mhurhangee/ep-ind-claims huggingface dataset:
A method for the identification of an agent for the treatment and/or prophylaxis of pain, wherein said method comprises screening for agents capable of inhibiting TRPM3, wherein said screening comprises determining the antinociceptive effect of said compound.
A transport power system (40, 238) comprising: a prime mover (13, 246) powering a transport climate control system (TCCS) being separate from and independent to a vehicle prime mover (20, 21) used for operating a vehicle (10, 11); a diesel particulate filter, DPF, disposed in an exhaust system of the transport power system; a DPF backpressure sensor upstream of the DPF configured to sense an absolute pressure; and a controller (41, 254), wherein the controller is configured to: determine an altitude of the transport power system based on a first absolute pressure sensed by the DPF backpressure sensor during a start-up sequence of the transport power system prior to running of the prime mover, adjust a power output upper limit for the prime mover based on the determined altitude, and control an operation of the prime mover of the transport power system not to exceed the adjusted power output upper limit. a prime mover (13, 246) powering a transport climate control system (TCCS) being separate from and independent to a vehicle prime mover (20, 21) used for operating a vehicle (10, 11); a diesel particulate filter, DPF, disposed in an exhaust system of the transport power system; a DPF backpressure sensor upstream of the DPF configured to sense an absolute pressure; and a controller (41, 254), wherein the controller is configured to: determine an altitude of the transport power system based on a first absolute pressure sensed by the DPF backpressure sensor during a start-up sequence of the transport power system prior to running of the prime mover, adjust a power output upper limit for the prime mover based on the determined altitude, and control an operation of the prime mover of the transport power system not to exceed the adjusted power output upper limit. determine an altitude of the transport power system based on a first absolute pressure sensed by the DPF backpressure sensor during a start-up sequence of the transport power system prior to running of the prime mover, adjust a power output upper limit for the prime mover based on the determined altitude, and control an operation of the prime mover of the transport power system not to exceed the adjusted power output upper limit.
A hydraulic actuator comprising a variable-delivery positive-displacement pump, a first directional-control valve commanded on the basis of an actuator movement instruction, and a ram supplied by the first directional-control valve, the pump comprising a mobile member a movement of which allows the delivery of the pump to be continuously varied, the member being able to be moved by the ram, the first directional-control valve allowing to apply a continuous function linking the movement instruction to the delivery of the pump via the position of the member as it moves, characterised in that the actuator comprises a second directional-control valve commanded on the basis of an output pressure of the pump, the second directional-control valve comprising two positions, one said rest position, obtained as long as the output pressure of the pump is below a predetermined pressure and transmitting the output from the first directional-control valve directly to the double-acting ram, thereby allowing the pump to follow the continuous function and the other, said active position, obtained when the output pressure of the pump is greater than or equal to the predetermined pressure and transmitting the output pressure of the pump to the ram so as to reduce the output pressure of the pump without passing via the first directional-control valve and without following the continuous function.
An active-matrix electrophoretic display device comprising a plurality of cells, each cell comprising a suspension of charged coloured particles in a light-transmissive fluid, a back substrate, a transmissive front substrate, a gate electrode, a source electrode, a thin-film transistor, a storage capacitor, and an obstructing element, wherein each cell further comprises a reservoir part for collecting the particles in a collected state and an active part for distributing the particles in a distributed state, the obstructing element being a light shield of the reservoir part behind which the particles are collected in the collected state, characterized in that the thin-film transistor and the storage capacitor are positioned beneath the obstructing light shield element in such a way that they are not visible for a viewer of the display device.
A glass-melting device for producing glass fibers, comprising: a first glass-melting tank; a conduit extending downwardly from the first glass-melting tank; a first sucking device for exposing the first glass-melting tank to a reduced-pressure atmosphere; a second glass-melting tank provided on a lower portion of the conduit and exposed to an atmospheric-pressure atmosphere; a bushing provided on a bottom portion of the second glass-melting tank and having a number of nozzles; and a decompression housing covering the first glass-melting tank and the conduit in which a pressure is reduced by the first sucking device, wherein each of the first glass-melting tank, the conduit, the second glass-melting tank, and the bushing has heating means for adjusting a temperature separately, wherein a conduit branch part branched from the conduit and extending upwardly is formed on the lower portion of the conduit, an electrode part is provided on each of the upper portion of the conduit or the first glass-melting tank and the conduit branch part, and the conduit and the conduit branch part are heated when a current is applied. a first glass-melting tank; a conduit extending downwardly from the first glass-melting tank; a first sucking device for exposing the first glass-melting tank to a reduced-pressure atmosphere; a second glass-melting tank provided on a lower portion of the conduit and exposed to an atmospheric-pressure atmosphere; a bushing provided on a bottom portion of the second glass-melting tank and having a number of nozzles; and a decompression housing covering the first glass-melting tank and the conduit in which a pressure is reduced by the first sucking device, wherein each of the first glass-melting tank, the conduit, the second glass-melting tank, and the bushing has heating means for adjusting a temperature separately, wherein a conduit branch part branched from the conduit and extending upwardly is formed on the lower portion of the conduit, an electrode part is provided on each of the upper portion of the conduit or the first glass-melting tank and the conduit branch part, and the conduit and the conduit branch part are heated when a current is applied.
One or more computer readable storage media storing instructions, that when executed by a computing device, cause the computing device to implement an message queue manager configured to perform acts comprising: managing a shared input message queue to process messages for multiple components (204 - 204) of an application; detecting a component of the multiple components (204 - 204) that is nonresponsive; and detaching the nonresponsive component from the shared input message queue, wherein detaching the nonresponsive component comprises: initiating a detached message queue to handle messages for the nonresponsive component; and migrating messages for the nonresponsive component from the shared input message queue to the detached message queue; wherein the message queue manager is further configured to perform acts comprising: determining that the component detected as being nonresponsive is again responsive; and reattaching the component to the shared input message queue; wherein reattaching the component comprises: merging messages for the component from a detached message queue into the shared input message queue; and clearing the detached message queue. managing a shared input message queue to process messages for multiple components (204 - 204) of an application; detecting a component of the multiple components (204 - 204) that is nonresponsive; and detaching the nonresponsive component from the shared input message queue, wherein detaching the nonresponsive component comprises: initiating a detached message queue to handle messages for the nonresponsive component; and migrating messages for the nonresponsive component from the shared input message queue to the detached message queue; wherein the message queue manager is further configured to perform acts comprising: determining that the component detected as being nonresponsive is again responsive; and reattaching the component to the shared input message queue; wherein reattaching the component comprises: merging messages for the component from a detached message queue into the shared input message queue; and clearing the detached message queue. initiating a detached message queue to handle messages for the nonresponsive component; and migrating messages for the nonresponsive component from the shared input message queue to the detached message queue; determining that the component detected as being nonresponsive is again responsive; and reattaching the component to the shared input message queue; merging messages for the component from a detached message queue into the shared input message queue; and clearing the detached message queue.
A radio network, comprising at least one mobile station and a mobility anchor of the radio network, wherein the mobile station is adapted to connect to the mobility anchor using multiple network interfaces simultaneously, and wherein data flows are routed between the at least one mobile station and the mobility anchor, the radio network further comprising an application function, which is configured to process and / or analyze information about routing policies contained in a signaling received from the mobile station, the application function being configured to push or signal at least one of the processed and / or analyzed information from the application function to an entity of the radio network that is adapted to enforce the routing policies to forward the data flows to one or more selected interfaces, the application function being further configured to signal the routing policies received from the network to the mobile station, so that bi-directional signalling of routing policies between the mobile station and the mobility anchor of the radio network is enabled via said application function, whereby the mobile station is enabled to send routing policies to the radio network and the radio network to send routing policies to the mobile station, and wherein the entity is assigned to or integrated into the mobility anchor.
An eyeground imaging apparatus comprising: an eyeground-image pickup unit configured to capture a two-dimensional image of a surface of an eyeground of a subject; a tomographic-image pickup unit configured to capture a tomographic image of the eyeground, the tomographic-image pickup unit having an optical system common to the eyeground-image pickup unit; an output unit configured to output a signal relating to the tomographic image so as to display the tomographic image on a display unit; a control unit configured to exert control over the eyeground-image pickup unit, the tomographic-image pickup unit, and the output unit; and a signal input unit configured to input a signal relating to the control to the control unit, wherein the control unit is configured to control the tomographic-image pickup unit so as to capture the tomographic image, in response to a first signal input from the signal input unit, and control the output unit so as to output the signal relating to the captured tomographic image to the display unit, characterized in that the control unit is configured to control the eyeground-image pickup unit so as to capture the two-dimensional image in response to a second signal input from the signal input unit in a case where the signal relating to the captured tomographic image is output from the output unit to the display unit. an eyeground-image pickup unit configured to capture a two-dimensional image of a surface of an eyeground of a subject; a tomographic-image pickup unit configured to capture a tomographic image of the eyeground, the tomographic-image pickup unit having an optical system common to the eyeground-image pickup unit; an output unit configured to output a signal relating to the tomographic image so as to display the tomographic image on a display unit; a control unit configured to exert control over the eyeground-image pickup unit, the tomographic-image pickup unit, and the output unit; and a signal input unit configured to input a signal relating to the control to the control unit, wherein the control unit is configured to control the tomographic-image pickup unit so as to capture the tomographic image, in response to a first signal input from the signal input unit, and control the output unit so as to output the signal relating to the captured tomographic image to the display unit, the control unit is configured to control the eyeground-image pickup unit so as to capture the two-dimensional image in response to a second signal input from the signal input unit in a case where the signal relating to the captured tomographic image is output from the output unit to the display unit.
A data bus subscriber for processing data, wherein the data bus subscriber is connectable to a local bus, in particular a ring bus, the data bus subscriber comprising: an input interface connectable to the local bus for receiving first local bus data (P1, P2, P3); an output interface connectable to the local bus for transmitting second local bus data (P1', P2', P3'); a processing component for clock-controlled processing of the first local bus data (P1, P2, P3) and/or of data stored in a memory, and for outputting at least one control signal; a logic unit adapted for changing a quantity of the received first local bus data (P1, P2, P3) based on the control signal for generating the second local bus data (P1', P2', P3') to be transmitted; wherein the logic unit is further adapted for clock-controlled delaying of the transmission of the second local bus data (P1', P2', P3') by the output interface, wherein the logic unit is adapted for outputting a validity signal to the output interface, wherein the validity signal is delayed in a clock-controlled manner by the logic unit, and wherein the output interface is adapted for transmitting the second local bus data (P1', P2', P3') only upon receiving of the validity signal. an input interface connectable to the local bus for receiving first local bus data (P1, P2, P3); an output interface connectable to the local bus for transmitting second local bus data (P1', P2', P3'); a processing component for clock-controlled processing of the first local bus data (P1, P2, P3) and/or of data stored in a memory, and for outputting at least one control signal; a logic unit adapted for changing a quantity of the received first local bus data (P1, P2, P3) based on the control signal for generating the second local bus data (P1', P2', P3') to be transmitted; wherein the logic unit is further adapted for clock-controlled delaying of the transmission of the second local bus data (P1', P2', P3') by the output interface, wherein the logic unit is adapted for outputting a validity signal to the output interface, wherein the validity signal is delayed in a clock-controlled manner by the logic unit, and wherein the output interface is adapted for transmitting the second local bus data (P1', P2', P3') only upon receiving of the validity signal.
A method to determine location, the method comprising: following a search discontinuity, integrating a satellite positioning system signal for a total integration time T2; sampling at least one observable signal metric at a time T1, the at least one observable signal metric is based on the integrating of the satellite positioning system signal, where the time T1 is shorter than the time T2; identifying peaks of the at least one observable signal metric; solving for a common code phase offset based on the peaks; determining a location based on the common code phase offset, wherein determining the location comprises: collecting I/Q data at the common code phase offset; checking the I/Q data for consistency, and when the consistency check succeeds, calculating a pseudorange rate from the I/Q data; checking the pseudorange rate for validity, and when the validity check succeeds, using the pseudorange rate to select a mode of location calculation, wherein the mode of location calculation is utilized to determine the location of a mobile satellite positioning system receiver. following a search discontinuity, integrating a satellite positioning system signal for a total integration time T2; sampling at least one observable signal metric at a time T1, the at least one observable signal metric is based on the integrating of the satellite positioning system signal, where the time T1 is shorter than the time T2; identifying peaks of the at least one observable signal metric; solving for a common code phase offset based on the peaks; determining a location based on the common code phase offset, wherein determining the location comprises: collecting I/Q data at the common code phase offset; checking the I/Q data for consistency, and when the consistency check succeeds, calculating a pseudorange rate from the I/Q data; checking the pseudorange rate for validity, and when the validity check succeeds, using the pseudorange rate to select a mode of location calculation, wherein the mode of location calculation is utilized to determine the location of a mobile satellite positioning system receiver. collecting I/Q data at the common code phase offset; checking the I/Q data for consistency, and when the consistency check succeeds, calculating a pseudorange rate from the I/Q data; checking the pseudorange rate for validity, and when the validity check succeeds, using the pseudorange rate to select a mode of location calculation, wherein the mode of location calculation is utilized to determine the location of a mobile satellite positioning system receiver.
A composition comprising: (a) a thiol-terminated polymer; and (b) a sulfur-containing ethylenically unsaturated silane, comprising within the molecule,: (i) at least one sulfur atom, (ii) at least one ethylenically unsaturated carbon-carbon bonds, and (iii) at least one silane group wherein R and R 1 each independently represent an organic group and x is 1, 2, or 3. (a) a thiol-terminated polymer; and (b) a sulfur-containing ethylenically unsaturated silane, comprising within the molecule,: (i) at least one sulfur atom, (ii) at least one ethylenically unsaturated carbon-carbon bonds, and (iii) at least one silane group wherein R and R 1 each independently represent an organic group and x is 1, 2, or 3. (i) at least one sulfur atom, (ii) at least one ethylenically unsaturated carbon-carbon bonds, and (iii) at least one silane group wherein R and R 1 each independently represent an organic group and x is 1, 2, or 3.
A system (100, 200, 500) for fluid delivery comprising a fluid; a refillable reservoir (102, 202, 502) for storing the fluid; a refillable reservoir outlet; a refillable reservoir outlet coupling; a pump (104, 204, 504) for moving the fluid; a pump hose (106, 206, 506) for conveying the fluid; a pump hose quick connect; a refillable container (118, 218, 518, 520) for receiving the fluid; a refillable container port; a refillable container quick connect (122, 222, 522) attached to the refillable container port; and the pump hose quick connect being designed for attaching the pump hose to the refillable container quick connect; wherein each pump hose quick connect and each refillable container quick connect (122, 222, 522) is a coupling that allows for attachment to another coupling without use of tools; wherein the pump is able to move the fluid in the system from the refillable reservoir (102, 202, 502) through the hose (106, 206, 506), through the pump hose quick connect and through the refillable container quick connect (122, 222, 522) to the refillable container (118, 218, 518, 520); characterized in that the refillable container (118, 218, 518, 520) includes a lid with a pop-up indicator attached therein.
Audio encoder for encoding an audio signal, comprising: a pre-filter for generating a pre-filtered audio signal, the pre-filter having a variable frequency warping characteristic, the frequency warping characteristic being controllable in response to a time-varying control signal, the control signal indicating a small or no frequency warping characteristic or a comparatively high frequency warping characteristic; a controller for providing the time-varying control signal, the time-varying control signal depending on the audio signal; and a controllable encoding processor for processing the pre-filtered audio signal to obtain an encoded audio signal, wherein the encoding processor is controlled to process the pre-filtered audio signal in accordance with a first coding algorithm adapted to a speech signal pattern, or in accordance with a second different encoding algorithm suitable for encoding a music signal. a pre-filter for generating a pre-filtered audio signal, the pre-filter having a variable frequency warping characteristic, the frequency warping characteristic being controllable in response to a time-varying control signal, the control signal indicating a small or no frequency warping characteristic or a comparatively high frequency warping characteristic; a controller for providing the time-varying control signal, the time-varying control signal depending on the audio signal; and a controllable encoding processor for processing the pre-filtered audio signal to obtain an encoded audio signal, wherein the encoding processor is controlled to process the pre-filtered audio signal in accordance with a first coding algorithm adapted to a speech signal pattern, or in accordance with a second different encoding algorithm suitable for encoding a music signal.
An engine for use in an aerial vehicle including: an air intake at a leading end of the engine, a nozzle at a tail end of the engine, an air fed combustion chamber that is fed air from the intake to burn liquid fuel and discharge from the engine through the nozzle, a rocket located proximate the intake that operates on the liquid fuel and an oxidiser, the rocket having an oxidiser fed combustion chamber within which the liquid fuel and oxidiser is burnt and an exhaust discharging the burnt fuel into the air fed combustion chamber, whereby the fuel is supplied to the oxidiser fed combustion chamber until the vehicle achieves a self sustaining velocity after which the fuel is supplied to the air fed combustion chamber, the air fed combustion chamber discharging into the nozzle, the nozzle including a rectilinear duct having at least one adjustable panel (33a, 33b) for adjusting the flow characteristics of the discharge moving through the nozzle, each panel (33a, 33b) includes a conduit formed therein through which conduit the fuel passes before it enters said air fed combustion chamber, whereby heat is transfer from each panel (33a, 33b) to the fuel.