mhurhangee/ep-ind-claims huggingface dataset:
A method of providing feedforward-based ANR in an earpiece of a personal ANR device, the method comprising: monitoring a voltage level of an electric signal output by a feedforward microphone disposed on an external portion of the personal ANR device, wherein the electric signal is representative of environmental noise sounds detected by the feedforward microphone; selecting a predetermined voltage level that indicates that the voltage level of the electric signal output by the feedforward microphone ceases to be linearly related to an acoustic level of the environmental noise sounds detected by the feedforward microphone if reached by the electric signal output by the feedforward microphone; providing the environmental noise sounds detected by the feedforward microphone to a feedforward anti-noise generator as feedforward reference sounds to provide the feedforward-based ANR; compressing the environmental noise sounds prior to providing the environmental noise sounds to the anti-noise generator in response to peaks in the voltage level of the electric signal output by the feedforward microphone reaching the predetermined voltage level; amplifying the feedforward anti-noise sounds generated by the anti-noise generator; and acoustically outputting the feedforward anti-noise sounds with an acoustic driver disposed within the earpiece. monitoring a voltage level of an electric signal output by a feedforward microphone disposed on an external portion of the personal ANR device, wherein the electric signal is representative of environmental noise sounds detected by the feedforward microphone; selecting a predetermined voltage level that indicates that the voltage level of the electric signal output by the feedforward microphone ceases to be linearly related to an acoustic level of the environmental noise sounds detected by the feedforward microphone if reached by the electric signal output by the feedforward microphone; providing the environmental noise sounds detected by the feedforward microphone to a feedforward anti-noise generator as feedforward reference sounds to provide the feedforward-based ANR; compressing the environmental noise sounds prior to providing the environmental noise sounds to the anti-noise generator in response to peaks in the voltage level of the electric signal output by the feedforward microphone reaching the predetermined voltage level; amplifying the feedforward anti-noise sounds generated by the anti-noise generator; and acoustically outputting the feedforward anti-noise sounds with an acoustic driver disposed within the earpiece.
A computer system comprising: a deployment module to: deploy a second application to a server computer that is running a first application bound to a port of the server computer; start the second application without the second application being bound to the port; and a binding module to: bind the second application to the port while the first application is bound to the port; unbind the first application from the port after the second application is bound to the port; maintain a current state of the first application after the first application is unbound from the port; in response to a rollback command, bind the first application to the port while the second application is bound to the port; and in response to the rollback command, unbind the second application from the port after the first application is bound to the port. a deployment module to: deploy a second application to a server computer that is running a first application bound to a port of the server computer; start the second application without the second application being bound to the port; and deploy a second application to a server computer that is running a first application bound to a port of the server computer; start the second application without the second application being bound to the port; and a binding module to: bind the second application to the port while the first application is bound to the port; unbind the first application from the port after the second application is bound to the port; maintain a current state of the first application after the first application is unbound from the port; in response to a rollback command, bind the first application to the port while the second application is bound to the port; and in response to the rollback command, unbind the second application from the port after the first application is bound to the port. bind the second application to the port while the first application is bound to the port; unbind the first application from the port after the second application is bound to the port; maintain a current state of the first application after the first application is unbound from the port; in response to a rollback command, bind the first application to the port while the second application is bound to the port; and in response to the rollback command, unbind the second application from the port after the first application is bound to the port.
A MEMS substrate, comprising: a central planar portion configured to support a MEMS device; and characterized in comprising: a first electrical pad coplanar with the central planar portion, the first electrical pad being connected to the central planar portion through a first flexure, wherein the first flexure is configured to substantially mechanically isolate the first electrical pad from the central planar portion; and a second electrical pad coplanar with the central planar portion, the second electrical pad being connected through a second flexure to the central planar portion, the second flexure being configured to substantially mechanically isolate the second pad from the central planar portion, and the second electrical pad being mechanically isolated from the first electrical pad. a central planar portion configured to support a MEMS device; and characterized in comprising: a first electrical pad coplanar with the central planar portion, the first electrical pad being connected to the central planar portion through a first flexure, wherein the first flexure is configured to substantially mechanically isolate the first electrical pad from the central planar portion; and a second electrical pad coplanar with the central planar portion, the second electrical pad being connected through a second flexure to the central planar portion, the second flexure being configured to substantially mechanically isolate the second pad from the central planar portion, and the second electrical pad being mechanically isolated from the first electrical pad. a first electrical pad coplanar with the central planar portion, the first electrical pad being connected to the central planar portion through a first flexure, wherein the first flexure is configured to substantially mechanically isolate the first electrical pad from the central planar portion; and a second electrical pad coplanar with the central planar portion, the second electrical pad being connected through a second flexure to the central planar portion, the second flexure being configured to substantially mechanically isolate the second pad from the central planar portion, and the second electrical pad being mechanically isolated from the first electrical pad.
An HLA class I gene knock-in rodent in which an artificial chimeric gene encoding an artificial chimeric protein comprising a protein composed of exogenous or endogenous β2 microglobulin, HLA class I α1 and α2 regions, and an MHC class I α3 region of the rodent ligated in such order from the N terminus is expressed under the control of the transcription regulatory region of the β2 microglobulin gene of the rodent.
A system comprising a gasoline direct injection internal combustion engine having at least one cylinder with direct fuel injection and containing a piston reciprocally moveable within the cylinder and connected to a crank; a bore wall surface of the cylinder, a top surface of the piston, and a bottom surface of a cylinder head of the engine defining a variable volume combustion chamber; said cylinder head including an intake valve controlling communication with an air intake and an exhaust valve controlling communication with an exhaust outlet; a means for controlling the effective compression ratio of the engine; a means for controlling an amount of residual burned gas in the combustion chamber; a variable valve actuating system for variably actuating the intake and exhaust valves (62A, 62B) with respect to the angular position of the crank, said actuating system being capable of operating the intake and exhaust valves (62A, 62B) to control intake valve closing time and exhaust rebreathing; exhaust gas recirculation means with EGR control means to reintroduce exhaust gas into the combustion chamber; intake pressure boost means with intake pressure boost control means; fuel injection means capable of multiple injections per combustion cycle and capable of distributing fuel spatially within the combustion chamber to achieve desired charge stratification as a function of engine speed and load; and a control means (20, 22) controlling effective compression ratio, the amount of residual burned gas in the combustion chamber, EGR, number of fuel injections per combustion cycle, fuel injection timing, and boost pressure as a function of engine speed and load in a manner sufficient to enable gasoline direct injection compression ignition (GDCI) combustion of a mixture of air and a fuel having an (RON+MON)/2 value between about 75 and about 100 over the entire speed and load operating range (502, 504, 506, 508) of the engine the autoignition of said air-fuel mixture being initiated spontaneously without requiring an external stimulus such as a spark from a spark plug, to initiate combustion and wherein, fuel is injected in the range 100 crank angle degree before top dead center of a compression stroke to 10 crank angle degree after top dead center of the compression stroke.
A packing member configured to be placed inside a microwave oven, the microwave oven comprising a cooking plate, an air inlet and an air outlet, the packing member comprising: a component receiving portion configured to receive the cooking plate; a first arm bent and extending from the component receiving portion to the upper inside surface of the microwave oven when the packing member is inside the microwave oven; a second arm bent and extending from the component receiving portion to the upper inside surface of the microwave oven when the packing member is inside the microwave oven; characterised by a flange (43, 44) bent from the first arm and/or the second arm, and configured to cover, from the inside of the microwave oven, at least one of the air inlet and the air outlet, to prevent air flowing easily through the at least one of the air inlet and the air outlet when the packing member is inside the microwave oven. a component receiving portion configured to receive the cooking plate; a first arm bent and extending from the component receiving portion to the upper inside surface of the microwave oven when the packing member is inside the microwave oven; a second arm bent and extending from the component receiving portion to the upper inside surface of the microwave oven when the packing member is inside the microwave oven; characterised by a flange (43, 44) bent from the first arm and/or the second arm, and configured to cover, from the inside of the microwave oven, at least one of the air inlet and the air outlet, to prevent air flowing easily through the at least one of the air inlet and the air outlet when the packing member is inside the microwave oven.
An inflatable flotation device designed to be used with an aircraft, comprising: a main body having a distal end and a proximal end configured to be positioned nearer to the aircraft than the distal end, the main body configured to inflate to provide an evacuation route to a ground surface upon which the aircraft is resting; an extendable portion coupled to the proximal end of the main body and having a plurality of segments coupled together; a weighted object coupled to the extendable portion and configured to cause the extendable portion to extend in response to a distance between the proximal end of the main body and the ground surface upon which the aircraft is resting being equal to or greater than a threshold distance; and at least one thread configured to be used to lace at least some of the plurality of segments together, wherein the weighted object is coupled to the at least one thread and configured to loosen the at least one thread to allow the extendable portion to extend in response to the distance between the proximal end of the main body and the ground surface upon which the aircraft is resting being equal to or greater than the threshold distance, the threshold distance being a distance at which the weighted object may be positioned above the ground surface such that the gravity acts on the weighted object, exerting a force on the extendable portion, characterised in that the weighted object includes a canopy pouch storing a canopy configured to be removed and fastened to the main body to provide shade. a main body having a distal end and a proximal end configured to be positioned nearer to the aircraft than the distal end, the main body configured to inflate to provide an evacuation route to a ground surface upon which the aircraft is resting; an extendable portion coupled to the proximal end of the main body and having a plurality of segments coupled together; a weighted object coupled to the extendable portion and configured to cause the extendable portion to extend in response to a distance between the proximal end of the main body and the ground surface upon which the aircraft is resting being equal to or greater than a threshold distance; and at least one thread configured to be used to lace at least some of the plurality of segments together, wherein the weighted object is coupled to the at least one thread and configured to loosen the at least one thread to allow the extendable portion to extend in response to the distance between the proximal end of the main body and the ground surface upon which the aircraft is resting being equal to or greater than the threshold distance, the threshold distance being a distance at which the weighted object may be positioned above the ground surface such that the gravity acts on the weighted object, exerting a force on the extendable portion, characterised in that the weighted object includes a canopy pouch storing a canopy configured to be removed and fastened to the main body to provide shade.
A method of operating a radio access network, RAN, node of a wireless communication network, the method comprising: receiving (905, 1005, 1105, 1205) a Radio Resource Control, RRC, connection resume request message from a wireless terminal at the RAN node instructing the RAN node to establish a connection with the wireless terminal, which RRC Connection Resume Request message includes uplink data; obtaining (907, 1007, 1107, 1207) release information for the wireless terminal at the RAN node, witch release information comprises information to release a RRC connection based on a at least one of a traffic pattern, a traffic profile, release assistance information, and/or a release assistance indicator; and transmitting (913, 1013, 1113, 1213) a RRC connection release message to the wireless terminal after receiving the uplink data based on the release information for the wireless terminal, wherein the RRC connection release message includes a suspend indication that indicates that the RRC connection resume request is not progressed and that instructs the wireless terminal to suspend the connection. receiving (905, 1005, 1105, 1205) a Radio Resource Control, RRC, connection resume request message from a wireless terminal at the RAN node instructing the RAN node to establish a connection with the wireless terminal, which RRC Connection Resume Request message includes uplink data; obtaining (907, 1007, 1107, 1207) release information for the wireless terminal at the RAN node, witch release information comprises information to release a RRC connection based on a at least one of a traffic pattern, a traffic profile, release assistance information, and/or a release assistance indicator; and transmitting (913, 1013, 1113, 1213) a RRC connection release message to the wireless terminal after receiving the uplink data based on the release information for the wireless terminal, wherein the RRC connection release message includes a suspend indication that indicates that the RRC connection resume request is not progressed and that instructs the wireless terminal to suspend the connection.
A recombinant Corynebacterium ammoniagenes producing inosine, in which the gene encoding nucleoside hydrolase II having the nucleotide sequence represented by SEQ. ID. NO: 1 is inactivated and in which the gene encoding 5'-nucleotidase having the nucleotide sequence represented by SEQ ID NO:2 is over-expressed.
An apparatus comprised in a wireless device, the apparatus comprising: a first downconverter (750a, 850a) configured to downconvert a first radio frequency, RF, signal comprising multiple transmissions sent on multiple carriers to the wireless device the multiple transmissions on the multiple carriers comprising a first transmission on a first carrier and a second transmission on a second carrier; and a second downconverter (750b, 850b) configured to downconvert a second RF signal comprising the multiple transmissions sent on the multiple carriers, the first downconverter being selected to perform downconversion when received power of one of the first and second received RF signal is not greater than a first threshold or a difference between received power of the first transmission and received power of the second transmission is not greater than a second threshold, the first and second downconverters being selected to perform downconversion based on different mixing frequencies when the received power of one of the first and second received RF signal is greater than the first threshold and the difference between the received power of the first transmission and the received power of the second transmission is greater than the second threshold. a first downconverter (750a, 850a) configured to downconvert a first radio frequency, RF, signal comprising multiple transmissions sent on multiple carriers to the wireless device the multiple transmissions on the multiple carriers comprising a first transmission on a first carrier and a second transmission on a second carrier; and a second downconverter (750b, 850b) configured to downconvert a second RF signal comprising the multiple transmissions sent on the multiple carriers, the first downconverter being selected to perform downconversion when received power of one of the first and second received RF signal is not greater than a first threshold or a difference between received power of the first transmission and received power of the second transmission is not greater than a second threshold, the first and second downconverters being selected to perform downconversion based on different mixing frequencies when the received power of one of the first and second received RF signal is greater than the first threshold and the difference between the received power of the first transmission and the received power of the second transmission is greater than the second threshold.
An electrosurgical implement comprising: an elongate body having an opening at a forward end and comprising a rotatable rear barrel portion (10 3) and a pressing which is fixed both rotationally and longitudinally with respect to the rear barrel portion (10 3); an electrode assembly comprising a treatment electrode through which a treatment current may be passed in use, the treatment electrode having a patient contact region at a forward end; an electrode holder which carries the electrode assembly in said body, the electrode holder being movable between a retracted position in which the patient contact region of the electrode is shielded within said elongate body and at least one extended position in which said patient contact region projects through said opening; a bias arrangement for rearwardly biasing said electrode assembly towards its retracted position, and wherein the electrosurgical implement further comprises a latch arrangement for latching the electrode holder comprising a rear latch tooth engagable with at least one aperture (48, 50, 52) of the pressing, the latch arrangement holding the electrode holder in the at least one extended position when a user presses rearwardly on an exposed portion of the electrode holder; and the rear barrel (10 3) being rotatable relative to the remainder of the elongate body to urge the rear latch tooth into alignment with a longitudinally cutaway slot in the pressing, to unlatch the electrode holder for rearward retraction movement under the influence of the bias arrangement. an elongate body having an opening at a forward end and comprising a rotatable rear barrel portion (10 3) and a pressing which is fixed both rotationally and longitudinally with respect to the rear barrel portion (10 3); an electrode assembly comprising a treatment electrode through which a treatment current may be passed in use, the treatment electrode having a patient contact region at a forward end; an electrode holder which carries the electrode assembly in said body, the electrode holder being movable between a retracted position in which the patient contact region of the electrode is shielded within said elongate body and at least one extended position in which said patient contact region projects through said opening; a bias arrangement for rearwardly biasing said electrode assembly towards its retracted position, and wherein the electrosurgical implement further comprises a latch arrangement for latching the electrode holder comprising a rear latch tooth engagable with at least one aperture (48, 50, 52) of the pressing, the latch arrangement holding the electrode holder in the at least one extended position when a user presses rearwardly on an exposed portion of the electrode holder; and the rear barrel (10 3) being rotatable relative to the remainder of the elongate body to urge the rear latch tooth into alignment with a longitudinally cutaway slot in the pressing, to unlatch the electrode holder for rearward retraction movement under the influence of the bias arrangement.