising: a heat exchanger; a coolant loop in fluid communication with the heat exchanger and configured to circulate a coolant; an engine oil loop in fluid communication with the heat exchanger and configured to transfer heat to the coolant; and a gas turbine engine inlet structure including a cavity, and a manifold arranged in the cavity and in fluid communication with the coolant loop; characterised in that: the manifold is configured to spray the coolant onto the gas turbine engine inlet structure to de-ice the gas turbine engine inlet structure; the coolant loop includes a reservoir, a valve and a pump configured to circulate the coolant, the reservoir arranged downstream from the manifold and configured to collect the liquid; and a controller is in communication with a level sensor, the controller configured to operate the pump to maintain a desired condensate level in the reservoir and configured to operate the valve to provide desired flow rates and volumes at various locations throughout the coolant loop. a heat exchanger; a coolant loop in fluid communication with the heat exchanger and configured to circulate a coolant; an engine oil loop in fluid communication with the heat exchanger and configured to transfer heat to the coolant; and a gas turbine engine inlet structure including a cavity, and a manifold arranged in the cavity and in fluid communication with the coolant loop; characterised in that: the manifold is configured to spray the coolant onto the gas turbine engine inlet structure to de-ice the gas turbine engine inlet structure; the coolant loop includes a reservoir, a valve and a pump configured to circulate the coolant, the reservoir arranged downstream from the manifold and configured to collect the liquid; and a controller is in communication with a level sensor, the controller configured to operate the pump to maintain a desired condensate level in the reservoir and configured to operate the valve to provide desired flow rates and volumes at various locations throughout the coolant loop. the manifold is configured to spray the coolant onto the gas turbine engine inlet structure to de-ice the gas turbine engine inlet structure; the coolant loop includes a reservoir, a valve and a pump configured to circulate the coolant, the reservoir arranged downstream from the manifold and configured to collect the liquid; and a controller is in communication with a level sensor, the controller configured to operate the pump to maintain a desired condensate level in the reservoir and configured to operate the valve to provide desired flow rates and volumes at various locations throughout the coolant loop.
A polyhedron truss constructed with six-bar linkages in each of a lateral facet of the polyhedron truss, each six-bar linkage structure comprising six articulated struts (1, 2, 3, 4, 5, 6), each coupled to two others by a revolute joint to form a closed loop; the six-bar linkage structure being convertible from a deployed state into a folded state and vice versa; in the deployed state, the six-bar linkage structure forming a trapezoid with two opposing first and second parallel sides, each of the first and second opposing parallel sides being formed by two struts (3,4; 5,6) arranged in series and coupled by a center revolute joint (7a; 7b) at the center of the first and second parallel sides; and in the folded state, the two struts (3, 4) of the first parallel side being pivoted around a first center revolute joint so that the opposing end portions (3c, 4e) of the two struts (3, 4) are located side by side and the two struts (5,6) of the second parallel side being pivoted around a second center revolute joint so that the opposing end portions (5f, 6g) of the two struts (5, 6) are located side by side; wherein the polyhedron truss is convertible from a deployed state into a folded state and vice versa by converting the six-bar linkages of the lateral facets (510; 610; 710) from the deployed state into the folded state and vice versa; characterised in that, in the deployed state, the polyhedron truss (50; 60; 70) has a polygonal truncated pyramidal shape comprising an upper and lower ring of articulated struts (3, 4, 5, 6).
A nucleic acid sequence measurement device that measures a target having a specific nucleic acid sequence included in a sample by means of hybridization, the nucleic acid sequence measurement device comprising: a donor fluorescent probe having a first binding part and a first base end and having a donor fluorescent molecule added at predetermined position; a quenching probe having a second binding part and a second base end and having an acceptor fluorescent molecule added at predetermined position; and a substrate having a solid phase surface to which the first base end of the donor fluorescent probe and the second base end of the quenching probe are fixed, wherein the first binding part of the donor fluorescent probe and the second binding part of the quenching probe have sequences complementary to each other, wherein at least one of the donor fluorescent probe and the quenching probe has a detection part (13, 23) having a sequence complementary to a nucleic acid sequence of the target, and wherein the donor fluorescent probe and the quenching probe have a positional relationship in which fluorescence of the donor fluorescent molecule is quenched with the acceptor fluorescent molecule that approaches the donor fluorescent molecule, and the first base end and the second base end are fixed to the solid phase surface. a donor fluorescent probe having a first binding part and a first base end and having a donor fluorescent molecule added at predetermined position; a quenching probe having a second binding part and a second base end and having an acceptor fluorescent molecule added at predetermined position; and a substrate having a solid phase surface to which the first base end of the donor fluorescent probe and the second base end of the quenching probe are fixed, wherein the first binding part of the donor fluorescent probe and the second binding part of the quenching probe have sequences complementary to each other, wherein at least one of the donor fluorescent probe and the quenching probe has a detection part (13, 23) having a sequence complementary to a nucleic acid sequence of the target, and wherein the donor fluorescent probe and the quenching probe have a positional relationship in which fluorescence of the donor fluorescent molecule is quenched with the acceptor fluorescent molecule that approaches the donor fluorescent molecule, and the first base end and the second base end are fixed to the solid phase surface.
A device for continuously monitoring temperature of an artificially-created cavity in living body tissue that is bounded by a first hole in body tissue and a second hole in body tissue opposite the first hole, wherein the device comprises a distal portion and a proximal portion, wherein: the distal portion comprises: a body piercing device post for a body piercing device, the body piercing device post being configured for insertion and to be worn in an artificially-created cavity, said body piercing device post being dimensioned to be inserted into the artificially-created body tissue cavity, the body piercing device post comprising a means to sense temperature and provide a temperature measurement signal continuously or periodically using specified time intervals; and a spherical housing containing a transmitter configured to wirelessly transmit said temperature measurements continuously or periodically to a remote receiver for recording, the spherical housing being located at the distal end of the distal portion and being configured to be located outside of the first hole of the artificially-created cavity; the proximal portion further comprises: a removable proximal portion that is removably attached to the body piercing device post at the further end from the transmitter and that is configured to be located outside of the second hole of the artificially-created cavity; and the device further comprising: at least one power supply that powers said temperature sensor and said transmitter. a body piercing device post for a body piercing device, the body piercing device post being configured for insertion and to be worn in an artificially-created cavity, said body piercing device post being dimensioned to be inserted into the artificially-created body tissue cavity, the body piercing device post comprising a means to sense temperature and provide a temperature measurement signal continuously or periodically using specified time intervals; and a spherical housing containing a transmitter configured to wirelessly transmit said temperature measurements continuously or periodically to a remote receiver for recording, the spherical housing being located at the distal end of the distal portion and being configured to be located outside of the first hole of the artificially-created cavity; the proximal portion further comprises: a removable proximal portion that is removably attached to the body piercing device post at the further end from the transmitter and that is configured to be located outside of the second hole of the artificially-created cavity; and
A user equipment, UE, for use in a wireless network, the UE comprising: one or more processors configured to: provide a positioning request to a node while the UE is in a radio resource control idle, RRC_IDLE, or inactive, RRC_INACTIVE, state, characterised in that the positioning request is implemented in a random access channel, RACH, message A, MsgA, (102, 202, 302, 406, 424, 506, 544), wherein the MsgA (102, 202, 302, 406, 424, 506, 544) comprises a physical random access channel, PRACH, preamble and a payload comprising a type of requested positioning procedure; and receive a positioning response from the node, the positioning response implemented in a RACH message B, MsgB, (104, 208, 316, 412, 436, 520, 562), wherein MsgA (102, 202, 302, 406, 424, 506, 544) and MsgB (104, 208, 316, 412, 436, 520, 562) are part of a 2-step RACH procedure. provide a positioning request to a node while the UE is in a radio resource control idle, RRC_IDLE, or inactive, RRC_INACTIVE, state, characterised in that the positioning request is implemented in a random access channel, RACH, message A, MsgA, (102, 202, 302, 406, 424, 506, 544), wherein the MsgA (102, 202, 302, 406, 424, 506, 544) comprises a physical random access channel, PRACH, preamble and a payload comprising a type of requested positioning procedure; and receive a positioning response from the node, the positioning response implemented in a RACH message B, MsgB, (104, 208, 316, 412, 436, 520, 562), wherein MsgA (102, 202, 302, 406, 424, 506, 544) and MsgB (104, 208, 316, 412, 436, 520, 562) are part of a 2-step RACH procedure.
A method of transmitting a discovery reference signal, DRS, by a base station in a wireless access system supporting an unlicensed band, the method comprising: generating the DRS for the unlicensed band; and transmitting the DRS in a DRS occasion via the unlicensed band, wherein the DRS includes a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a cell-specific reference signal, CRS, wherein the SSS is generated based on a subframe, SF, number of an SF in which the DRS occasion occurs, wherein if the SF number is SF#0 to SF #4, the SSS is generated based on a SSS sequence corresponding to SF#0, and if the SF number is SF #5 to SF #9, the SSS is generated based on an SSS sequence corresponding to SF#5, wherein the DRS is transmitted along with a physical downlink shared channel, PDSCH, only in SF #0 or SF #5, and wherein the DRS is transmitted without the PDSCH in SF#1, SF#2, SF#3, SF#4, SF#6, SF#7, SF#8 or SF#9. generating the DRS for the unlicensed band; and transmitting the DRS in a DRS occasion via the unlicensed band, wherein the DRS includes a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a cell-specific reference signal, CRS, wherein the SSS is generated based on a subframe, SF, number of an SF in which the DRS occasion occurs, wherein if the SF number is SF#0 to SF #4, the SSS is generated based on a SSS sequence corresponding to SF#0, and if the SF number is SF #5 to SF #9, the SSS is generated based on an SSS sequence corresponding to SF#5, wherein the DRS is transmitted along with a physical downlink shared channel, PDSCH, only in SF #0 or SF #5, and wherein the DRS is transmitted without the PDSCH in SF#1, SF#2, SF#3, SF#4, SF#6, SF#7, SF#8 or SF#9.
A method for processing the handover to a close subscriber group cell, the method comprising: a target network element receiving a handover message (S502, S604, S704, S804, S904); and the target network element performing verification on a close subscriber group identity, CSG ID, carried in the handover message (S605, S705, S805, S905), and if the verification is not passed, then the target network element returning a response message carrying a CSG ID of the target network element to a superior network element of the target network element (S504, S606, S607, S706, S707, S806, S807, S906, S907). a target network element receiving a handover message (S502, S604, S704, S804, S904); and the target network element performing verification on a close subscriber group identity, CSG ID, carried in the handover message (S605, S705, S805, S905), and if the verification is not passed, then the target network element returning a response message carrying a CSG ID of the target network element to a superior network element of the target network element (S504, S606, S607, S706, S707, S806, S807, S906, S907).