mhurhangee/patent-ind-claim-en huggingface dataset:
A method for mitigating security breach for a circuit platform subject to compromise by unauthorized changes to a file system, the file system having data for an operating system and being stored for use by the circuit platform, the method comprising: abstracting the file system into an encrypted file with cryptographically signed components; during a boot time of the operating system, accessing and using an unencrypted version of the operating system and the encrypted file by validating a signature associated with the file system and related to the cryptographically signed components; and in response to validating the signature of the file system, installing the file system into a transient, non-persistent storage circuit, wherein the operating system executes instruction code via a central processing unit (CPU) circuit under authorization based on the signature being validated to decrypt and load a running-state file of the file system; detecting a file change to the running-state file of the file system; updating the encrypted file to produce an updated encrypted file incorporating the file change to the running-state file of the file system to preserve the state of the file system across a reboot; during a second boot time of the operating system, reinstalling and starting the file system in the transient, non-persistent storage circuit; responsive to starting the file system in the transient, non-persistent storage circuit, decrypting the updated encrypted file, including the running-state file incorporating the file change; and loading the running-state file into the transient, non-persistent storage circuit. abstracting the file system into an encrypted file with cryptographically signed components; during a boot time of the operating system, accessing and using an unencrypted version of the operating system and the encrypted file by validating a signature associated with the file system and related to the cryptographically signed components; and in response to validating the signature of the file system, installing the file system into a transient, non-persistent storage circuit, wherein the operating system executes instruction code via a central processing unit (CPU) circuit under authorization based on the signature being validated to decrypt and load a running-state file of the file system; detecting a file change to the running-state file of the file system; updating the encrypted file to produce an updated encrypted file incorporating the file change to the running-state file of the file system to preserve the state of the file system across a reboot; during a second boot time of the operating system, reinstalling and starting the file system in the transient, non-persistent storage circuit; responsive to starting the file system in the transient, non-persistent storage circuit, decrypting the updated encrypted file, including the running-state file incorporating the file change; and loading the running-state file into the transient, non-persistent storage circuit.
A washing machine , comprising: a controller and a detergent dispenser , wherein the detergent dispenser comprises: a first branch pipe , a first cam , an impeller and a first liquid box , wherein the controller is configured for controlling the first branch pipe to be opened to admit water when it is detected that a working state of the washing machine satisfies a first condition, and controlling the first branch pipe to be closed when it is detected that a working state of the detergent dispenser satisfies a second condition; the impeller is coaxially connected to the first cam , and is adapted for driving the first cam to rotate in the first direction under the impact of water flow in the first branch pipe ; characterized in that the washing machine also comprises a mixing chamber ; in that the detergent dispenser also comprises a first piston chamber and a first piston ; in that a plurality of first pawls are disposed on the first cam , and enable the first cam to rotate in a first direction; in that the first piston chamber is connected to the first liquid box and the mixing chamber separately; and in that the first piston is located in the first piston chamber, and is connected to the first cam , and when the first cam rotates in the first direction, the first piston reciprocates in the first piston chamber, to draw a first liquid in the first liquid box into the first piston chamber, and squeeze the first liquid drawn into the first piston chamber into the mixing chamber . the controller is configured for controlling the first branch pipe to be opened to admit water when it is detected that a working state of the washing machine satisfies a first condition, and controlling the first branch pipe to be closed when it is detected that a working state of the detergent dispenser satisfies a second condition; the impeller is coaxially connected to the first cam , and is adapted for driving the first cam to rotate in the first direction under the impact of water flow in the first branch pipe ; characterized in that the washing machine also comprises a mixing chamber ; in that the detergent dispenser also comprises a first piston chamber and a first piston ; in that a plurality of first pawls are disposed on the first cam , and enable the first cam to rotate in a first direction; in that the first piston chamber is connected to the first liquid box and the mixing chamber separately; and in that the first piston is located in the first piston chamber, and is connected to the first cam , and when the first cam rotates in the first direction, the first piston reciprocates in the first piston chamber, to draw a first liquid in the first liquid box into the first piston chamber, and squeeze the first liquid drawn into the first piston chamber into the mixing chamber .
A skeletal muscle troponin activator for use in a method of reducing decline in slow vital capacity in a subject, the method comprising administering to the subject a therapeutically effective amount of the skeletal muscle troponin activator, wherein the skeletal muscle troponin activator is 1-(2-(((3-fluoro-1-(3-fluoropyridin-2-yl)cyclobutyl)methyl)amino)pyrimidin-5-yl)-1H-pyrrole-3-carboxamide, or a pharmaceutically acceptable salt thereof.
Method for operating a heating device having a heat generator (B), having a space heating mode (CHM), a domestic hot water mode (DWM) and a heat exchanger heating mode (HXM), • wherein during operation in the space heating mode (CHM), heating fluid is heated by the heat generator (B) and is conveyed to space heating radiators that are connected or connectable to the heating device , and/or • wherein during operation in the domestic hot water mode (DWM), heating fluid is heated and is conveyed to a domestic water heat exchanger , in particular integrated in the heating device , wherein domestic water flowing through the domestic water heat exchanger is heated, • wherein during operation in the heat exchanger heating mode (HXM), heating fluid is heated and is conveyed to the domestic water heat exchanger , wherein domestic water present in the domestic water heat exchanger is heated, in particular to a standby temperature, • wherein operation in the heat exchanger heating mode (HXM) takes place at a time not during operation in the domestic hot water mode (DWM), and ensuing from operation in the space heating mode (CHM), characterized in that operation in the heat exchanger heating mode (HXM) takes place as a function of a feed temperature of the heating fluid measured in/at the heat generator (B), and/or a progression of the feed temperature, beginning when a first temperature limit value is undershot and/or ending when a second temperature limit value is exceeded. • wherein during operation in the space heating mode (CHM), heating fluid is heated by the heat generator (B) and is conveyed to space heating radiators that are connected or connectable to the heating device , and/or • wherein during operation in the domestic hot water mode (DWM), heating fluid is heated and is conveyed to a domestic water heat exchanger , in particular integrated in the heating device , wherein domestic water flowing through the domestic water heat exchanger is heated, • wherein during operation in the heat exchanger heating mode (HXM), heating fluid is heated and is conveyed to the domestic water heat exchanger , wherein domestic water present in the domestic water heat exchanger is heated, in particular to a standby temperature, • wherein operation in the heat exchanger heating mode (HXM) takes place at a time not during operation in the domestic hot water mode (DWM), and ensuing from operation in the space heating mode (CHM),
A method by a first station, STA , in a wireless local area network, WLAN, system, comprising: transmitting a physical protocol data unit, PPDU, comprising an enhanced directional multi gigabit, EDMG, header A field and a training, TRN, field through a plurality of channels to a second STA , wherein the TRN field is differently configured based on first information included in the EDMG header A field; and performing beamforming training procedure on the plurality of channels with the second STA , based on the PPDU, wherein the EDMG header A field is duplicated for the plurality of channels, and wherein the TRN field is transmitted through a bonded channel being 4.32GHz channel when the first information is set to 0, and wherein the TRN field is transmitted through an aggregated channel being 2.16GHz+2.16GHz channel when the first information is set to 1. transmitting a physical protocol data unit, PPDU, comprising an enhanced directional multi gigabit, EDMG, header A field and a training, TRN, field through a plurality of channels to a second STA , wherein the TRN field is differently configured based on first information included in the EDMG header A field; and performing beamforming training procedure on the plurality of channels with the second STA , based on the PPDU, wherein the EDMG header A field is duplicated for the plurality of channels, and wherein the TRN field is transmitted through a bonded channel being 4.32GHz channel when the first information is set to 0, and wherein the TRN field is transmitted through an aggregated channel being 2.16GHz+2.16GHz channel when the first information is set to 1.
A method (400; 1300) of wireless communication at a serving cell (105-c) comprising: receiving a measurement report from a user equipment, UE (115-b); identifying a time stamp of the measurement report; determining (420; 1305) one or more parameters associated with a discovery reference signal, DRS, transmission window of a neighbor cell (105-d) based at least in part on the time stamp of the measurement report; and transmitting (425; 1310) a message that includes a DRS measurement timing configuration, DMTC, to the UE (115-b), wherein the DMTC is based at least in part on the one or more parameters associated with the DRS transmission window of the neighbor cell (105-d) thereby configuring the UE (105-b) to measure DRS from the serving cell (105-c) and the neighbor cell (105-d) within the DMTC window. receiving a measurement report from a user equipment, UE (115-b); identifying a time stamp of the measurement report; determining (420; 1305) one or more parameters associated with a discovery reference signal, DRS, transmission window of a neighbor cell (105-d) based at least in part on the time stamp of the measurement report; and transmitting (425; 1310) a message that includes a DRS measurement timing configuration, DMTC, to the UE (115-b), wherein the DMTC is based at least in part on the one or more parameters associated with the DRS transmission window of the neighbor cell (105-d) thereby configuring the UE (105-b) to measure DRS from the serving cell (105-c) and the neighbor cell (105-d) within the DMTC window.
A waveguide structure , wherein the waveguide structure is applicable to a straight waveguide part of an arrayed waveguide in a silicon-on-insulator-based arrayed waveguide grating; the waveguide structure comprises two first ends being disposed symmetrically to an axis of symmetry, and the first end is sequentially divided into a first region (A), a second region (B), and a third region (C) in a direction toward the axis of symmetry; and the waveguide structure comprises a first silicon substrate layer , a second silicon substrate layer , a first silicon dioxide layer , a second silicon dioxide layer , and a first silicon waveguide layer ; in the first region (A), the first silicon substrate layer , the second silicon substrate layer , the first silicon dioxide layer , the second silicon dioxide layer , and the first silicon waveguide layer are sequentially disposed; a width of the first silicon waveguide layer is a constant value; and an optical signal is transmitted at the first silicon waveguide layer ; in the second region (B), the second silicon substrate layer is etched as a first air layer ; the first silicon substrate layer , the first air layer , the first silicon dioxide layer , the second silicon dioxide layer , and the first silicon waveguide layer are sequentially disposed; a width of the first silicon waveguide layer gradually decreases in the direction toward the axis of symmetry; and the optical signal is gradually transmitted from the first silicon waveguide layer to a first ridge silicon dioxide waveguide layer that comprises the first silicon dioxide layer and the second silicon dioxide layer ; and in the third region (C), the second silicon substrate layer is etched as the first air layer ; the first silicon substrate layer , the first air layer , the first silicon dioxide layer , and the second silicon dioxide layer are sequentially disposed; a width of the first silicon waveguide layer is 0; and the optical signal is transmitted at the first ridge silicon dioxide waveguide layer that comprises the first silicon dioxide layer and the second silicon dioxide layer .
An engine brake for an internal combustion vehicle, which comprises an actuating lever , wherein the engine brake also comprises a control valve with a control slide valve , and a device for connecting the actuating lever to the control slide valve of the control valve , in which the actuating lever is configured as a pivot lever and is connected to the control slide valve by means of a springloaded coupling element (11 ; 16), characterized in that the coupling element (11; 16) comprises two legs (12, 13; 17, 18) oriented parallel to each other as well as a segment (15; 19) connecting the two legs (12, 13; 17, 18), and that the first leg (12; 17) of the coupling element (11; 16) is pivoted on the free end of the control slide valve and the second leg (13; 18) can be locked with the free end of the actuating lever , wherein the coupling element (11; 16) consists of a spring steel.
A transport device comprising: a carrier capable of advancing and retreating in a transport direction and capable of being lifted and lowered; a main pad coupled to the carrier and configured to suck a workpiece (W); a swinging member axially supported by the carrier so as to be able to swing around a swinging shaft ; a contact element configured to be lifted and lowered along with the carrier and come into contact with the workpiece (W); a first auxiliary pad supported by the swinging member at a position distal to the carrier as compared with the swinging shaft and configured to suck the workpiece (W), the first auxiliary pad being able to contract toward the workpiece (W); and a second auxiliary pad supported by the swinging member at a position proximal to the carrier as compared with the swinging shaft and configured to suck the workpiece (W), characterized in that the second auxiliary pad is able to contract toward the workpiece (W) by a stroke amount larger than a stroke amount of the first auxiliary pad . a carrier capable of advancing and retreating in a transport direction and capable of being lifted and lowered; a main pad coupled to the carrier and configured to suck a workpiece (W); a swinging member axially supported by the carrier so as to be able to swing around a swinging shaft ; a contact element configured to be lifted and lowered along with the carrier and come into contact with the workpiece (W); a first auxiliary pad supported by the swinging member at a position distal to the carrier as compared with the swinging shaft and configured to suck the workpiece (W), the first auxiliary pad being able to contract toward the workpiece (W); and a second auxiliary pad supported by the swinging member at a position proximal to the carrier as compared with the swinging shaft and configured to suck the workpiece (W), characterized in that the second auxiliary pad is able to contract toward the workpiece (W) by a stroke amount larger than a stroke amount of the first auxiliary pad .
A post-accident fission product removal system , comprising: an air mover connected to a filter assembly , the air mover configured to move contaminated air containing radioisotopes through the filter assembly to produce filtered air ; and an ionization chamber connected to the filter assembly , the ionization chamber including an anode and a cathode , the ionization chamber configured to receive the filtered air from the filter assembly and to ionize and electrostatically capture the radioisotopes from the filtered air with the anode and the cathode to produce clean air . an air mover connected to a filter assembly , the air mover configured to move contaminated air containing radioisotopes through the filter assembly to produce filtered air ; and an ionization chamber connected to the filter assembly , the ionization chamber including an anode and a cathode , the ionization chamber configured to receive the filtered air from the filter assembly and to ionize and electrostatically capture the radioisotopes from the filtered air with the anode and the cathode to produce clean air .
A measurement system for performing measurement by Brillouin scattering analysis, the system comprising a laser emitter device configured to emit an incident wave (v0) and a reference wave (v0-vB), the incident wave presenting an incident frequency (v0) and the reference wave presenting a reference frequency (v0-vB), the reference frequency (v0-vB) being shifted from the incident frequency (v0) by a predetermined value (vB), the system being configured, when it is connected to at least a first end of an optical fiber : - to project the incident wave (v0) into said first end of the fiber ; - to receive in return a backscattered wave (ν0-νS) at the first end of the fiber; - to generate a composite wave (ν0-S, 0-B) combining at least the backscattered wave (ν0-νS) and the reference wave (ν0-νB); - to determine at least one property relating to the fiber by analyzing a Brillouin spectrum of the composite wave (ν0-S, 0-B); the system being characterized in that the incident wave and the reference wave come from a dual-frequency vertical-cavity surface-emitting laser source forming part of the laser emitter device . - to project the incident wave (v0) into said first end of the fiber ; - to receive in return a backscattered wave (ν0-νS) at the first end of the fiber; - to generate a composite wave (ν0-S, 0-B) combining at least the backscattered wave (ν0-νS) and the reference wave (ν0-νB); - to determine at least one property relating to the fiber by analyzing a Brillouin spectrum of the composite wave (ν0-S, 0-B);
Sealing system for use with a dummy bar head of a continuous casting plant, comprising a plate-shaped head element , at the edge region of which an encircling seal is mounted, an adapter element of metal, which is securable by its lower side to an upper end face of the dummy bar head , wherein the head element is securable to an upper side of the adapter element and thereby connectible with the dummy bar head , and second, mechanically positive securing means by which the head element and the adapter element are connectible together, characterised in that the second securing means have a plurality of passage openings formed in the plate-shaped head element , wherein the second securing means also comprise a plurality of pins which are mounted on the upper side of the adapter element and can be plugged through the passage openings formed in the head element , and formed at a free end of a pin or adjacent thereto is a respective slot through which a wedge can be driven, the wedge being seated on an upper side of the head element when it is plugged by its passage openings onto the pins . a plate-shaped head element , at the edge region of which an encircling seal is mounted, an adapter element of metal, which is securable by its lower side to an upper end face of the dummy bar head , wherein the head element is securable to an upper side of the adapter element and thereby connectible with the dummy bar head , and second, mechanically positive securing means by which the head element and the adapter element are connectible together, characterised in that the second securing means have a plurality of passage openings formed in the plate-shaped head element , wherein the second securing means also comprise a plurality of pins which are mounted on the upper side of the adapter element and can be plugged through the passage openings formed in the head element , and formed at a free end of a pin or adjacent thereto is a respective slot through which a wedge can be driven, the wedge being seated on an upper side of the head element when it is plugged by its passage openings onto the pins .
A soaking machine for soaking a sample, comprising: a supply section configured to supply the sample into an applicator in which a sample holder that holds a porous complex crystal is inserted, a temperature adjustment section configured to control a temperature of the applicator , a discharge section configured to discharge the sample from the inside of the applicator in which the sample holder is inserted, and a control section configured to control the supply section, the temperature adjustment section and the discharge section. a supply section configured to supply the sample into an applicator in which a sample holder that holds a porous complex crystal is inserted, a temperature adjustment section configured to control a temperature of the applicator , a discharge section configured to discharge the sample from the inside of the applicator in which the sample holder is inserted, and a control section configured to control the supply section, the temperature adjustment section and the discharge section.
Air guiding element for motor vehicles, comprising at least one elongated hollow body , the inner wall (W) of which defines an air guidance duct , wherein sound-absorbing auxiliary bodies are provided in the hollow body along its longitudinal direction of extension (L), which bodies are arranged and fastened in the hollow body in such a way that air flowing in the hollow body along the air guidance duct additionally flows along the auxiliary bodies , interacting therewith, wherein the auxiliary bodies have different thicknesses (d1, d2) and the auxiliary bodies absorb a different frequency Y of the air-transmitted sound depending on the thickness (d1, d2), characterized in that the thicknesses (d1, d2) of the auxiliary bodies are defined depending on the frequencies Y to be absorbed by the air guidance element as follows: thickness d = speed of sound in air X ⋅ frequency Y wherein the speed of sound in 20°C dry air is 343.2 m/s and wherein X is a value of between 7 to 9 and the frequencies to be absorbed are between 800 Hertz and 2500 Hertz. the thicknesses (d1, d2) of the auxiliary bodies are defined depending on the frequencies Y to be absorbed by the air guidance element as follows: thickness d = speed of sound in air X ⋅ frequency Y wherein the speed of sound in 20°C dry air is 343.2 m/s and wherein X is a value of between 7 to 9 and the frequencies to be absorbed are between 800 Hertz and 2500 Hertz.