mhurhangee/ep-ind-claims huggingface dataset:
A turbofan engine comprising: a core nacelle housing a spool supporting a turbine; a fan nacelle surrounding a turbofan, the fan and core nacelles (12, 34) together providing a bypass flow path and a nozzle which includes a nozzle exit area, wherein the fan nacelle includes an exterior surface; the turbofan coupled to the spool and arranged upstream from the core nacelle, the turbofan adapted to produce a bypass flow through the bypass flow path that is exhausted through the nozzle; a passage selectively in fluid communication with the bypass flow path for exhausting a portion of the bypass flow through the passage instead of the nozzle to change an effective nozzle exit area; a bifurcation (50; 50') arranged in the bypass flow path and supporting the core nacelle relative to the fan nacelle, characterised by the bifurcation (50; 50') including an inlet disposed along the leading edge of the bifurcation, for selectively providing the portion of bypass flow to the passage; and a pylon supporting the turbofan engine on an aircraft; and a vent opening (58; 58') provided on at least one of the fan nacelle exterior surface and the pylon, the portion of the bypass flow exiting the vent opening (58; 58'). a core nacelle housing a spool supporting a turbine; a fan nacelle surrounding a turbofan, the fan and core nacelles (12, 34) together providing a bypass flow path and a nozzle which includes a nozzle exit area, wherein the fan nacelle includes an exterior surface; the turbofan coupled to the spool and arranged upstream from the core nacelle, the turbofan adapted to produce a bypass flow through the bypass flow path that is exhausted through the nozzle; a passage selectively in fluid communication with the bypass flow path for exhausting a portion of the bypass flow through the passage instead of the nozzle to change an effective nozzle exit area; a bifurcation (50; 50') arranged in the bypass flow path and supporting the core nacelle relative to the fan nacelle, characterised by the bifurcation (50; 50') including an inlet disposed along the leading edge of the bifurcation, for selectively providing the portion of bypass flow to the passage; and a pylon supporting the turbofan engine on an aircraft; and a vent opening (58; 58') provided on at least one of the fan nacelle exterior surface and the pylon, the portion of the bypass flow exiting the vent opening (58; 58').
A method for managing software components loaded on a device including a device memory for storing a security policy, the device configured to carry out the following steps: loading the security policy from an Extensible Firmware Interface, EFI, system partition into the device memory; identifying a platform manifest having a valid certificate, wherein the platform manifest comprises a list of components that are allowed for an operating system edition; loading the platform manifest from the EFI system partition into the device memory; verifying that a manifest identifier in the platform manifest matches an authorized platform manifest identifier in the security policy; identifying components listed on the platform manifest; confirming that the platform manifest and the listed components have a valid certificate; and loading listed components with valid certificates from an operating system partition on the device. loading the security policy from an Extensible Firmware Interface, EFI, system partition into the device memory; identifying a platform manifest having a valid certificate, wherein the platform manifest comprises a list of components that are allowed for an operating system edition; loading the platform manifest from the EFI system partition into the device memory; verifying that a manifest identifier in the platform manifest matches an authorized platform manifest identifier in the security policy; identifying components listed on the platform manifest; confirming that the platform manifest and the listed components have a valid certificate; and loading listed components with valid certificates from an operating system partition on the device.
A liquid composition comprising a mixture which comprises or, alternatively, consists of the following components/substances: (a) an Aloe vera gel; (b) a hyaluronic acid, or a salt thereof; and (c) a honey, and, optionally, pharmaceutical or food grade additives and/or excipients. (a) an Aloe vera gel; (b) a hyaluronic acid, or a salt thereof; and (c) a honey, and, optionally, pharmaceutical or food grade additives and/or excipients.
A nacelle of a horizontal axis wind turbine, comprising a nacelle structure (55, 56) and tool for moving a drivetrain component (1, 2, 3) in the nacelle, the component being connected, in operation of the wind turbine, to a rotor of the wind turbine, the tool comprising - at least two drive units adapted to be connected to the nacelle structure and to the component, so as to provide a force between the nacelle structure and the component, so as to drive the component in a direction parallel to the rotational axis of the rotor, - characterised in that each drive unit is adapted to be selectively connected to the nacelle structure at more than one location, wherein the locations at which each drive unit can be connected to the nacelle structure are distributed in parallel to the rotational axis of the rotor. - at least two drive units adapted to be connected to the nacelle structure and to the component, so as to provide a force between the nacelle structure and the component, so as to drive the component in a direction parallel to the rotational axis of the rotor, - characterised in that each drive unit is adapted to be selectively connected to the nacelle structure at more than one location,
A gas removal unit comprising: a tube bundle formed of a plurality of tubes and having a hollow center said tubes being formed of a material that allows passage of a gas from exterior of said tubes into an interior of said tubes, and resisting flow of at least some liquids through said tubes into said an interior of said tubes; a plurality of inner chambers within said tube bundle and a plurality of outer chambers outward of said tube bundle; a liquid fluid inlet connected to a first of said inner or outer chambers, and a liquid fluid outlet connected to a second of said inner and outer chambers, and an axial direction defined between said fluid inlet to said fluid outlet; and a tortuous path defined between said first and second of said inner and outer chambers such that a liquid will pass repeatedly from said inner chambers to said outer chambers, and from said outer chambers to said inner chambers as it moves along said axial direction from said fluid inlet to said fluid outlet; an inner layer of said tubes extending outwardly to an outer layer of said tubes, such that there are a plurality of layers of tubes; the gas removal unit characterised in that said plurality of layers of tubes are wrapped around each other at a varying angle relative to said axial direction, the angle being non-parallel to a centre axis of the tube bundle, such that said tube bundle resists flow in the axial direction. a tube bundle formed of a plurality of tubes and having a hollow center said tubes being formed of a material that allows passage of a gas from exterior of said tubes into an interior of said tubes, and resisting flow of at least some liquids through said tubes into said an interior of said tubes; a plurality of inner chambers within said tube bundle and a plurality of outer chambers outward of said tube bundle; a liquid fluid inlet connected to a first of said inner or outer chambers, and a liquid fluid outlet connected to a second of said inner and outer chambers, and an axial direction defined between said fluid inlet to said fluid outlet; and a tortuous path defined between said first and second of said inner and outer chambers such that a liquid will pass repeatedly from said inner chambers to said outer chambers, and from said outer chambers to said inner chambers as it moves along said axial direction from said fluid inlet to said fluid outlet; an inner layer of said tubes extending outwardly to an outer layer of said tubes, such that there are a plurality of layers of tubes; the gas removal unit characterised in that said plurality of layers of tubes are wrapped around each other at a varying angle relative to said axial direction, the angle being non-parallel to a centre axis of the tube bundle, such that said tube bundle resists flow in the axial direction.
A radio base station apparatus in a radio communication system provided with: a plurality of radio base station apparatuses (20A, 20B); and a user terminal (10A, 10B) configured to be able to perform Coordinated Multi-Point, CoMP, transmission/reception with the plurality of radio base station apparatuses, the radio base station apparatus comprising: a determination section (204, 2044) that determines content of channel state information to transmit to a serving cell (C1, C2) to perform CoMP transmission as feedback and content of channel state information to transmit to a coordinated cell (C1, C2) as feedback such that accuracy of feedback to the serving cell (C1, C2) is higher than accuracy of feedback to the coordinated cell (C1, C2); and a notification section that notifies the user terminal (10A, 10B) of the content of channel state information, wherein, when there is a plurality of options on the content of channel state information, CSI, to feed back to the coordinated cell (C1, C2), the determination section (204, 2044) selects an option of the content of channel state information, CSI, that maximizes the accuracy of feedback to the coordinated cell (C1, C2). a plurality of radio base station apparatuses (20A, 20B); and a user terminal (10A, 10B) configured to be able to perform Coordinated Multi-Point, CoMP, transmission/reception with the plurality of radio base station apparatuses, the radio base station apparatus comprising: a determination section (204, 2044) that determines content of channel state information to transmit to a serving cell (C1, C2) to perform CoMP transmission as feedback and content of channel state information to transmit to a coordinated cell (C1, C2) as feedback such that accuracy of feedback to the serving cell (C1, C2) is higher than accuracy of feedback to the coordinated cell (C1, C2); and a notification section that notifies the user terminal (10A, 10B) of the content of channel state information, wherein, when there is a plurality of options on the content of channel state information, CSI, to feed back to the coordinated cell (C1, C2), the determination section (204, 2044) selects an option of the content of channel state information, CSI, that maximizes the accuracy of feedback to the coordinated cell (C1, C2). a determination section (204, 2044) that determines content of channel state information to transmit to a serving cell (C1, C2) to perform CoMP transmission as feedback and content of channel state information to transmit to a coordinated cell (C1, C2) as feedback such that accuracy of feedback to the serving cell (C1, C2) is higher than accuracy of feedback to the coordinated cell (C1, C2); and a notification section that notifies the user terminal (10A, 10B) of the content of channel state information, wherein, when there is a plurality of options on the content of channel state information, CSI, to feed back to the coordinated cell (C1, C2), the determination section (204, 2044) selects an option of the content of channel state information, CSI, that maximizes the accuracy of feedback to the coordinated cell (C1, C2).
Method for producing a coating (10, 11) made of a metal or a metal alloy on a substrate by means of a diffusion process, in which the substrate is subjected to a temperature treatment at 800°C to 1200°C for a period of 0.5 to 24 h in an atmosphere, the atmosphere comprising at least one metal halide of the metal to be deposited or of the metal alloy, Cr, Al, Hf, Zr and/or Y being used as metals, characterized in that, in addition, the substrate is at least partially provided with a layer which comprises at least one metal halide in solid and/or liquid form, - the substrate being provided with a film which comprises a metal halide in liquid form, and - a powder layer having the solid metal halide being arranged over the film having the liquid metal halide or directly on the substrate, and - a build-up region of the diffusion layer being formed, which region is deposited above the original surface of the substrate. - the substrate being provided with a film which comprises a metal halide in liquid form, and - a powder layer having the solid metal halide being arranged over the film having the liquid metal halide or directly on the substrate, and - a build-up region of the diffusion layer being formed, which region is deposited above the original surface of the substrate.
A method for configuring beamformed wireless communication between a base station (120, 121, 122) and a user equipment, the method comprising: transmitting, by the base station and using multiple transmit antenna configurations, downlink reference signals to the user equipment; configuring, by the base station, time-frequency resources for Non-Orthogonal Multiple Access, NOMA, transmissions for the user equipment; configuring an association between the downlink reference signals and the time-frequency resources for the user equipment; transmitting, to the user equipment, the configuration of the time-frequency resources for the NOMA transmissions and the association between the downlink reference signals and the time-frequency resources; and receiving uplink data from the user equipment on one of the time-frequency resources using a receive antenna configuration, the receive antenna configuration being determined at least in part using one of the multiple transmit antenna configurations used for transmitting one of the downlink reference signals associated with one of the time-frequency resources as indicated in the association. transmitting, by the base station and using multiple transmit antenna configurations, downlink reference signals to the user equipment; configuring, by the base station, time-frequency resources for Non-Orthogonal Multiple Access, NOMA, transmissions for the user equipment; configuring an association between the downlink reference signals and the time-frequency resources for the user equipment; transmitting, to the user equipment, the configuration of the time-frequency resources for the NOMA transmissions and the association between the downlink reference signals and the time-frequency resources; and receiving uplink data from the user equipment on one of the time-frequency resources using a receive antenna configuration, the receive antenna configuration being determined at least in part using one of the multiple transmit antenna configurations used for transmitting one of the downlink reference signals associated with one of the time-frequency resources as indicated in the association.
Run-off blocking apparatus for a food processor, wherein the food processor has a collection container and an outlet, wherein the run-off blocking apparatus is arranged between the collection container and the outlet, and the run-off blocking apparatus has a slider which can be moved between a first and a second position, wherein the slider in the first position releases a first cross-section surface of the outlet, the slider in the second position closes off a second cross-section surface of the outlet, and the first cross-section surface and the second cross-section surface overlap at least in a lower cross-section region of the outlet, characterised in that the run-off blocking apparatus has a retainer for the slider, wherein the retainer is connected to the collection container in a releasable manner.
A method for processing a verification code, comprising: acquiring the verification code in a message (S11; S21; S31; S41; S51); judging whether the verification code is within a validity period (S12; S42; S52) allowing an operation corresponding to the verification code if the verification code is valid (S13; S24; S35), allowing the operation corresponding to the verification code comprises: allowing a copying, cutting or moving operation corresponding to the verification code; characterised in that the method further comprises: providing a setting button on a page of the message and obtaining the validity period inputted by a user through the setting button, wherein the button for setting the validity period is in a setting bar, and the user touches the button for setting the validity period and input the validity period. acquiring the verification code in a message (S11; S21; S31; S41; S51); judging whether the verification code is within a validity period (S12; S42; S52) allowing an operation corresponding to the verification code if the verification code is valid (S13; S24; S35), allowing the operation corresponding to the verification code comprises: allowing a copying, cutting or moving operation corresponding to the verification code; characterised in that the method further comprises: providing a setting button on a page of the message and obtaining the validity period inputted by a user through the setting button, wherein the button for setting the validity period is in a setting bar, and the user touches the button for setting the validity period and input the validity period.
A wound dressing comprising: a perforated material including through-holes; and a low-adhesive resin coating one face of the perforated material to be in contact with a wound without closing the through-holes, wherein the low-adhesive resin is a resin containing a hydrophobic resin as a main component, and is used in the form of a hydrophobic gel, the hydrophobic resin is one or more resins selected from the group consisting of a silicone resin, an acrylic resin, a methacryl resin, a polyvinyl chloride resin, a polyvinylidene chloride resin, a fluorine resin, an olefinic resin, a polyester resin, an urethane resin, and a polyamide resin; the perforated material is a knitted fabric or a woven fabric formed of a multifilament, and the perforated material has an average opening area of the through-holes of 0.02 to 1.2 mm 2, an average number of through-holes of 40 to 220 cm -2 and a perforated rate of 25 to 90%, and wherein the multifilament includes 15 to 100 filaments and each filament has a diameter of 1 to 100 μm. a perforated material including through-holes; and a low-adhesive resin coating one face of the perforated material to be in contact with a wound without closing the through-holes, wherein the low-adhesive resin is a resin containing a hydrophobic resin as a main component, and is used in the form of a hydrophobic gel, the hydrophobic resin is one or more resins selected from the group consisting of a silicone resin, an acrylic resin, a methacryl resin, a polyvinyl chloride resin, a polyvinylidene chloride resin, a fluorine resin, an olefinic resin, a polyester resin, an urethane resin, and a polyamide resin; the perforated material is a knitted fabric or a woven fabric formed of a multifilament, and the perforated material has an average opening area of the through-holes of 0.02 to 1.2 mm 2, an average number of through-holes of 40 to 220 cm -2 and a perforated rate of 25 to 90%, and wherein the multifilament includes 15 to 100 filaments and each filament has a diameter of 1 to 100 μm.
Optical device for measuring a heart rate of a user, said device comprising: - two light sources (1,2;11,12;21,22) for emitting light into the skin of the user, - a sensor (3;13;23) for receiving light signals from the light emitted by each of the two light sources and reflected through the skin of the user so as to determine the heart rate of the user, wherein the two light sources (1,2) are situated at different distances from the sensor such that the light signals (I 1,I 2) received from each of the two light sources have a different penetration depth into the skin. characterized in that the device further comprises a temperature sensor for measuring an ambient temperature and a control unit which is configured to select the light source which is farthest from the sensor when the ambient temperature measured by the temperature sensor is below a predetermined threshold. - two light sources (1,2;11,12;21,22) for emitting light into the skin of the user, - a sensor (3;13;23) for receiving light signals from the light emitted by each of the two light sources and reflected through the skin of the user so as to determine the heart rate of the user,
A compound according to Formula: wherein A is a bioluminescent reporter moiety; R 14 is H, C 1-4 alkyl, C 1-4 alkoxyl, C 2-4 hydroxylalkyl, C 2-4 alkoxyl, C 2-4 carboxylic acid, C 2-4 amide; R 9 and R 10 are independently selected from C 1-4 alkyl; R 11, R 12 and R 13 are independently selected from H, C 1-4 alkyl, C 1-4 alkoxyl, bromo, chloro or amino, or R 11 and R 12 can form a fused phenyl ring; X is O, NH or a direct bond; L is a direct bond or -C 6 (R 16) 4 CH 2 - or -(CH 2) m C(R 17) 2 (CH 2) n -Y-C -; R 16 is independently H, halogen, CH 3, OCH 3, or NO 2; R 17 is independently H, C 1-4 alkyl or both R 17 together can form an alkyl ring having from 3-7 carbons; m is an integer from 0-2; n is an integer from 0-2; Y is O or NR 15; and R 15 is H, C 1-4 alkyl, C 2-4 hydroxylalkyl, C 2-4 alkoxyl, C 2-4 carboxylic acid, or C 2-4 amide. wherein A is a bioluminescent reporter moiety; R 14 is H, C 1-4 alkyl, C 1-4 alkoxyl, C 2-4 hydroxylalkyl, C 2-4 alkoxyl, C 2-4 carboxylic acid, C 2-4 amide; R 9 and R 10 are independently selected from C 1-4 alkyl; R 11, R 12 and R 13 are independently selected from H, C 1-4 alkyl, C 1-4 alkoxyl, bromo, chloro or amino, or R 11 and R 12 can form a fused phenyl ring; X is O, NH or a direct bond; L is a direct bond or -C 6 (R 16) 4 CH 2 - or -(CH 2) m C(R 17) 2 (CH 2) n -Y-C -; R 16 is independently H, halogen, CH 3, OCH 3, or NO 2; R 17 is independently H, C 1-4 alkyl or both R 17 together can form an alkyl ring having from 3-7 carbons; m is an integer from 0-2; n is an integer from 0-2; Y is O or NR 15; and R 15 is H, C 1-4 alkyl, C 2-4 hydroxylalkyl, C 2-4 alkoxyl, C 2-4 carboxylic acid, or C 2-4 amide.
An exothermic reaction composition, comprising: a solid reactant, wherein the solid reactant is metal oxide; at least one phase change material; a pH modulator, where the pH modulator is citric acid, tartaric acid, oxalic acid, orthophosphoric acid, sulfamic acid, sodium hydrogen sulfate, or potassium hydrogen sulfate; and wherein the reactants are encapsulated in a coating of the pH modulator. a solid reactant, wherein the solid reactant is metal oxide; at least one phase change material; a pH modulator, where the pH modulator is citric acid, tartaric acid, oxalic acid, orthophosphoric acid, sulfamic acid, sodium hydrogen sulfate, or potassium hydrogen sulfate; and wherein the reactants are encapsulated in a coating of the pH modulator.