mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving a first radio resource management, RRM, message at a radio resource controller, RRC, indicating that base station spare capacity information is needed within a network comprising the RRC and a plurality of radio resource agents, RRAs (308...314), wherein the first RRM message, received from a first RRA of the plurality of RRAs, is an Internet Protocol, IP, multicast to a first multicast group that includes at least some of the RRAs and the RRC, wherein the first RRA is included in a first base station; and transmitting a response, in a form of a second RRM message, from the RRC as an IP multicast to a second multicast group that includes at least some of the RRAs, the response comprising the base station spare capacity information. receiving a first radio resource management, RRM, message at a radio resource controller, RRC, indicating that base station spare capacity information is needed within a network comprising the RRC and a plurality of radio resource agents, RRAs (308...314), wherein the first RRM message, received from a first RRA of the plurality of RRAs, is an Internet Protocol, IP, multicast to a first multicast group that includes at least some of the RRAs and the RRC, wherein the first RRA is included in a first base station; and transmitting a response, in a form of a second RRM message, from the RRC as an IP multicast to a second multicast group that includes at least some of the RRAs, the response comprising the base station spare capacity information.
A method of manufacturing a buffer layer for an optical fiber, the method comprising extruding a main portion (55, 255) of a first polymeric material, the main portion (55, 255) being an annular hoop to surround the optical fiber; the method comprising: co-extruding at least one discontinuity (50, 252, 254) of a second polymeric material in the main portion (55, 255), the discontinuity (50, 252, 254) extending along a longitudinal length of the main portion (55, 255), and the first material being different from the second material; forming the buffer layer to have an outside diameter of less than 1100 micrometers; characterized in forming a bond during co-extrusion between the discontinuity (50, 252, 254) and the main portion (55, 255) such that the buffer layer comprises a cohesive composite polymer structure that is separable at the discontinuity (50, 252, 254) and the bond is enabled by way of polymer chain entanglement as the buffer layer solidifies. co-extruding at least one discontinuity (50, 252, 254) of a second polymeric material in the main portion (55, 255), the discontinuity (50, 252, 254) extending along a longitudinal length of the main portion (55, 255), and the first material being different from the second material; forming the buffer layer to have an outside diameter of less than 1100 micrometers; characterized in forming a bond during co-extrusion between the discontinuity (50, 252, 254) and the main portion (55, 255) such that the buffer layer comprises a cohesive composite polymer structure that is separable at the discontinuity (50, 252, 254) and the bond is enabled by way of polymer chain entanglement as the buffer layer solidifies.
Curing composition for rubber comprising - metallic co-agent selected from the group consisting of zinc diacrylate and zinc methacrylate - organic peroxide - sulfur - hydrotalcite compound. - metallic co-agent selected from the group consisting of zinc diacrylate and zinc methacrylate - organic peroxide - sulfur - hydrotalcite compound.
A kit for treating tissue and for use with an electromagnetic radiation source (18, 46), the kit comprising: a needle configured to create puncture holes in the tissue; and a photochemical agent configured to penetrate through the puncture holes when applied to the tissue and to be activated to cause crosslinking of proteins in the tissue when irradiated with a predetermined electromagnetic radiation; wherein: (a) the kit comprises the needle, which is part of a needle array of the kit and the needle array comprises a handle, a head and a button, the head including retractable needles configured to extend from a surface of the head by depressing the button and retract into the head once a user stops depressing the button, the head configured to be coupled to the handle; and (b) the kit is configured to allow insertion of the needle of the kit into the tissue; and wherein the kit is configured to allow for simultaneously drawing back the needle out of the tissue while injecting the photochemical agent through the needle so that the photochemical agent penetrates a depth of the tissue. a needle configured to create puncture holes in the tissue; and a photochemical agent configured to penetrate through the puncture holes when applied to the tissue and to be activated to cause crosslinking of proteins in the tissue when irradiated with a predetermined electromagnetic radiation; wherein: (a) the kit comprises the needle, which is part of a needle array of the kit and the needle array comprises a handle, a head and a button, the head including retractable needles configured to extend from a surface of the head by depressing the button and retract into the head once a user stops depressing the button, the head configured to be coupled to the handle; and (b) the kit is configured to allow insertion of the needle of the kit into the tissue; and wherein the kit is configured to allow for simultaneously drawing back the needle out of the tissue while injecting the photochemical agent through the needle so that the photochemical agent penetrates a depth of the tissue. (a) the kit comprises the needle, which is part of a needle array of the kit and the needle array comprises a handle, a head and a button, the head including retractable needles configured to extend from a surface of the head by depressing the button and retract into the head once a user stops depressing the button, the head configured to be coupled to the handle; and (b) the kit is configured to allow insertion of the needle of the kit into the tissue; and wherein the kit is configured to allow for simultaneously drawing back the needle out of the tissue while injecting the photochemical agent through the needle so that the photochemical agent penetrates a depth of the tissue.
An audio system for an ear mountable playback device comprising - a speaker; - an error microphone (FB_MIC) configured to sense sound being output from the speaker and ambient sound; the audio system characterized in that it further comprises - a detection engine configured to - measure a property of a first signal that is applied to the speaker; - measure a property of a second signal that is detected by the error microphone (FB_MIC); - determine a driver response between the speaker and the error microphone (FE_MIC) by calculating the driver response from the properties of the first and the second signal; and - estimate a leakage condition by comparing the determined driver response to known driver responses at different leakage conditions. - a speaker; - an error microphone (FB_MIC) configured to sense sound being output from the speaker and ambient sound; - a detection engine configured to - measure a property of a first signal that is applied to the speaker; - measure a property of a second signal that is detected by the error microphone (FB_MIC); - determine a driver response between the speaker and the error microphone (FE_MIC) by calculating the driver response from the properties of the first and the second signal; and - estimate a leakage condition by comparing the determined driver response to known driver responses at different leakage conditions. - measure a property of a first signal that is applied to the speaker; - measure a property of a second signal that is detected by the error microphone (FB_MIC); - determine a driver response between the speaker and the error microphone (FE_MIC) by calculating the driver response from the properties of the first and the second signal; and - estimate a leakage condition by comparing the determined driver response to known driver responses at different leakage conditions.
A 9- cis -retinal derivative for use in the treatment of an endogenous 11- cis -retinal deficiency in a human subject, wherein the 9- cis -retinal derivative has a structure represented by Formula I: wherein A is CH 2 OR and R forms a retinyl ester, wherein the human subject has an RPE65 gene mutation or an LRAT gene mutation.
Apparatus for a refrigeration system comprising: a compressor; a compressor controller; and a data module; wherein said compressor controller is attached to said compressor, wherein said data module comprises a housing, a processor and a memory, and is attached to said compressor, wherein said processor is configured to receive sensed data and store sensed data in said memory and, said data module processor is configured to determine a first diagnosis of at least one of said compressor and said refrigeration system based on said sensed data, said data module operable to communicate said sensed data and said first diagnosis to said compressor controller, characterised in that said compressor controller is configured to determine a second diagnosis of at least one of said compressor and said refrigeration system based on said sensed data from said data module processor and compare said first diagnosis and said second diagnosis to verify said first diagnosis. a compressor; a compressor controller; and a data module; wherein said compressor controller is attached to said compressor, wherein said data module comprises a housing, a processor and a memory, and is attached to said compressor, wherein said processor is configured to receive sensed data and store sensed data in said memory and, said data module processor is configured to determine a first diagnosis of at least one of said compressor and said refrigeration system based on said sensed data, said data module operable to communicate said sensed data and said first diagnosis to said compressor controller, characterised in that said compressor controller is configured to determine a second diagnosis of at least one of said compressor and said refrigeration system based on said sensed data from said data module processor and compare said first diagnosis and said second diagnosis to verify said first diagnosis.
A method of managing power in a wireless micro-sensor comprising: providing a self-contained energy source through a one-time electrical charge that sources the operation of the wireless micro-sensor's functional lifetime; identifying the rated capacity of the self-contained energy source by processing an identification value of the self-contained energy source; measuring temperatures of the self-contained energy source over time to determine a temperature trend; measuring the depth of discharge of the self-contained energy source; and controlling an asynchronous transmission of the micro-sensor in response to the measured temperatures of the self-contained energy source, the temperature trend of the self-contained energy source, and the depth of discharge of the self-contained energy source. providing a self-contained energy source through a one-time electrical charge that sources the operation of the wireless micro-sensor's functional lifetime; identifying the rated capacity of the self-contained energy source by processing an identification value of the self-contained energy source; measuring temperatures of the self-contained energy source over time to determine a temperature trend; measuring the depth of discharge of the self-contained energy source; and controlling an asynchronous transmission of the micro-sensor in response to the measured temperatures of the self-contained energy source, the temperature trend of the self-contained energy source, and the depth of discharge of the self-contained energy source.
A silicon-containing structure comprising a silicon composite comprising: a porous silicon secondary particle forming a core; first carbon flakes as an inner shell disposed on a surface of the porous silicon secondary particle to surround the core; a carbonaceous coating layer as a protective outer shell on the silicon composite, the carbonaceous coating layer comprising a first amorphous carbon; and a second amorphous carbon disposed in pores of the porous silicon secondary particle; wherein the porous silicon secondary particle comprises an aggregate of silicon composite primary particles, each comprising: silicon, a silicon suboxide on a surface of the silicon, and second carbon flakes on a surface of the silicon suboxide. a porous silicon secondary particle forming a core; first carbon flakes as an inner shell disposed on a surface of the porous silicon secondary particle to surround the core; a carbonaceous coating layer as a protective outer shell on the silicon composite, the carbonaceous coating layer comprising a first amorphous carbon; and a second amorphous carbon disposed in pores of the porous silicon secondary particle; wherein the porous silicon secondary particle comprises an aggregate of silicon composite primary particles, each comprising: silicon, a silicon suboxide on a surface of the silicon, and second carbon flakes on a surface of the silicon suboxide. silicon, a silicon suboxide on a surface of the silicon, and second carbon flakes on a surface of the silicon suboxide.
Container which can be carried along on the outside of a submarine, is of elongate form extending parallel to the submarine and comprises a cover which closes off the container on the end side and can be opened from the outside, characterized in that the container is provided with a carrying framework which is mounted within the container and, when the cover is opened, can be extended, at least in part, out of the container, and in that it comprises a smooth outer skin with inner ribs, its rear end side being closed and its front end side being open and being capable of being closed off by the cover.
A method implemented by a wireless transmit/receive unit, WTRU,, for handling quality of service, QoS, during an inter-system change of the WTRU from an Evolved Packet System, EPS, network to a 5G System, 5GS, network, the method comprising: sending a protocol data unit, PDU, modification request for a PDU session to a network node indicating support for reflective quality of services, RQoS, upon an inter-system change of the WTRU, wherein the PDU session was previously established with the EPS network; receiving data with a specific QoS; sending data in the PDU session using the specific QoS based on the sending of the PDU modification request that indicated support for RQoS. sending a protocol data unit, PDU, modification request for a PDU session to a network node indicating support for reflective quality of services, RQoS, upon an inter-system change of the WTRU, wherein the PDU session was previously established with the EPS network; receiving data with a specific QoS; sending data in the PDU session using the specific QoS based on the sending of the PDU modification request that indicated support for RQoS.
A pump assembly with an electric drive motor (4, 6), with at least one impeller which is driven by the drive motor (4, 6) and with at least one valve device which is situated in a flow path through the pump assembly and which is movable at least between a first and a second switching position, wherein the valve device is coupled to the drive motor via a first coupling in a manner such that a movement of the drive motor (4, 6) is transmitted onto the valve device and the valve device is movable from the first into the second switching position by way of a rotation movement of the drive motor (4, 6) and wherein the first coupling is releasable by way of increasing the speed of the drive motor (4, 6) and/or increasing the pressure at the outlet side of the impeller and/or by way of slip, in a manner such that the coupling between the drive motor (4, 6) and the valve device is reduced or lifted, characterised in that a second releasable coupling is provided between at least one movable part of the valve device and a pump casing which surrounds the impeller, said second releasable coupling being movable from a released, first coupling position into a holding, second coupling position by way of the pressure at the outlet side of the impeller. the valve device is coupled to the drive motor via a first coupling in a manner such that a movement of the drive motor (4, 6) is transmitted onto the valve device and the valve device is movable from the first into the second switching position by way of a rotation movement of the drive motor (4, 6) and wherein the first coupling is releasable by way of increasing the speed of the drive motor (4, 6) and/or increasing the pressure at the outlet side of the impeller and/or by way of slip, in a manner such that the coupling between the drive motor (4, 6) and the valve device is reduced or lifted, characterised in that a second releasable coupling is provided between at least one movable part of the valve device and a pump casing which surrounds the impeller, said second releasable coupling being movable from a released, first coupling position into a holding, second coupling position by way of the pressure at the outlet side of the impeller.
An optical system for occupancy sensing, said optical system comprising: - a plurality of optical line sensors (101, 102, 103; 201; 301), each optical line sensor comprising a linear array of light sensing elements; and - an optical light integrating device (203; 302, 303) adapted to integrate light from rays with incidence angles subject to geometric constraints to be sensed by a light sensing element out of said light sensing elements, CHARACTERIZED IN THAT said optical line sensors (101, 102, 103; 201; 301) are arranged to sense intersecting areas thereby enabling to localize foreground objects on a two dimensional or three dimensional occupancy map. - a plurality of optical line sensors (101, 102, 103; 201; 301), each optical line sensor comprising a linear array of light sensing elements; and - an optical light integrating device (203; 302, 303) adapted to integrate light from rays with incidence angles subject to geometric constraints to be sensed by a light sensing element out of said light sensing elements,
A method for controlling a variable speed drive driving an electric motor, the variable speed drive being connected to an electric power source, the variable speed drive comprising a passive DC-link and an inverter stage, the inverter stage being controlled by a first controller of the variable speed drive, the passive DC-link being connected to the inverter stage, the method comprising: running, by the variable speed drive, the electric motor to reach a steady-state operating point; measuring, by the variable speed drive, in response to reaching the steady state, a plurality of values of current or voltage of the passive DC-link; computing, by a second controller, a frequency spectrum of the DC-link based on the plurality of values of current or voltage measured; detecting, by the second controller, a specific resonance frequency by comparing amplitudes of the frequency spectrum to a predetermined pattern; and the method is characterised by modifying, by the first controller, filter parameters of a digital filter of the DC-link and control parameters of a control law of the electric motor based on the specific resonance frequency. running, by the variable speed drive, the electric motor to reach a steady-state operating point; measuring, by the variable speed drive, in response to reaching the steady state, a plurality of values of current or voltage of the passive DC-link; computing, by a second controller, a frequency spectrum of the DC-link based on the plurality of values of current or voltage measured; detecting, by the second controller, a specific resonance frequency by comparing amplitudes of the frequency spectrum to a predetermined pattern; and the method is characterised by modifying, by the first controller, filter parameters of a digital filter of the DC-link and control parameters of a control law of the electric motor based on the specific resonance frequency.
A welding system, comprising: - a welding power supply configured to provide welding power; - a weld cable coupled to the welding power supply and configured to transmit the welding power; and - a wire feeder system coupled to the weld cable and configured to route the welding power from the weld cable to a welding torch, each of the welding power supply and the wire feeder system including weld cable communications, WCC, circuitry comprising a processor configured to transmit and to receive a plurality of tones, which are complex sinusoidal signals, to provide communications between the welding power supply and the wire feeder system via the weld cable, characterized in that the WCC circuitries of the welding power supply and the wire feeder system are communicatively wired or wireless couplable to further external systems (49, 100, 39, 45) for enabling communication between them and with the welding power supply and the wire feeder system via the weld cable to transmit and receive data through the weld cable while the welding power is provided through the weld cable, wherein the WCC circuitry is configured to characterize the weld cable and to automatically determine a preferred communications mode for the weld cable communications, based on the characterization of the weld cable. - a welding power supply configured to provide welding power; - a weld cable coupled to the welding power supply and configured to transmit the welding power; and - a wire feeder system coupled to the weld cable and configured to route the welding power from the weld cable to a welding torch,
Method for exhaust gas post treatment, containing the following steps: a) providing a nitrogen oxide-containing raw exhaust gas, b) introducing the nitrogen oxide-containing raw exhaust gas into a catalytic evaporator, c) introducing a fuel into the catalytic evaporator so as to obtain a converted fuel which contains H 2 and/or CO and/or hydrocarbons having 1 to 10 carbon atoms, d) mixing urea with the converted fuel, e) supplying the mixture obtained according to step d) to a device for hydrolysis, and f) supplying the product obtained according to step e) to an exhaust gas post treatment system with a device for the selective catalytic reduction. a) providing a nitrogen oxide-containing raw exhaust gas, b) introducing the nitrogen oxide-containing raw exhaust gas into a catalytic evaporator, c) introducing a fuel into the catalytic evaporator so as to obtain a converted fuel which contains H 2 and/or CO and/or hydrocarbons having 1 to 10 carbon atoms, d) mixing urea with the converted fuel, e) supplying the mixture obtained according to step d) to a device for hydrolysis, and f) supplying the product obtained according to step e) to an exhaust gas post treatment system with a device for the selective catalytic reduction.