mhurhangee/ep-ind-claims huggingface dataset:
A power management method in a user terminal, the user terminal comprising a microcomputer (Micom), wherein the user terminal comprises a switch connected to a power supply unit, to selectively supply power from the power supply unit to a charging unit, the charging unit comprising a capacitor, the method comprising: receiving power from the power supply unit to charge the capacitor to system voltage; comparing the system voltage charged across the capacitor with first and second preset voltages when the user terminal is in a system-off status; and during the system-off status, controlling the power input from the power supply unit according to the comparison result by turning on the switch when the system voltage is equal to or less than a first preset voltage; and blocking the power supply from the power supply unit by turning off the switch when the system voltage is equal to or greater than a second preset voltage. receiving power from the power supply unit to charge the capacitor to system voltage; comparing the system voltage charged across the capacitor with first and second preset voltages when the user terminal is in a system-off status; and during the system-off status, controlling the power input from the power supply unit according to the comparison result by turning on the switch when the system voltage is equal to or less than a first preset voltage; and blocking the power supply from the power supply unit by turning off the switch when the system voltage is equal to or greater than a second preset voltage.
A method for providing external access into a secured networked virtualization environment, comprising: performing a leadership election amongst nodes (100a, 100b, 201, 601, 611, 801) of the secured networked virtualization environment that elects a leader node that directs external communication from external entities (207, 607) to appropriate nodes within the secured networked virtualization environment; assigning a cluster virtual IP address to the leader node, wherein the cluster virtual IP address is a different IP address than an IP address of the leader node; and generating, based at least in part on the cluster virtual IP address, a reverse tunnel, using a processor, by the leader node to allow for one of the external entities (207, 607) to communicate with at least one of the appropriate nodes within the secured networked virtualization environment. performing a leadership election amongst nodes (100a, 100b, 201, 601, 611, 801) of the secured networked virtualization environment that elects a leader node that directs external communication from external entities (207, 607) to appropriate nodes within the secured networked virtualization environment; assigning a cluster virtual IP address to the leader node, wherein the cluster virtual IP address is a different IP address than an IP address of the leader node; and generating, based at least in part on the cluster virtual IP address, a reverse tunnel, using a processor, by the leader node to allow for one of the external entities (207, 607) to communicate with at least one of the appropriate nodes within the secured networked virtualization environment.
An implement carrier, such as a ride-on lawnmower, which has a front and a rear wheel pair (4a, 4b), of which at least one is driven by a hydraulic motor, which is included in a closed hydraulic line system, which also comprises a hydraulic pump which is adapted to drive the hydraulic motor and which is driven by an internal combustion engine, said implement carrier further having an actuating means, which is movable between an inactive position, in which it prevents start of the internal combustion engine, and an active position, in which it allows start of the internal combustion engine, a bypass valve, which is arranged in the hydraulic line system, being settable between a bypass position, in which movement of the implement carrier is possible when the internal combustion engine is shut off, and a normal position, in which such movement is practically impossible, characterised in that the actuating means is connected to the bypass valve in such a manner that the actuating means when moving from the inactive position to the active position, if the bypass valve is in its bypass position, moves the bypass valve to its normal position.
A charging handle apparatus for use in a circuit interrupter to mechanically charge an operating mechanism of the circuit interrupter, the charging handle apparatus comprising: a handle assembly; a gear structured to be mechanically connected with a portion of the operating mechanism; a support apparatus disposed on the handle assembly and engaged with the gear, the support apparatus comprising a base portion and an engagement portion, the base portion being disposed on the handle assembly, the engagement portion being disposed on the base portion and engaged with the gear, at least one of the base portion and the engagement portion being movable with respect to the other of the base portion and the engagement portion; wherein the base portion and the engagement portion have complementary bearing surfaces (64, 68) that are each substantially cylindrical and that are engaged with one another; and wherein the bearing surfaces are formed to each have a draft angle from cylindrical that is no more than one degree. a handle assembly; a gear structured to be mechanically connected with a portion of the operating mechanism; a support apparatus disposed on the handle assembly and engaged with the gear, the support apparatus comprising a base portion and an engagement portion, the base portion being disposed on the handle assembly, the engagement portion being disposed on the base portion and engaged with the gear, at least one of the base portion and the engagement portion being movable with respect to the other of the base portion and the engagement portion; wherein the base portion and the engagement portion have complementary bearing surfaces (64, 68) that are each substantially cylindrical and that are engaged with one another; and wherein the bearing surfaces are formed to each have a draft angle from cylindrical that is no more than one degree.
An auto-switching spraying apparatus, comprising: a pipe body including at least one nozzle branch pipe and a backflow pipe for reversing the flow of water flowing through an upper opening into a branch area and supplying the water to the nozzle branch pipe; a pad disposed at the lower portion of the branch area; and a biasing unit, wherein the biasing unit is elastically supported by a spring from a pipe body cap 150, between the pad and the pipe body cap coupled to a lower opening of the pipe body to bias the pad toward the upper opening, wherein the biasing unit has a positioning pin around which the spring is inserted, the positioning pin being inserted into a through-hole of the pipe body cap. a pipe body including at least one nozzle branch pipe and a backflow pipe for reversing the flow of water flowing through an upper opening into a branch area and supplying the water to the nozzle branch pipe; a pad disposed at the lower portion of the branch area; and a biasing unit, wherein the biasing unit is elastically supported by a spring from a pipe body cap 150, between the pad and the pipe body cap coupled to a lower opening of the pipe body to bias the pad toward the upper opening, wherein the biasing unit has a positioning pin around which the spring is inserted, the positioning pin being inserted into a through-hole of the pipe body cap.
Method for producing a foundation element in the ground, in which a hole is formed in the ground that is filled with a hardenable filling mass in order to form the foundation element, wherein prior to the hardening of the filling mass a data carrier is introduced into the hole, characterized in that the data carrier has a ROM storage element, and in that on the data carrier information on the produced foundation element is permanently stored and after hardening of the filling mass the information on the data carrier is unalterable as a kind of electronic certification.
A method for streaming media in an adaptive bit rate system, the method comprising: responsive to a request for an on demand asset, identifying a first period in at least one of a plurality of differently encoded files of the on demand asset in which an adaptive bit rate media segment associated with the request for the on demand asset is located, identifying an ad break that is associated with the first period; generating a manifest file referencing adaptive bit rate media segments that occur within the first period of the at least one of the plurality of differently encoded files of the on demand asset for use by an adaptive bit rate client device for retrieval of the referenced media segments; appending to the manifest file references to ad content associated with the ad break that is associated with the first period; characterised in that: the appending the references to the manifest file is performed following an indication that desired adaptive bit rate media segments during the first period have been retrieved; and in that the method further comprises waiting for a playback duration of the ad break to expire before appending to the manifest file references to adaptive bit rate media segments that occur within a second period of the at least one of the plurality of differently encoded files of the on demand asset. responsive to a request for an on demand asset, identifying a first period in at least one of a plurality of differently encoded files of the on demand asset in which an adaptive bit rate media segment associated with the request for the on demand asset is located, identifying an ad break that is associated with the first period; generating a manifest file referencing adaptive bit rate media segments that occur within the first period of the at least one of the plurality of differently encoded files of the on demand asset for use by an adaptive bit rate client device for retrieval of the referenced media segments; appending to the manifest file references to ad content associated with the ad break that is associated with the first period; characterised in that: the appending the references to the manifest file is performed following an indication that desired adaptive bit rate media segments during the first period have been retrieved; and in that the method further comprises waiting for a playback duration of the ad break to expire before appending to the manifest file references to adaptive bit rate media segments that occur within a second period of the at least one of the plurality of differently encoded files of the on demand asset. the appending the references to the manifest file is performed following an indication that desired adaptive bit rate media segments during the first period have been retrieved; and in that the method further comprises waiting for a playback duration of the ad break to expire before appending to the manifest file references to adaptive bit rate media segments that occur within a second period of the at least one of the plurality of differently encoded files of the on demand asset.
An exposure method applying an electron gun provided with an electron source configured to emit electrons, an extraction electrode located at a given distance away from an electron emission surface of the electron source and configured to extract the electrons, a suppressor electrode located above the extraction electrode and the electron emission surface and configured to suppress emission of the electrons from a side surface of the electron source, and an acceleration electrode located below the extraction electrode and configured to accelerate the electrons, the electron gun being configured to emit thermal field-emitted electrons by applying an electric field to a tip of the electron source while maintaining a sufficiently low temperature to avoid sublimation of a material of the electron source, and then to render a sample exposed to the thermal field-emitted electrons, the method comprising the steps of: in a conditioning operation, applying a voltage for a given time period so as to render electric potential at the extraction electrode lower than electric potential at the tip of the electron source, wherein a voltage 1.6 times higher than a voltage during a usual operation is applied between the electrodes constituting the electron gun and the acceleration electrode to cause discharge; and in usual operation, performing exposure by applying the voltage so as to render the electric potential at the extraction electrode higher than electric potential at the tip of the electron source. in a conditioning operation, applying a voltage for a given time period so as to render electric potential at the extraction electrode lower than electric potential at the tip of the electron source, wherein a voltage 1.6 times higher than a voltage during a usual operation is applied between the electrodes constituting the electron gun and the acceleration electrode to cause discharge; and in usual operation, performing exposure by applying the voltage so as to render the electric potential at the extraction electrode higher than electric potential at the tip of the electron source.
A method of preparing a silk microsphere, the method comprising: inducing formation of beta-sheet structure of fibroin in a silk solution; and inducing formation of silk microspheres from the silk solution by atomization of the silk solution; freezing the silk microspheres; and subjecting the silk microspheres to lyophilization to form porous silk microspheres; wherein the porous silk microspheres have a diameter of 40 μm to 250 μm and a porosity of at least 30%. inducing formation of beta-sheet structure of fibroin in a silk solution; and inducing formation of silk microspheres from the silk solution by atomization of the silk solution; freezing the silk microspheres; and subjecting the silk microspheres to lyophilization to form porous silk microspheres;
A radiation-curable, water-dispersible urethane (meth)acrylate essentially formed from (a) at least one (cyclo)aliphatic di- and/or polyisocyanate, at least one (cyclo)aliphatic diol having a molar mass of less than 700 g/mol, at least one polyester diol having a weight-average molar mass Mw of 700 to 2000 and preferably an acid number to DIN 53240 of not more than 20 mg KOH/g, (c) at least one compound (c) having at least one isocyanate-reactive group and at least one free-radically polymerizable unsaturated group, (d) at least one compound having at least one isocyanate-reactive group and at least one acid group, (e) at least one base of an alkali metal for at least partial neutralization of the acid groups of component (d), (f) optionally at least one monoalcohol having exactly one hydroxyl function, or at least one mono- and di-C 1 -C 4 -alkylamine, (g) at least one monofunctional polyalkylene oxide polyether alcohol. (a) at least one (cyclo)aliphatic di- and/or polyisocyanate, at least one (cyclo)aliphatic diol having a molar mass of less than 700 g/mol, at least one polyester diol having a weight-average molar mass Mw of 700 to 2000 and preferably an acid number to DIN 53240 of not more than 20 mg KOH/g, (c) at least one compound (c) having at least one isocyanate-reactive group and at least one free-radically polymerizable unsaturated group, (d) at least one compound having at least one isocyanate-reactive group and at least one acid group, (e) at least one base of an alkali metal for at least partial neutralization of the acid groups of component (d), (f) optionally at least one monoalcohol having exactly one hydroxyl function, or at least one mono- and di-C 1 -C 4 -alkylamine, (g) at least one monofunctional polyalkylene oxide polyether alcohol.
Acoustic resonator, comprising: - at least one piezoelectric layer (22; 30; 34, 36), - first and second electrodes (24, 26) on either side of the piezoelectric layer, and - at least one electret layer (22, 32) between the first and second electrodes, characterised in that the electret layer is provided to apply a permanent electric field to the piezoelectric layer, the intensity of which is such that this electric field shifts the resonance frequency of the resonator by a desired value, and in that the electret layer is made of a mineral material. - at least one piezoelectric layer (22; 30; 34, 36), - first and second electrodes (24, 26) on either side of the piezoelectric layer, and - at least one electret layer (22, 32) between the first and second electrodes,
An isolated or synthetic peptide of 10 to 15 amino acids in length and having specific binding affinity for CD47, comprising any one of the following amino acid sequences: 37417 (IGYKDFTAYR) (SEQ ID NO: 33); 37297 (IGWKNFTAYR) (SEQ ID NO: 4); 37415 (IGWKEFTAYR) (SEQ ID NO: 31); 37299 (IGWKDFAAYR) (SEQ ID NO: 5); 37555 (IGWKDFTAAR) (SEQ ID NO: 27); or a conservatively substituted amino acid sequence derived therefrom, that inhibits ligand binding to CD47, and wherein the following six groups are amino acids that are conservative substitutions for one another, (a) Alanine, Serine, Threonine; (b) Aspartic acid, Glutamic acid; (c) Asparagine, Glutamine; (d) Arginine, Lysine; (e) Isoleucine, Leucine, Methionine, Valine; and (f) Phenylalanine, Tyrosine, Tryptophan. 37417 (IGYKDFTAYR) (SEQ ID NO: 33); 37297 (IGWKNFTAYR) (SEQ ID NO: 4); 37415 (IGWKEFTAYR) (SEQ ID NO: 31); 37299 (IGWKDFAAYR) (SEQ ID NO: 5); 37555 (IGWKDFTAAR) (SEQ ID NO: 27); or a conservatively substituted amino acid sequence derived therefrom, that inhibits ligand binding to CD47, and wherein the following six groups are amino acids that are conservative substitutions for one another, (a) Alanine, Serine, Threonine; (b) Aspartic acid, Glutamic acid; (c) Asparagine, Glutamine; (d) Arginine, Lysine; (e) Isoleucine, Leucine, Methionine, Valine; and (f) Phenylalanine, Tyrosine, Tryptophan. (a) Alanine, Serine, Threonine; (b) Aspartic acid, Glutamic acid; (c) Asparagine, Glutamine; (d) Arginine, Lysine; (e) Isoleucine, Leucine, Methionine, Valine; and (f) Phenylalanine, Tyrosine, Tryptophan.
Shears in order to produce sheet-metal blanks made of sheet-metal plates or sheet-metal strips, comprising at least two interacting roller cutters having rotational axes parallel to one another, wherein each roller cutter is arranged on the periphery of a drive disk and each drive disk is rotatably mounted in a bearing block (7,9) and is supported by the bearing blocks (7,9), characterized in that the two bearing blocks (7,9) are arranged above one another and laterally offset from one another and are connected to one another by means of a connecting rail, and wherein the drive disks and roller cutters are interspersed in the upper bearing block and the drive units and roller cutters are interspersed in the lower bearing block of drive shafts and are jointly axially displaceable on said drive shafts and are positively connected to the drive shafts in order to transmit the torque.
A circuit breaker, comprising: an electrical relay (103, 304) effective to control an amount of power flow; a control circuit (105, 301), having an OC detection unit (106, 308), a microprocessor and a driver (108, 306); said driver (108, 306) effective to cause said relay (103, 304) to stop said power flow upon receipt by the driver (108, 306) of a deactivation command; said OC detection unit (106, 308) configured to monitor said power flow; said OC detection unit (106, 308) being connected to the driver (108, 306) and being effective to cause said driver to receive a deactivation command if said OC detection unit (106, 308) senses that an overload condition exists; and said microprocessor configured to be capable of receiving input from said OC detection unit (106, 308) and sending output to said driver (108, 306), wherein said circuit breaker is located on an aircraft and said microprocessor is adapted to receive at least one of "reset," "collar," "on" or "off' commands from a control panel in said aircraft; the circuit breaker is characterised in that the OC detection unit (106, 308) is directly connected to the driver (108, 306). an electrical relay (103, 304) effective to control an amount of power flow; a control circuit (105, 301), having an OC detection unit (106, 308), a microprocessor and a driver (108, 306); said driver (108, 306) effective to cause said relay (103, 304) to stop said power flow upon receipt by the driver (108, 306) of a deactivation command; said OC detection unit (106, 308) configured to monitor said power flow; said OC detection unit (106, 308) being connected to the driver (108, 306) and being effective to cause said driver to receive a deactivation command if said OC detection unit (106, 308) senses that an overload condition exists; and said microprocessor configured to be capable of receiving input from said OC detection unit (106, 308) and sending output to said driver (108, 306), wherein said circuit breaker is located on an aircraft and said microprocessor is adapted to receive at least one of "reset," "collar," "on" or "off' commands from a control panel in said aircraft; the circuit breaker is characterised in that the OC detection unit (106, 308) is directly connected to the driver (108, 306).
A method of performing anti-replay analysis, said method comprising: providing a device configured to permit a user to perform a transaction; collecting: (i) device state data with the aid of one or more sensors on-board the device, wherein the device state data is about a physical state of the device that is unique to the device at a moment in time during which the device state data is collected, and (ii) local data including information about an operational state specific to a component of the device; generating a nonce data based on the device state data and the local data; obtaining identification information about the device or the user; comparing, with aid of one or more processors, the nonce data and the identification information with previously collected nonce data and previously collected identification information; and determining, with the aid of the one or more processors, a presence of a replay attack based on whether the nonce data and the previously collected nonce data are identical and whether the device state data is valid. providing a device configured to permit a user to perform a transaction; collecting: (i) device state data with the aid of one or more sensors on-board the device, wherein the device state data is about a physical state of the device that is unique to the device at a moment in time during which the device state data is collected, and (ii) local data including information about an operational state specific to a component of the device; (i) device state data with the aid of one or more sensors on-board the device, wherein the device state data is about a physical state of the device that is unique to the device at a moment in time during which the device state data is collected, and (ii) local data including information about an operational state specific to a component of the device; generating a nonce data based on the device state data and the local data; obtaining identification information about the device or the user; comparing, with aid of one or more processors, the nonce data and the identification information with previously collected nonce data and previously collected identification information; and determining, with the aid of the one or more processors, a presence of a replay attack based on whether the nonce data and the previously collected nonce data are identical and whether the device state data is valid.