mhurhangee/ep-ind-claims huggingface dataset:
An ultra-low power transceiver for controlling an energy-sustaining small cell base station, the energy-sustaining small cell base station operable for communication with a macro cell base station or a user equipment when in activated mode, the energy-sustaining small cell base station being in sleep mode when not in activated mode, the transceiver comprising: a detector operable to detect a control signal from the macro cell base station or the user equipment; a network node determination unit operable responsive to the detector to determine that the detected control signal relates to the energy-sustaining small cell base station; and a controller operable responsive to the determination unit to generate one or more digital control signals based on the detected control signal to control the energy-sustaining small cell base station, so as to switch the energy-sustaining small cell base station from said sleep mode to said activated mode, or vice versa, and characterised in that: depending on the digital control signals, modify and control the operation of the energy-sustaining small cell base station in said activated mode.
An electrode for a secondary battery which comprises an electrode binder for a secondary battery, a metal(oid) electrode active material and an electrode current collector, wherein the electrode binder is polyacrylonitrile, and the electrode is an anode.
A tamper detection system for a fuel dispenser, said system comprising: a circuit arrangement including a valve coil; a power source operative to supply power to the circuit arrangement; characterised in that the tamper detection system comprises: a detector configured to determine an electrical parameter of said circuit arrangement indicative of tampering with the valve coil; and an electronic controller communicatively connected with the detector, the electronic controller being configured to: receive a measurement from the detector based on a response in the circuit arrangement to power being supplied thereto; perform a comparison of data indicative of the measurements against predetermined criteria; and based on the comparison, determine whether tampering has occurred. a circuit arrangement including a valve coil; a power source operative to supply power to the circuit arrangement; characterised in that the tamper detection system comprises: a detector configured to determine an electrical parameter of said circuit arrangement indicative of tampering with the valve coil; and an electronic controller communicatively connected with the detector, the electronic controller being configured to: receive a measurement from the detector based on a response in the circuit arrangement to power being supplied thereto; perform a comparison of data indicative of the measurements against predetermined criteria; and based on the comparison, determine whether tampering has occurred. a detector configured to determine an electrical parameter of said circuit arrangement indicative of tampering with the valve coil; and an electronic controller communicatively connected with the detector, the electronic controller being configured to: receive a measurement from the detector based on a response in the circuit arrangement to power being supplied thereto; perform a comparison of data indicative of the measurements against predetermined criteria; and based on the comparison, determine whether tampering has occurred. receive a measurement from the detector based on a response in the circuit arrangement to power being supplied thereto; perform a comparison of data indicative of the measurements against predetermined criteria; and based on the comparison, determine whether tampering has occurred.
A modified protein comprising: (i) a protein having a coiled coil domain and at least one positively charged peptide directly linked to the coiled coil domain, wherein said modified protein is as set forth in SEQ ID NO: 42 (IMX313P) or in SEQ ID NO: 7 (IMX313T) or (ii) a protein having a trimeric coiled coil domain directly linked to a peptide of sequence SEQ ID NO: 37 (SPRRRRRRRRRS). (i) a protein having a coiled coil domain and at least one positively charged peptide directly linked to the coiled coil domain, wherein said modified protein is as set forth in SEQ ID NO: 42 (IMX313P) or in SEQ ID NO: 7 (IMX313T) or (ii) a protein having a trimeric coiled coil domain directly linked to a peptide of sequence SEQ ID NO: 37 (SPRRRRRRRRRS).
A directly imageable waterless lithographic printing plate precursor comprising at least a heat sensitive layer and a silicone rubber layer formed on a substrate in this order, wherein the heat sensitive layer contains at least a novolac resin, a polyurethane and a light-to-heat conversion material, and also has a phase separation structure including at least a phase containing a novolac resin and a phase containing a polyurethane, wherein the polyurethane is obtained from a polyisocyanate and a polyhydric alcohol, and an aromatic polyisocyanate accounts for at least 50 mol% of the polyisocyanate.
A method for manufacturing a contactless microcircuit antenna coil, comprising steps of: depositing a first electrically conducting layer (AL, AL1, AL2, AL3) on a first face of a wafer, and forming in the first layer an antenna coil (MA1-MA3) in a spiral comprising several turns, comprising an internal turn coupled to a contact pad inside the internal turn and an external turn coupled to a contact pad outside the external turn, characterized in that the external turn follows the entire contour of antenna coil except for a zone through which a conducting path coupling the external contact pad to the external turn can pass, the external and internal contact pads (ACT1, ACT2) of the antenna coil (MA1-MA4) being formed in a central zone of the external turn, the antenna coil comprising a bypass zone (CST1-CST4) in which each turn passes around the external contact pad in the central zone. depositing a first electrically conducting layer (AL, AL1, AL2, AL3) on a first face of a wafer, and forming in the first layer an antenna coil (MA1-MA3) in a spiral comprising several turns, comprising an internal turn coupled to a contact pad inside the internal turn and an external turn coupled to a contact pad outside the external turn, characterized in that the external turn follows the entire contour of antenna coil except for a zone through which a conducting path coupling the external contact pad to the external turn can pass, the external and internal contact pads (ACT1, ACT2) of the antenna coil (MA1-MA4) being formed in a central zone of the external turn, the antenna coil comprising a bypass zone (CST1-CST4) in which each turn passes around the external contact pad in the central zone.
A corrective system for an internal combustion engine, said engine having a crankshaft driven by combustion energy, a camshaft (26, 26a, 26b) that actuates one or more combustion valves (22, 24), and a variable valve timing system for controlling the timing of the actuation of the one or more valves by the camshaft relative to the crankshaft, the corrective system comprising: a cam rotor (106, 106a, 106b) that is operatively connectable with the camshaft; a synchronous endless drive arrangement including a continuous-loop elongate drive structure adapted to engage the crankshaft and the non-circular cam rotor (106, 106a, wherein said cam rotor (106, 106a, 106b) is adapted to generate a fluctuating corrective torque substantially counteracting a corresponding fluctuating intake or exhaust valve torque; wherein the cam rotor (106, 106a, 106b) has a peripheral edge engaging the elongate drive structure, said peripheral edge having a non-circular profile including a plurality of protruding rotor portions which alternate with receding rotor portions, characterized in that the angular positions of the protruding and receding rotor portions (110, 112) are adjustable relative to the crankshaft; wherein the system further comprises an actuator (114, 170) incorporated in the cam rotor (106, 106a, 106b) and configured to adjust the angular positions of the protruding and receding rotor portions (110, 112) relative to the crankshaft during operation of the engine. a cam rotor (106, 106a, 106b) that is operatively connectable with the camshaft; a synchronous endless drive arrangement including a continuous-loop elongate drive structure adapted to engage the crankshaft and the non-circular cam rotor (106, 106a, wherein said cam rotor (106, 106a, 106b) is adapted to generate a fluctuating corrective torque substantially counteracting a corresponding fluctuating intake or exhaust valve torque; wherein the cam rotor (106, 106a, 106b) has a peripheral edge engaging the elongate drive structure, said peripheral edge having a non-circular profile including a plurality of protruding rotor portions which alternate with receding rotor portions, characterized in that the angular positions of the protruding and receding rotor portions (110, 112) are adjustable relative to the crankshaft; wherein the system further comprises an actuator (114, 170) incorporated in the cam rotor (106, 106a, 106b) and configured to adjust the angular positions of the protruding and receding rotor portions (110, 112) relative to the crankshaft during operation of the engine.
A computer-implemented method for selecting bit widths for a fixed point implementation of a machine learning model, wherein the model comprises a neural network, the method comprising: evaluating a sensitivity of model accuracy to bit widths at each computational stage of the model, each computational stage being a layer of the neural network, wherein the evaluating comprises: injecting a level of noise into at least one computational stage of the model; determining a model accuracy for the at least one computational stage with the injected level of injected noise; and increasing (506, 502) the injected level of noise into the at least one computational stage of the model based on determining that the model accuracy for the at least one computational stage of the injected level of noise is above threshold; and selecting (404; 508) a bit width for both one or more of bias values and weights, and activation values in the computational stages of the model based at least in part on the evaluating. evaluating a sensitivity of model accuracy to bit widths at each computational stage of the model, each computational stage being a layer of the neural network, wherein the evaluating comprises: injecting a level of noise into at least one computational stage of the model; determining a model accuracy for the at least one computational stage with the injected level of injected noise; and increasing (506, 502) the injected level of noise into the at least one computational stage of the model based on determining that the model accuracy for the at least one computational stage of the injected level of noise is above threshold; and injecting a level of noise into at least one computational stage of the model; determining a model accuracy for the at least one computational stage with the injected level of injected noise; and increasing (506, 502) the injected level of noise into the at least one computational stage of the model based on determining that the model accuracy for the at least one computational stage of the injected level of noise is above threshold; and selecting (404; 508) a bit width for both one or more of bias values and weights, and activation values in the computational stages of the model based at least in part on the evaluating.
An in vitro method for isolating a dendritic cell precursor cell line, comprising: isolating dendritic cell precursor cells from a subject; placing in culture the isolated cells in a suitable culture medium containing an effective amount of GM-CSF to generate a dendritic cell precursor cell line from the isolated cells, and multiplying the generated cell line by means of successive cell divisions, so as to obtain a dendritic cell line specific to the subject, wherein the isolated cells have a CD48 negative/MHC class I-negative phenotype. isolating dendritic cell precursor cells from a subject; placing in culture the isolated cells in a suitable culture medium containing an effective amount of GM-CSF to generate a dendritic cell precursor cell line from the isolated cells, and multiplying the generated cell line by means of successive cell divisions, so as to obtain a dendritic cell line specific to the subject, wherein the isolated cells have a CD48 negative/MHC class I-negative phenotype.
A condition monitoring device that executes a measurement process in response to reception of a trigger signal, the condition monitoring device comprising: a setting unit that sets a priority of a received trigger signal based on a type of the received trigger signal; and a measurement processing unit that executes the measurement process, wherein when the trigger signal is received and when a measurement process resulting from a trigger signal having a priority lower than a priority of the received trigger signal is being executed, the measurement processing unit suspends the measurement process being executed and starts a measurement process corresponding to the received trigger signal, wherein the trigger signal may have a first priority or a second priority, characterized in that when a trigger signal having the first priority is received and when a measurement process resulting from a trigger signal having the first priority is being executed, the measurement processing unit discards the received trigger signal having the first priority and continues the measurement process being executed, and when a trigger signal having the second priority higher than the first priority is received and when a measurement process resulting from a trigger signal having the second priority is being executed, the measurement processing unit registers the received trigger signal having the second priority and executes a measurement process corresponding to the registered trigger signal successively after completion of the measurement process being executed. a setting unit that sets a priority of a received trigger signal based on a type of the received trigger signal; and a measurement processing unit that executes the measurement process, wherein when the trigger signal is received and when a measurement process resulting from a trigger signal having a priority lower than a priority of the received trigger signal is being executed, the measurement processing unit suspends the measurement process being executed and starts a measurement process corresponding to the received trigger signal, wherein the trigger signal may have a first priority or a second priority, characterized in that when a trigger signal having the first priority is received and when a measurement process resulting from a trigger signal having the first priority is being executed, the measurement processing unit discards the received trigger signal having the first priority and continues the measurement process being executed, and when a trigger signal having the second priority higher than the first priority is received and when a measurement process resulting from a trigger signal having the second priority is being executed, the measurement processing unit registers the received trigger signal having the second priority and executes a measurement process corresponding to the registered trigger signal successively after completion of the measurement process being executed.
A light emitting device module comprising: a circuit board; a light emitting device bonded to a conductive layer (281, 282) on the circuit board via a conductive adhesive (28a, 28c), the light emitting device comprising a light emitting structure on a substrate and the light emitting structure comprising a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer; a phosphor layer disposed on a side surface and an upper surface of the light emitting device; and a lens disposed on the circuit board and the phosphor layer, wherein a void is disposed between the light emitting structure and the circuit board; and a height of the phosphor layer at the side surface of the light emitting device is equal to a height of the light emitting device; characterized in that the thickness of the lens at the periphery thereof outside of the light emitting device is greater than a height of the light emitting device and less than the sum of the height of the light emitting device and a height of the phosphor layer. a circuit board; a light emitting device bonded to a conductive layer (281, 282) on the circuit board via a conductive adhesive (28a, 28c), the light emitting device comprising a light emitting structure on a substrate and the light emitting structure comprising a first conductivity type semiconductor layer, an active layer and a second conductivity type semiconductor layer; a phosphor layer disposed on a side surface and an upper surface of the light emitting device; and a lens disposed on the circuit board and the phosphor layer, wherein a void is disposed between the light emitting structure and the circuit board; and a height of the phosphor layer at the side surface of the light emitting device is equal to a height of the light emitting device; characterized in that the thickness of the lens at the periphery thereof outside of the light emitting device is greater than a height of the light emitting device and less than the sum of the height of the light emitting device and a height of the phosphor layer.
A metallized optical fiber comprising: A) An optical fiber, and B) A metal over and in contact with the optical fiber, the metallized optical fiber characterized by the metal having a thickness that is at least 1 times the thickness of the optical fiber and wherein the metal is in the form of a strip that runs along the longitudinal axis of the fiber and covers less than the entire surface of the optical fiber. A) An optical fiber, and B) A metal over and in contact with the optical fiber, the metallized optical fiber characterized by the metal having a thickness that is at least 1 times the thickness of the optical fiber and wherein the metal is in the form of a strip that runs along the longitudinal axis of the fiber and covers less than the entire surface of the optical fiber.
A method for manufacturing a sintered bearing having a bearing surface on an inner periphery thereof, the bearing surface forming a bearing gap with respect to a shaft to be supported, the method comprising: a step of using a diffusion alloyed powder prepared by partially diffusing a copper powder in an iron powder, as a main material; incorporating 0.5 to 5.0% by mass of a low-melting-point powder having a melting point of less than or equal to 700°C and 0.3 to 1.5% by mass of a graphite powder into the diffusion alloyed powder; and further adding either one or both of a simple iron powder and a simple copper powder to the base powder to produce a base powder having a proportion of the diffusion alloyed powder being greater than or equal to 50% by mass, the low-melting point powder being selected from a powder of tin, zinc or phosphorus; a compacting step of compacting the base powder to obtain a green compact, and a sintering step of sintering the green compact to obtain a sintered compact, sintering temperature of the green compact being set lower than the melting point of copper. a step of using a diffusion alloyed powder prepared by partially diffusing a copper powder in an iron powder, as a main material; incorporating 0.5 to 5.0% by mass of a low-melting-point powder having a melting point of less than or equal to 700°C and 0.3 to 1.5% by mass of a graphite powder into the diffusion alloyed powder; and further adding either one or both of a simple iron powder and a simple copper powder to the base powder to produce a base powder having a proportion of the diffusion alloyed powder being greater than or equal to 50% by mass, the low-melting point powder being selected from a powder of tin, zinc or phosphorus; a compacting step of compacting the base powder to obtain a green compact, and a sintering step of sintering the green compact to obtain a sintered compact, sintering temperature of the green compact being set lower than the melting point of copper.
A method (300,400) of servicing content for delivery to a client device, said method comprising: initiating a session between the client device and a portal, wherein initiating the session comprises receiving (302, 402), at the portal, a request from the client device that identifies an item of content; based on the received request, identifying (304,404) a type of service to be performed on an item of content; using (306,406) an estimate of resources associated with performing said service to select a provider from a plurality of providers (130, 132) capable of performing said service, the method being characterised in that it comprises: providing (308,410) information for transferring said session from said portal to said selected provider, wherein said selected provider performs said service on said item of content upon being transferred said session; and sending the serviced item of content from the selected provider to the client device, wherein transferring the session comprises: receiving at the client device or at the selected provider, information sufficient for establishing a communication between the client device and the selected provider; and based on the received information, establishing a communication between the client device and the selected provider. initiating a session between the client device and a portal, wherein initiating the session comprises receiving (302, 402), at the portal, a request from the client device that identifies an item of content; based on the received request, identifying (304,404) a type of service to be performed on an item of content; using (306,406) an estimate of resources associated with performing said service to select a provider from a plurality of providers (130, 132) capable of performing said service, the method being characterised in that it comprises: providing (308,410) information for transferring said session from said portal to said selected provider, wherein said selected provider performs said service on said item of content upon being transferred said session; and sending the serviced item of content from the selected provider to the client device, providing (308,410) information for transferring said session from said portal to said selected provider, wherein said selected provider performs said service on said item of content upon being transferred said session; and sending the serviced item of content from the selected provider to the client device, wherein transferring the session comprises: receiving at the client device or at the selected provider, information sufficient for establishing a communication between the client device and the selected provider; and based on the received information, establishing a communication between the client device and the selected provider. receiving at the client device or at the selected provider, information sufficient for establishing a communication between the client device and the selected provider; and based on the received information, establishing a communication between the client device and the selected provider.