mhurhangee/patent-ind-claim-en huggingface dataset:
A method for sealing enclave data, comprising: sending , to a source enclave hosted on a first native enclave platform , a first attestation report of a sealing enclave hosted on a second native enclave platform ; receiving , at the sealing enclave, a permitted list and associated enclave data from the source enclave, wherein the permitted list includes a list of one or more enclave identities permitted to unseal the enclave data, and wherein the received enclave data is encrypted; securely storing, at the sealing enclave, the enclave data and the permitted list; and restricting access of the enclave data to enclaves with authenticated identities as permitted according to the permitted list, wherein the method further comprises: executing an attestation process between the source enclave and the sealing enclave; and decrypting the encrypted enclave data with a key generated during the attestation process. sending , to a source enclave hosted on a first native enclave platform , a first attestation report of a sealing enclave hosted on a second native enclave platform ; receiving , at the sealing enclave, a permitted list and associated enclave data from the source enclave, wherein the permitted list includes a list of one or more enclave identities permitted to unseal the enclave data, and wherein the received enclave data is encrypted; securely storing, at the sealing enclave, the enclave data and the permitted list; and restricting access of the enclave data to enclaves with authenticated identities as permitted according to the permitted list, wherein the method further comprises: executing an attestation process between the source enclave and the sealing enclave; and decrypting the encrypted enclave data with a key generated during the attestation process. executing an attestation process between the source enclave and the sealing enclave; and decrypting the encrypted enclave data with a key generated during the attestation process.
Vacuum cleaner comprising a connecting device to a thermal control system of a vehicle, a flexible hose with a connection end to connecting device for creating suction into flexible hose, characterized in that a dust collecting box is mounted onto the flexible hose .
A compensating coupling for compensating a radial offset between two rotatable elements, said coupling comprising two outer coupling parts , specifically an input-side coupling part and an output-side coupling part , which are to be connected to rotatable elements, and with a centre coupling part , which is movable to a limited extent relative to the outer coupling parts , the centre coupling part being composed of a tube piece in the form of a damping element , and also two tube end pieces , which are fastened to the tube piece and are each provided for centred connection by means of ball head centring with one of the outer coupling parts , characterised in that the centre coupling part is centred relative to each of the outer coupling parts by means of a ball head , and in that either a torque-transmitting connection is established between a ball head and the coupling part coupled thereto by a pin secured in the ball head and also a corresponding groove in said coupling part , or in that a torque-transmitting connection is established between a ball head and the coupling part coupled thereto with the aid of toothings of the ball head and also of said coupling part . a torque-transmitting connection is established between a ball head and the coupling part coupled thereto by a pin secured in the ball head and also a corresponding groove in said coupling part , or in that a torque-transmitting connection is established between a ball head and the coupling part coupled thereto with the aid of toothings of the ball head and also of said coupling part .
Knitted fabric having a stitch-forming warp-thread system into which weft threads of limited length are incorporated, which knitted fabric is formed as a material web of a defined width at whose edges a filler thread delimiting the material web is arranged in each case, wherein the weft threads have a length which is greater than the width of the material web and have a projection in relation to the respective filler thread , characterized in that the projection is deflected by an angle counter to the material-web-production direction at least to the extent as to be tied down as a tucked selvedge in the stitch-forming warp-thread system in at least one stitch of the stitches that follow with regard to the material-web-production direction .
A lens array comprising: a flat plate-shaped base part ; a plurality of lenses formed on one surface of the base part ; a plurality of columnar light guiding parts formed on another surface of the base part at points corresponding to the lenses ; and a plurality of light shielding parts formed at least on lateral surfaces of the light guiding parts , characterized in that the light shielding parts absorb light; and the lens array is made up of a plurality of units each including a predetermined number of lenses . a flat plate-shaped base part ; a plurality of lenses formed on one surface of the base part ; a plurality of columnar light guiding parts formed on another surface of the base part at points corresponding to the lenses ; and a plurality of light shielding parts formed at least on lateral surfaces of the light guiding parts , characterized in that the light shielding parts absorb light; and the lens array is made up of a plurality of units each including a predetermined number of lenses .
A glass ceramic having a light transmittance of at least 0.1 % and at most 80 % at a thickness of 4 mm, wherein light of standard illuminant D65, after passing through the glass ceramic at a thickness of 4 mm, has a colour locus in the white light range W1, which in the chromaticity diagram CIExyY-2° is determined by the following coordinates: White light range W1 X y 0.27 0.21 0.22 0.25 0.32 0.37 0.45 0.45 0.47 0.34 0.36 0.29, wherein the glass ceramic is a lithium aluminium silicate glass ceramic; wherein the glass ceramic is transparent; wherein the glass ceramic is bulk-coloured; and wherein the glass ceramic comprises between at least 0.003 wt% and at most 0.4 wt% of MoOs, and more than 0.2 wt% of Nd 2 O 3 and preferably less than 0.8 wt% of Nd 2 O 3 , preferably with a Nd 2 O 3 /MoO 3 molar ratio of less than 15, preferably less than 10. wherein the glass ceramic is a lithium aluminium silicate glass ceramic; wherein the glass ceramic is transparent; wherein the glass ceramic is bulk-coloured; and wherein the glass ceramic comprises between at least 0.003 wt% and at most 0.4 wt% of MoOs, and more than 0.2 wt% of Nd 2 O 3 and preferably less than 0.8 wt% of Nd 2 O 3 , preferably with a Nd 2 O 3 /MoO 3 molar ratio of less than 15, preferably less than 10.
A method of controlling an operation of a channel including at least one transducer, the method comprising: comparing a voltage corresponding to current flowing into the channel to a threshold voltage ; controlling the operation of the channel based on a result of the comparing ; and outputting information about whether the current flowing into the channel is an abnormal current performed by a circuit comprising a flip-flop coupled to the channel and a flip-flop of a previous channel, wherein the channel is included in an ultrasound probe, wherein the outputting of information comprises: receiving, by the flip-flop coupled to the channel, a signal from the flip-flop of the previous channel: outputting, by the flip-flop coupled to the channel, information about whether the current flowing into the channel is an abnormal current based on the received signal and the result of the comparing. comparing a voltage corresponding to current flowing into the channel to a threshold voltage ; controlling the operation of the channel based on a result of the comparing ; and outputting information about whether the current flowing into the channel is an abnormal current performed by a circuit comprising a flip-flop coupled to the channel and a flip-flop of a previous channel, wherein the channel is included in an ultrasound probe, wherein the outputting of information comprises: receiving, by the flip-flop coupled to the channel, a signal from the flip-flop of the previous channel: outputting, by the flip-flop coupled to the channel, information about whether the current flowing into the channel is an abnormal current based on the received signal and the result of the comparing.
A method of controlling a gas turbine engine , the method including the steps of: detecting a shaft break event in a shaft connecting a compressor of the gas turbine engine to a turbine of the gas turbine engine; and in response to this detection, an electronic engine controller is activating a shaft break mitigation system which introduces a fluid into a gas flow of the gas turbine engine downstream of the turbine, or increases an amount of a fluid being provided into the gas flow of the gas turbine engine downstream of the turbine, whereby the fluid reduces an effective area of an exhaust nozzle for the gas flow so as to reduce the mass flow rate of the gas flow through the turbine. detecting a shaft break event in a shaft connecting a compressor of the gas turbine engine to a turbine of the gas turbine engine; and in response to this detection, an electronic engine controller is activating a shaft break mitigation system which introduces a fluid into a gas flow of the gas turbine engine downstream of the turbine, or increases an amount of a fluid being provided into the gas flow of the gas turbine engine downstream of the turbine, whereby the fluid reduces an effective area of an exhaust nozzle for the gas flow so as to reduce the mass flow rate of the gas flow through the turbine.
A method of manufacturing a device, comprising: mounting a surface mount component to a substrate using a set of discrete mechanical coupling parts (20;30;32;34), the surface mount component and the mechanical coupling parts (20;30;32;34) being connected by a clamp or clicking system such that the surface mount component is a snap fit to the mechanical coupling parts, and the method further comprises forming the mechanical coupling parts (20;30;32;34) as integral components with the substrate or directly over the substrate and providing a statically determinate coupling between the substrate and the surface mount component; and after mounting the surface mount component to the substrate providing a bonding layer providing electrical and/or thermal interconnection between the surface mount component and the substrate; the method being characterized in that the mechanical coupling parts (20; 30; 32; 34) are formed by 3D printing on the substrate or by 3D machining of the substrate . mounting a surface mount component to a substrate using a set of discrete mechanical coupling parts (20;30;32;34), the surface mount component and the mechanical coupling parts (20;30;32;34) being connected by a clamp or clicking system such that the surface mount component is a snap fit to the mechanical coupling parts, and forming the mechanical coupling parts (20;30;32;34) as integral components with the substrate or directly over the substrate and providing a statically determinate coupling between the substrate and the surface mount component; and after mounting the surface mount component to the substrate providing a bonding layer providing electrical and/or thermal interconnection between the surface mount component and the substrate; the method being characterized in that the mechanical coupling parts (20; 30; 32; 34) are formed by 3D printing on the substrate or by 3D machining of the substrate .
A system (720; 820; 920), comprising: a depletion block neural stimulator (721; 821; 921) configured to deliver a depletion block stimulation to a nerve, the depletion block stimulation including a series of pulses at a pulse frequency within a range between about 100 Hz to about 1000 Hz; and a depletion block controller (722; 822; 922) configured to communicate with the depletion block neural stimulator (721; 821; 921) and control the depletion block stimulation, the depletion block controller (722; 822; 922) configured to receive a start depletion block signal and respond to the received start depletion block signal by initiating the delivery of the depletion block stimulation to the nerve, and the depletion block controller (722; 822; 922) configured to receive a stop depletion block signal and respond to the received stop depletion block signal by terminating the delivery of the depletion block stimulation to the nerve, wherein the depletion block controller (722; 822; 922) is configured to change the pulse frequency of the depletion block stimulation, and characterised in that the depletion block controller is further configured to initiate the depletion block stimulation with a first pulse frequency and maintain the depletion block stimulation with a second pulse frequency less than the first pulse frequency. a depletion block neural stimulator (721; 821; 921) configured to deliver a depletion block stimulation to a nerve, the depletion block stimulation including a series of pulses at a pulse frequency within a range between about 100 Hz to about 1000 Hz; and a depletion block controller (722; 822; 922) configured to communicate with the depletion block neural stimulator (721; 821; 921) and control the depletion block stimulation, the depletion block controller (722; 822; 922) configured to receive a start depletion block signal and respond to the received start depletion block signal by initiating the delivery of the depletion block stimulation to the nerve, and the depletion block controller (722; 822; 922) configured to receive a stop depletion block signal and respond to the received stop depletion block signal by terminating the delivery of the depletion block stimulation to the nerve, wherein the depletion block controller (722; 822; 922) is configured to change the pulse frequency of the depletion block stimulation, and characterised in that the depletion block controller is further configured to initiate the depletion block stimulation with a first pulse frequency and maintain the depletion block stimulation with a second pulse frequency less than the first pulse frequency.
A composite tube assembly comprising: a tube formed of a wound fiber-reinforced composite material; a metallic end fitting including a stem and a transmission coupling at a distal end of the stem ; the stem including a grip region having a plurality of external surfaces ; a plurality of compression inserts respectively associated with each of the plurality of external surfaces ; wherein an end portion of the tube is wound around the grip region of the stem and the compression inserts ; characterised in that the plurality of external surfaces are flat surfaces; and wherein each of the plurality of compression inserts has a circular segment shape including a planar base facing a respective one of the plurality of flat external surfaces and a rounded surface opposite the planar base , and the end portion of the tube wound around the compression inserts has a round outer cross-sectional shape; wherein the compression inserts are located between a radially inner winding of the fiber-reinforced composite material and a radially outer winding of the fiber-reinforced composite material. a tube formed of a wound fiber-reinforced composite material; a metallic end fitting including a stem and a transmission coupling at a distal end of the stem ; the stem including a grip region having a plurality of external surfaces ; a plurality of compression inserts respectively associated with each of the plurality of external surfaces ; wherein an end portion of the tube is wound around the grip region of the stem and the compression inserts ; characterised in that the plurality of external surfaces are flat surfaces; and wherein each of the plurality of compression inserts has a circular segment shape including a planar base facing a respective one of the plurality of flat external surfaces and a rounded surface opposite the planar base , and the end portion of the tube wound around the compression inserts has a round outer cross-sectional shape; wherein the compression inserts are located between a radially inner winding of the fiber-reinforced composite material and a radially outer winding of the fiber-reinforced composite material.
A cartridge configured to house a pre-vapor formulation for an e-vaping device , the cartridge comprising: a reservoir configured to store the pre-vapor formulation; characterized in that the reservoir contains a plurality of polymer fibers in suspension in the pre-vapor formulation and wherein the plurality of fibers is configured to be at least one of mobile and substantially free of entanglement with one another.
A composition comprising: a) a polymer which comprises poly(lactic acid), and b) an additive which comprises dipentaerythritol, wherein: - the weight percentage of poly(lactic acid) in the polymer is from 60 to 100%, - the weight percentage of the polymer is from 80 to 99.5%, and - the weight percentage of the additive is from 0.5 to 20%, wherein the % are expressed with respect to the total composition weight, provided that the sum of the amounts of the components is equal to 100%. a) a polymer which comprises poly(lactic acid), and b) an additive which comprises dipentaerythritol, - the weight percentage of poly(lactic acid) in the polymer is from 60 to 100%, - the weight percentage of the polymer is from 80 to 99.5%, and - the weight percentage of the additive is from 0.5 to 20%,
A method comprising: hydrocracking a polynucleararomatic hydrocarbon (PNA) feed in the presence of hydrogen and a base metal catalyst at 380°C to 430°C, 2500 psig (17.34 MPa) or greater, and 0.1 hr -1 to 5 hr -1 liquid hourly space velocity (LSHV), wherein the weight ratio of PNA feed to hydrogen is 30:1 to 10:1, wherein the PNA feed comprises 25 wt% or less of hydrocarbons having a boiling point of 700°F (371°C) or less and 2 wt% or greater sulfur and having an aromatic content of 50 wt% or greater to form a first product; separating the first product into an overheads stream and a 950+°F (510°C) bottoms stream, wherein the overheads stream comprises 50 wt% or greater of the hydrocarbons having a boiling point of 700°F (371°C) or less and having an aromatic content of 20 wt% or less; distilling the overheads stream into a 700+°F (371+°C) boiling point stream having less than 15 ppm sulfur and one or more fractions selected from the group consisting of: a C 4- paraffin stream comprising less than 15 ppm sulfur, a naphtha fraction having less than 15 ppm sulfur, and a distillate fraction having less than 15 ppm sulfur; hydrocracking the 700+°F (371+°C) boiling point stream in the presence of hydrogen and a noble metal catalyst to form a second product; and recycling the second product to mix the second product and the overheads before distillation. hydrocracking a polynucleararomatic hydrocarbon (PNA) feed in the presence of hydrogen and a base metal catalyst at 380°C to 430°C, 2500 psig (17.34 MPa) or greater, and 0.1 hr -1 to 5 hr -1 liquid hourly space velocity (LSHV), wherein the weight ratio of PNA feed to hydrogen is 30:1 to 10:1, wherein the PNA feed comprises 25 wt% or less of hydrocarbons having a boiling point of 700°F (371°C) or less and 2 wt% or greater sulfur and having an aromatic content of 50 wt% or greater to form a first product; separating the first product into an overheads stream and a 950+°F (510°C) bottoms stream, wherein the overheads stream comprises 50 wt% or greater of the hydrocarbons having a boiling point of 700°F (371°C) or less and having an aromatic content of 20 wt% or less; distilling the overheads stream into a 700+°F (371+°C) boiling point stream having less than 15 ppm sulfur and one or more fractions selected from the group consisting of: a C 4- paraffin stream comprising less than 15 ppm sulfur, a naphtha fraction having less than 15 ppm sulfur, and a distillate fraction having less than 15 ppm sulfur; hydrocracking the 700+°F (371+°C) boiling point stream in the presence of hydrogen and a noble metal catalyst to form a second product; and recycling the second product to mix the second product and the overheads before distillation.
A rheology system comprising: a rheometer comprising a lower plate and an upper plate ; a manipulator comprising an arm ; a loading end effector ; a cleaning end effector ; and a controller communicatively coupled to the rheometer and the manipulator , the controller comprising a processor and a computer readable and executable instruction set, which when executed, causes the processor to: direct the manipulator to couple the loading end effector to the arm ; direct the manipulator to engage a specimen with the loading end effector ; direct the manipulator to position the specimen on the lower plate of the rheometer ; direct the upper plate to engage the specimen between the upper plate and the lower plate ; direct the manipulator to uncouple the loading end effector from the arm ; direct the manipulator to couple the cleaning end effector to the arm ; and direct the manipulator to engage the lower plate with the cleaning end effector . a rheometer comprising a lower plate and an upper plate ; a manipulator comprising an arm ; a loading end effector ; a cleaning end effector ; and a controller communicatively coupled to the rheometer and the manipulator , the controller comprising a processor and a computer readable and executable instruction set, which when executed, causes the processor to: direct the manipulator to couple the loading end effector to the arm ; direct the manipulator to engage a specimen with the loading end effector ; direct the manipulator to position the specimen on the lower plate of the rheometer ; direct the upper plate to engage the specimen between the upper plate and the lower plate ; direct the manipulator to uncouple the loading end effector from the arm ; direct the manipulator to couple the cleaning end effector to the arm ; and direct the manipulator to engage the lower plate with the cleaning end effector . direct the manipulator to couple the loading end effector to the arm ; direct the manipulator to engage a specimen with the loading end effector ; direct the manipulator to position the specimen on the lower plate of the rheometer ; direct the upper plate to engage the specimen between the upper plate and the lower plate ; direct the manipulator to uncouple the loading end effector from the arm ; direct the manipulator to couple the cleaning end effector to the arm ; and direct the manipulator to engage the lower plate with the cleaning end effector .