mhurhangee/ep-ind-claims huggingface dataset:
An epoxy compound A having a structure of the general formula: in the formula, Ar's each independently represent a structure having an unsubstituted or substituted aromatic ring; R 1 and R 2 each independently represent a hydrogen atom or an alkyl group having 1 or 2 carbon atoms; R 3 to R 8 represent a hydroxy group, a glycidyl ether group and/or a 2-methylglycidyl ether group, and at least one of R 3 to R 8 is a glycidyl ether group or a 2-methylglycidyl ether group; R 9 to R 12 represent a hydrogen atom or a methyl group; n is an integer of 12 to 15; and m, p 2, p 2, and q are average values of repetition, m is 0.5 to 10, p 2 and p 2 are each independently 0 to 5, and q is 0.5 to 5 (provided that each repeating unit present in the repeating units may be the same or different).
A method to initialize a platform carried out by an apparatus, the method comprising: - detecting, by a platform power chance monitor of the apparatus, a power-on condition of the platform; - preventing, by a boot loader manager of the apparatus, loading of a default operating system for initiating operations of the platform in response to detecting a power-on condition of the platform; - retrieving, by a context manager of the apparatus, a first context information associated with the platform, wherein the first context information is a first Service Set Identifier SSID of a network in proximity of the platform; - retrieving, by a policy manager of the apparatus, a profile table stored in the platform comprising a plurality of different second context information, a plurality of different first operating system and a plurality of different access privileges to a platform storage comprising sensitive data in the platform; wherein each second context of the plurality of different second context information corresponds to one operating system of the different operating systems and one access privilege from the different access privileges; - identifying, by the policy manager, one second context of the different second context information in the table that matches the first context information; and - authorizing, by the policy manager, loading of the one operating system corresponding to the one second context information and authorizing, by a disk privilege manager of the apparatus, the one access privilege corresponding to the one second context information. - detecting, by a platform power chance monitor of the apparatus, a power-on condition of the platform; - preventing, by a boot loader manager of the apparatus, loading of a default operating system for initiating operations of the platform in response to detecting a power-on condition of the platform; - retrieving, by a context manager of the apparatus, a first context information associated with the platform, wherein the first context information is a first Service Set Identifier SSID of a network in proximity of the platform; - retrieving, by a policy manager of the apparatus, a profile table stored in the platform comprising a plurality of different second context information, a plurality of different first operating system and a plurality of different access privileges to a platform storage comprising sensitive data in the platform; - identifying, by the policy manager, one second context of the different second context information in the table that matches the first context information; and - authorizing, by the policy manager, loading of the one operating system corresponding to the one second context information and authorizing, by a disk privilege manager of the apparatus, the one access privilege corresponding to the one second context information.
A filtration device comprising a fluid conduit fluidly connecting a fluid inlet to a fluid outlet; and a filter medium disposed in the fluid conduit; the filter medium comprising a carbon substrate having a surface of CO x E y as measured by XPS, wherein E is selected from at least one of S, Se, and Te; and wherein x is no more than 0.2, and y is 0.001 to 0.4.
A mobility management entity, MME, for at least one Dedicated Core Network, DCN, the MME comprising: a transceiver operable to communicate with a base station operating a communication cell and to communicate with at least one communication device within said communication cell; a controller operable to control the MME to serve at least one DCN, wherein the at least one DCN is associated with at least one service type that the MME is configured to support for communication devices having a usage type corresponding to said at least one supported service type; and wherein said transceiver is operable to send, to said base station, in an S1 Setup Response message or in an MME Configuration Update message, information identifying said at least one DCN served by the MME. a transceiver operable to communicate with a base station operating a communication cell and to communicate with at least one communication device within said communication cell; a controller operable to control the MME to serve at least one DCN, wherein the at least one DCN is associated with at least one service type that the MME is configured to support for communication devices having a usage type corresponding to said at least one supported service type; and wherein said transceiver is operable to send, to said base station, in an S1 Setup Response message or in an MME Configuration Update message, information identifying said at least one DCN served by the MME.
A blender for blending ingredients, said blender comprising: - a base part comprising a heating plate, - a container for receiving said ingredients, said container being detachable from said base part and comprising a bottom part for contacting the heating plate, said base part comprising a temperature sensor for sensing the temperature of said bottom part, characterized in that said temperature sensor extends through said heating plate. - a base part comprising a heating plate, - a container for receiving said ingredients, said container being detachable from said base part and comprising a bottom part for contacting the heating plate,
Swimming-pool cleaning robot comprising a water-jet electro-hydraulic propulsion unit/pump (31, 34, 35) and a waste-collecting body, characterized in that it comprises a power supply battery for said unit, the unit and the battery being contained in a leaktight rotary turret outside the body of the robot.
A capacitance-type potential measurement device capable of recording intracellular potential or potential change of target cells, comprising a charge amplifier, and a first conductor and a second conductor for forming a capacitor, wherein the device has a potential recording circuit formed by connecting the first conductor to a positive input of the charge amplifier, and by connecting the second conductor to a negative input, wherein: the first conductor is a conductive plate, onto which the target cells adhere, the conductive plate is in contact with one end of conductive magnetic nanoparticles penetrating the cell membrane in the lower surface of the target cells, in the upper surface of the conductive plate, and the conductive magnetic nanoparticles have further the other end inside of the target cells; and the second conductor is a conductive sheet placed between the conductive plate and a magnet placed below the conductive plate, or the first conductor is a magnet electrode adhered onto the target cells from above the target cells, wherein the lower surface of the magnet electrode is in contact with one end of conductive magnetic nanoparticles that penetrate the cell membrane in the upper surface of the target cells, and wherein the conductive magnetic nanoparticles have further the other end inside of the target cells; and the second conductor is a magnetic body or a magnet-attracting metal plate provided on the upper surface of an insulator covering the upper surface and side surface of the magnet electrode. the first conductor is a conductive plate, onto which the target cells adhere, the conductive plate is in contact with one end of conductive magnetic nanoparticles penetrating the cell membrane in the lower surface of the target cells, in the upper surface of the conductive plate, and the conductive magnetic nanoparticles have further the other end inside of the target cells; and the second conductor is a conductive sheet placed between the conductive plate and a magnet placed below the conductive plate, or the conductive plate is in contact with one end of conductive magnetic nanoparticles penetrating the cell membrane in the lower surface of the target cells, in the upper surface of the conductive plate, and the conductive magnetic nanoparticles have further the other end inside of the target cells; and the second conductor is a conductive sheet placed between the conductive plate and a magnet placed below the conductive plate, or the first conductor is a magnet electrode adhered onto the target cells from above the target cells, wherein the lower surface of the magnet electrode is in contact with one end of conductive magnetic nanoparticles that penetrate the cell membrane in the upper surface of the target cells, and wherein the conductive magnetic nanoparticles have further the other end inside of the target cells; and the second conductor is a magnetic body or a magnet-attracting metal plate provided on the upper surface of an insulator covering the upper surface and side surface of the magnet electrode.
Pitch adjustment cylinder for adjusting a pitch angle of a blade of a wind turbine, the pitch adjustment cylinder comprising: - a cylinder barrel having a first cylinder barrel thread with a first thread pitch, - a piston arranged movably in the cylinder barrel and extending out of the cylinder barrel for coupling to one of the blade and a hub of the wind turbine, - a trunnion adapted to couple the cylinder barrel to the other one of the blade and the hub of the wind turbine, wherein the cylinder barrel extends through the trunnion, the trunnion has a first trunnion thread with a second thread pitch being different from the first thread pitch; - a sleeve arranged at least partially between the trunnion and the cylinder barrel, wherein the cylinder barrel extends through the sleeve, the sleeve has an inner sleeve thread with the first thread pitch and is engaged with the first cylinder barrel thread)and the sleeve has an outer sleeve thread with the second thread pitch and is engaged with the first trunnion thread. - a cylinder barrel having a first cylinder barrel thread with a first thread pitch, - a piston arranged movably in the cylinder barrel and extending out of the cylinder barrel for coupling to one of the blade and a hub of the wind turbine, - a trunnion adapted to couple the cylinder barrel to the other one of the blade and the hub of the wind turbine, wherein the cylinder barrel extends through the trunnion, the trunnion has a first trunnion thread with a second thread pitch being different from the first thread pitch; - a sleeve arranged at least partially between the trunnion and the cylinder barrel, wherein the cylinder barrel extends through the sleeve, the sleeve has an inner sleeve thread with the first thread pitch and is engaged with the first cylinder barrel thread)and the sleeve has an outer sleeve thread with the second thread pitch and is engaged with the first trunnion thread.
A transducer for non-invasive measurement, comprising: a piezoelectric element; a base plate; and driver electronics; wherein, the piezoelectric element is mounted to a first face of the base plate; wherein, a second face of the base plate is configured to be mounted to a wall of a vessel, wherein the vessel is configured to hold a liquid; wherein, the driver electronics is configured to drive the piezoelectric element at a plurality of activation frequencies, wherein the plurality of activation frequencies are resonance frequencies of the piezoelectric element, and wherein the resonance frequencies are longitudinal resonance frequencies; wherein, when the second face of the base plate is mounted to the wall of the vessel, the transducer when activated is configured to excite acoustic waves in the base plate and to launch an acoustic wave into the liquid; and wherein the transducer is configured such that an angular divergence of the acoustic wave launched into the liquid varies as a function of at least the activation frequency and a dimension of the piezoelectric element, wherein the drive electronics is configured to vary the angular divergence of the acoustic wave launched into the liquid from a first angular divergence to a second angular divergence by changing the activation frequency from a first activation frequency of the piezoelectric element to a second activation efrequency of the piezoelectric element, and wherein the transducer is configured such that the angular divergence of the acoustic wave launched into the liquid increases as the activation frequency decreases. a piezoelectric element; a base plate; and driver electronics; wherein, the piezoelectric element is mounted to a first face of the base plate; wherein, a second face of the base plate is configured to be mounted to a wall of a vessel, wherein the vessel is configured to hold a liquid; wherein, the driver electronics is configured to drive the piezoelectric element at a plurality of activation frequencies, wherein the plurality of activation frequencies are resonance frequencies of the piezoelectric element, and wherein the resonance frequencies are longitudinal resonance frequencies; wherein, when the second face of the base plate is mounted to the wall of the vessel, the transducer when activated is configured to excite acoustic waves in the base plate and to launch an acoustic wave into the liquid; and wherein the transducer is configured such that an angular divergence of the acoustic wave launched into the liquid varies as a function of at least the activation frequency and a dimension of the piezoelectric element, wherein the drive electronics is configured to vary the angular divergence of the acoustic wave launched into the liquid from a first angular divergence to a second angular divergence by changing the activation frequency from a first activation frequency of the piezoelectric element to a second activation efrequency of the piezoelectric element, and wherein the transducer is configured such that the angular divergence of the acoustic wave launched into the liquid increases as the activation frequency decreases.
A system comprising: a dielectric meter cover; a sensing component configured to generate a measurement signal representing an amount of a commodity; a central processing unit, hereinafter called CPU configured to receive the measurement signal and generate a corresponding communication signal; a transceiver coupled to the CPU and having an output port configured to provide an output signal including measurement data indicative of the communication signal; and an antenna system including an electric field source and an antenna element, the electric field source located within the dielectric meter cover and electrically connected to the output port of the transceiver for forming an electric field indicative of the output signal, the antenna element separated from the electric field source by and located external to the dielectric meter cover and configured to capacitively couple to the electric field source and radiate electromagnetic radiation indicative of the output signal, wherein the antenna element is a tuned structure comprised of a longer antenna element and a shorter antenna element, wherein one end of the longer antenna element is configured to capacitively couple in a coupling area with the electric field source and the other end of the longer antenna element is configured to radiate electromagnetic radiation, wherein the electric field source comprises a plurality of metallic planar strips (120A, 120B) and wherein the antenna element comprises a plurality of metallic planar strips (122A, 122B). a dielectric meter cover; a sensing component configured to generate a measurement signal representing an amount of a commodity; a central processing unit, hereinafter called CPU configured to receive the measurement signal and generate a corresponding communication signal; a transceiver coupled to the CPU and having an output port configured to provide an output signal including measurement data indicative of the communication signal; and an antenna system including an electric field source and an antenna element, the electric field source located within the dielectric meter cover and electrically connected to the output port of the transceiver for forming an electric field indicative of the output signal, the antenna element separated from the electric field source by and located external to the dielectric meter cover and configured to capacitively couple to the electric field source and radiate electromagnetic radiation indicative of the output signal, wherein the antenna element is a tuned structure comprised of a longer antenna element and a shorter antenna element, wherein one end of the longer antenna element is configured to capacitively couple in a coupling area with the electric field source and the other end of the longer antenna element is configured to radiate electromagnetic radiation, wherein the electric field source comprises a plurality of metallic planar strips (120A, 120B) and wherein the antenna element comprises a plurality of metallic planar strips (122A, 122B).
A method, performed by a user equipment, UE, for a 5G network, of configuring the UE to perform a measurement during a network controlled small gap, NCSG, the NCSG including a first visible interruption length, VIL1, a measurement length, ML, a second visible interruption length, VIL2, and a visible interruption repetition period, VIRP, the method comprising: transmitting to the 5G network a UE capability indicating a length of one or both the VIL1 and the VIL2, in which the UE capability is indicated in an SRS-SwitchingTimeNR information element; and receiving NCSG pattern information indicating the NCSG, in which the VIL1 and the VIL2 indicate when the UE is not expected to transmit and receive data on a serving carrier, the ML indicates when the UE is expected to transmit and receive data on the serving carrier, and the VIRP indicates a period in which to repeat the NCSG, in which the VIRP includes a set of periods matching those of Measurement Gap Repetition Periods, MGRP, including 20 ms, 40 ms, 80 ms, and 160 ms. transmitting to the 5G network a UE capability indicating a length of one or both the VIL1 and the VIL2, in which the UE capability is indicated in an SRS-SwitchingTimeNR information element; and receiving NCSG pattern information indicating the NCSG, in which the VIL1 and the VIL2 indicate when the UE is not expected to transmit and receive data on a serving carrier, the ML indicates when the UE is expected to transmit and receive data on the serving carrier, and the VIRP indicates a period in which to repeat the NCSG, in which the VIRP includes a set of periods matching those of Measurement Gap Repetition Periods, MGRP, including 20 ms, 40 ms, 80 ms, and 160 ms.
A bonded structure comprising: a first wafer, wherein the first wafer includes a growth substrate and a plurality of semiconductor devices, a second wafer including a submount substrate having vias that are aligned with contacts electrically connected to the semiconductor devices, wherein the second wafer is bonded to the first wafer via bonding surfaces on the first and second wafers, and wherein the submount substrate of the second wafer is scored with a plurality of slots and wherein the slots are aligned with boundaries between the semiconductor devices, characterized in that, the semiconductor devices include light emitting devices and, the plurality of slots are arranged on a surface that is opposite to the bonding surface of the second wafer to reduce warpage of the bonded structure. a first wafer, wherein the first wafer includes a growth substrate and a plurality of semiconductor devices, a second wafer including a submount substrate having vias that are aligned with contacts electrically connected to the semiconductor devices, wherein the second wafer is bonded to the first wafer via bonding surfaces on the first and second wafers, and wherein the submount substrate of the second wafer is scored with a plurality of slots and wherein the slots are aligned with boundaries between the semiconductor devices,
A biomedical material transfer device comprising: a) a transfer element having a proximal end portion, a distal end portion, and an intermediate portion comprising a flexible, hollow auger, the hollow auger comprising a substantially helical element and a membrane around the substantially helical element, and b) a drive element adapted to rotate the hollow auger axially relative to an outer sleeve in which the hollow auger is disposed, the drive element having a distal end portion, wherein the distal end portion of the drive element is connected to the proximal end portion of the transfer element, and wherein the membrane has an inner surface and the substantially helical element extends inwardly from the inner surface, characterized in that the membrane is wrapped around the substantially helical element forming valleys and summits providing a thread-like topology for transporting material between an outer surface of the membrane and the outer sleeve. a) a transfer element having a proximal end portion, a distal end portion, and an intermediate portion comprising a flexible, hollow auger, the hollow auger comprising a substantially helical element and a membrane around the substantially helical element, and b) a drive element adapted to rotate the hollow auger axially relative to an outer sleeve in which the hollow auger is disposed, the drive element having a distal end portion,
A method for regulating the pressure of the combustion gas and/or exhaust gas of a work machine, in particular of an internal combustion engine, the combustion gas being supplied to the work machine via a supply line and being discharged via an exhaust gas line, the supply line and/or the exhaust gas line having a regulating device (11, 21), the regulating device (11, 21) delimiting a pressure-regulated section (12, 22) of the supply line and/or of the exhaust gas line, characterised in that in each pressure-regulated section (12, 22) the pressure is measured at more than one point (14, 14', 14'') in order to reduce the effects of resonances, fluctuations and pressure waves on the pressure measurement, the pressure in each pressure-regulated section (12, 22) being adjusted on the basis of a weighted arithmetic mean value of the pressures measured at a plurality of points (14, 14', 14'') in the pressure-regulated section (12, 22) by regulation of the regulating device (11, 21).