mhurhangee/ep-ind-claims huggingface dataset:
A method, implemented at a computer system that includes a processor, a first memory that is byte-addressable and volatile, and a second memory that is byte-addressable and non-volatile, for ensuring data security when copying data from the first memory to the second memory, the method comprising: identifying one or more portions of cache data stored in the first memory that are to be copied to the second memory, each portion of cache data being associated with a corresponding set of cryptographic requirements for storing the portion of cache data on non-volatile storage; identifying a set of cryptographic capabilities of the second memory; and for each of the one or more portions of cache data that are to be copied to the second memory, performing one of: when each requirement in the corresponding set of cryptographic requirements is met by the set of cryptographic capabilities, copying the portion of cache data to the second memory while relying on the second memory to encrypt the portion of cache data; or when at least one requirement in the corresponding set of cryptographic requirements is not met by the set of cryptographic capabilities, encrypting the portion of cache data to generate an encrypted portion of cache data; and copying the encrypted portion of cache data to the second memory. identifying one or more portions of cache data stored in the first memory that are to be copied to the second memory, each portion of cache data being associated with a corresponding set of cryptographic requirements for storing the portion of cache data on non-volatile storage; identifying a set of cryptographic capabilities of the second memory; and for each of the one or more portions of cache data that are to be copied to the second memory, performing one of: when each requirement in the corresponding set of cryptographic requirements is met by the set of cryptographic capabilities, copying the portion of cache data to the second memory while relying on the second memory to encrypt the portion of cache data; or when at least one requirement in the corresponding set of cryptographic requirements is not met by the set of cryptographic capabilities, encrypting the portion of cache data to generate an encrypted portion of cache data; and copying the encrypted portion of cache data to the second memory. when each requirement in the corresponding set of cryptographic requirements is met by the set of cryptographic capabilities, copying the portion of cache data to the second memory while relying on the second memory to encrypt the portion of cache data; or when at least one requirement in the corresponding set of cryptographic requirements is not met by the set of cryptographic capabilities, encrypting the portion of cache data to generate an encrypted portion of cache data; and copying the encrypted portion of cache data to the second memory. encrypting the portion of cache data to generate an encrypted portion of cache data; and copying the encrypted portion of cache data to the second memory.
A method for producing phenyl (meth)acrylate through reaction of (meth)acrylic acid and diphenyl carbonate, wherein no solvent is used and the reaction temperature is set in a range of 80 °C to 160 °C, wherein (meth)acrylic acid and diphenyl carbonate are reacted in the presence of a catalyst, wherein the catalyst is at least one type selected from among nitrogen-containing organic compounds, Group 1 metal compounds, Group 2 metal compounds, and metal trifluoromethanesulfonates.
A combustion and flue gas treatment system comprising a furnace for combusting a fuel with an oxidizer generating a flue gas, ducting for the flue gas connected to a NO x removal unit and a SO x removal unit, a recirculation line for recirculating a part of the flue gas back to the furnace, wherein the SO x removal unit is located upstream of the NO x removal unit with reference to the flue gas flow, wherein the recirculation line is connected to the ducting downstream the SO x removal unit, characterised by further comprising a dust removal unit, the dust removal unit being located downstream of the SO x removal unit and upstream of the NO x removal unit, that the dust removal unit is located upstream of a recirculation line connection to the ducting, that the SO x removal unit comprises a vessel with an inlet for a flue gas and an outlet for a treated flue gas, and further comprising a pulverized reagent supply for the reagent, and in that the system further comprises a condenser downstream of the NO x removal unit and upstream of a gas processing unit, said gas processing unit compresses the treated flue gas and condenses carbon dioxide.
A compound of formula 2, or a pharmaceutically acceptable salt or solvate thereof in which RisH R 1 is cyclopropylmethyl R 2 is H R 4 and R 5 are methyl R 3 is aryl or heteroaryl either of which may be substituted or unsubstituted, and X is a saturated bridge (-CH 2 CH 2 -) or an unsaturated bridge (-CH=CH-). RisH R 1 is cyclopropylmethyl R 2 is H R 4 and R 5 are methyl R 3 is aryl or heteroaryl either of which may be substituted or unsubstituted, and X is a saturated bridge (-CH 2 CH 2 -) or an unsaturated bridge (-CH=CH-).
A heat dissipation assembly, comprising: a case comprising a cavity, a first water hole, and a second water hole, wherein the cavity comprises a first region and a second region communicated with each other, and the first water hole and the second water hole are communicated with the first region of the cavity; the heat dissipation assembly being characterized in further comprising: a partition structure comprising a separation wall and a separation layer connected to each other, wherein the separation wall is vertically disposed in the first region of the cavity to separate a first flow path (C1, C1') and a second flow path (C2, C2') disposed in left and right portions in the first region, and the separation layer is horizontally disposed in the second region of the cavity to separate a third flow path (C3, C3') and a fourth flow path (C4, C4') disposed in upper and lower portions in the second region, wherein the first flow path (C1, C1') is communicated with the third flow path (C3, C3'), the third flow path (C3, C3') is communicated with the fourth flow path (C4, C4'), and the fourth flow path (C4, C4') is communicated with the second flow path (C2, C2').
An intra-oral imaging system comprising: a manually positionable intra-oral image capture device; a display; a processor; and a non-transitory memory storing instructions that, when executed by the processor, cause the system to receive live image data of a patient from the intra-oral image capture device, display the live image data on the display, and access a previously stored intra-oral image of the patient from the non-transitory memory, characterized in that the instructions, when executed by the processor, further cause the system to generate an alignment mask based on the accessed previously stored intra-oral image, display the alignment mask on the display overlaid on the live image data, determine whether the live image data is aligned with the alignment mask, automatically capture a new intra-oral image of the patient from the live image data in response to determining that the live image data is aligned with the alignment mask, and store the new intra-oral image to the non-transitory memory. a manually positionable intra-oral image capture device; a display; a processor; and a non-transitory memory storing instructions that, when executed by the processor, cause the system to receive live image data of a patient from the intra-oral image capture device, display the live image data on the display, and access a previously stored intra-oral image of the patient from the non-transitory memory, receive live image data of a patient from the intra-oral image capture device, display the live image data on the display, and access a previously stored intra-oral image of the patient from the non-transitory memory, generate an alignment mask based on the accessed previously stored intra-oral image, display the alignment mask on the display overlaid on the live image data, determine whether the live image data is aligned with the alignment mask, automatically capture a new intra-oral image of the patient from the live image data in response to determining that the live image data is aligned with the alignment mask, and store the new intra-oral image to the non-transitory memory.
A method of rigging a variable stator vane arrangement for a gas turbine engine, the variable stator vane arrangement comprising: an actuator comprising an actuator body and an actuator ram, the actuator ram being moveable relative to the actuator body along an actuator axis; an array (70/72/74) of variable stator vanes; and an adjustable connecting arrangement (250, 260, 270, 110, 130) that, once adjusted, fixedly connects the actuator ram to the variable stator vanes such that the angle of incidence of the variable stator vanes is dependent on the position of the actuator ram along the actuator axis, characterized in that: each of the actuator body and the actuator ram comprises at least one rigging hole (602-610, 210), with at least one of the actuator body and the actuator ram comprising at least two rigging holes that are offset from each other in the direction of the actuator axis, the method comprising: aligning an actuator ram rigging hole with an actuator body rigging hole; inserting a rigging pin through the aligned actuator ram rigging hole and actuator body rigging hole so as to set a rigging position of the actuator ram; setting the angle of incidence of the variable stator vanes to a rigging angle; and adjusting the adjustable connecting arrangement so as to fixedly connect the actuator ram at the rigging position to the variable stator vanes at the rigging angle. an actuator comprising an actuator body and an actuator ram, the actuator ram being moveable relative to the actuator body along an actuator axis; an array (70/72/74) of variable stator vanes; and an adjustable connecting arrangement (250, 260, 270, 110, 130) that, once adjusted, fixedly connects the actuator ram to the variable stator vanes such that the angle of incidence of the variable stator vanes is dependent on the position of the actuator ram along the actuator axis, characterized in that: each of the actuator body and the actuator ram comprises at least one rigging hole (602-610, 210), with at least one of the actuator body and the actuator ram comprising at least two rigging holes that are offset from each other in the direction of the actuator axis, the method comprising: aligning an actuator ram rigging hole with an actuator body rigging hole; inserting a rigging pin through the aligned actuator ram rigging hole and actuator body rigging hole so as to set a rigging position of the actuator ram; setting the angle of incidence of the variable stator vanes to a rigging angle; and adjusting the adjustable connecting arrangement so as to fixedly connect the actuator ram at the rigging position to the variable stator vanes at the rigging angle. aligning an actuator ram rigging hole with an actuator body rigging hole; inserting a rigging pin through the aligned actuator ram rigging hole and actuator body rigging hole so as to set a rigging position of the actuator ram; setting the angle of incidence of the variable stator vanes to a rigging angle; and adjusting the adjustable connecting arrangement so as to fixedly connect the actuator ram at the rigging position to the variable stator vanes at the rigging angle.
A gear pump or motor comprising a first gear driving wheel activated in rotation about its own axis and a second gear driven wheel engaged with said first gear wheel, - each tooth of said first and second wheels (11, 13) comprising a driving side and a discharge side, said driving side and discharge side of each tooth being asymmetrical with respect to each other, - the driving sides of the corresponding teeth of said first and second wheels (11, 13) mating with each other, - the discharge sides of the teeth of said first and second wheels (11, 13) having at least a portion not mating with each other, characterized in that - said discharge side is configured so that the radius passing through the tip of each of said teeth is tangent to said discharge side or intersects it and the pitch between the teeth is less than 9/10, preferably less than 8/10, more preferably about 7/10 of the pitch between the symmetrical teeth of a gear wheel having the same diameter and tooth height as of said asymmetrical teeth gear wheels, wherein said symmetrical teeth have sides with profile corresponding to the profile of the driving side of said asymmetrical teeth and wherein said symmetrical teeth gear wheel has the maximum number of teeth, said symmetrical teeth having a pointed shape, wherein the discharge side of each tooth of said first and second wheels (11, 13) comprises a convex section towards the head of said tooth and a cavity that defines a concave section (16") towards the bottom of said tooth and that connects said convex section with said bottom, the convex section having a length smaller than the concave section (16"). - each tooth of said first and second wheels (11, 13) comprising a driving side and a discharge side, said driving side and discharge side of each tooth being asymmetrical with respect to each other, - the driving sides of the corresponding teeth of said first and second wheels (11, 13) mating with each other, - the discharge sides of the teeth of said first and second wheels (11, 13) having at least a portion not mating with each other, - said discharge side is configured so that the radius passing through the tip of each of said teeth is tangent to said discharge side or intersects it and the pitch between the teeth is less than 9/10, preferably less than 8/10, more preferably about 7/10 of the pitch between the symmetrical teeth of a gear wheel having the same diameter and tooth height as of said asymmetrical teeth gear wheels, wherein said symmetrical teeth have sides with profile corresponding to the profile of the driving side of said asymmetrical teeth and wherein said symmetrical teeth gear wheel has the maximum number of teeth, said symmetrical teeth having a pointed shape,
Method for coating an optoelectronic chip-on-board module (1, 1', 21) that comprises a two-dimensional support (2, 2') that is configured with one or more optoelectronic components, with a transparent UV- and temperature-resistant coating made of one or more silicones, whereby the coating comprises a transparent dam and a transparent filling, and whereby the method comprises the following procedural steps: a) preheating the support (2, 2') to be coated to a first temperature; b) applying the transparent dam, which encloses a surface or partial surface of the support (2, 2') to be coated and is made of a first heat-curing highly reactive silicone that is cured at the first temperature, onto the preheated support (2, 2'); c) filling the surface or partial surface of the support (2, 2') enclosed by the transparent dam with a liquid second silicone; and d) curing the second silicone while obtaining the transparent filling; whereby the first highly reactive silicone is a silicone that is cross-linked or cured at the first temperature within a curing time and forms the transparent dam without deliquescing when it hits on the preheated support (2, 2'), whereby the curing time is in a range of up to 10 seconds. a) preheating the support (2, 2') to be coated to a first temperature; b) applying the transparent dam, which encloses a surface or partial surface of the support (2, 2') to be coated and is made of a first heat-curing highly reactive silicone that is cured at the first temperature, onto the preheated support (2, 2'); c) filling the surface or partial surface of the support (2, 2') enclosed by the transparent dam with a liquid second silicone; and d) curing the second silicone while obtaining the transparent filling;
A method, comprising: receiving, by a physical layer device, first auto-negotiation capability information from an M-lane communication device (110, 112, 114, 120, 122, 124, 200, 412, 414, 416) over an M-lane communication interface (116, 126, 130, 420, 430, 440, 126, 130, 420, 430, 440) as part of a first auto-negotiation process; transmitting, by the physical layer device, second auto-negotiation capability information based on the first auto-negotiation capability information over an N-lane communication interface (116, 126, 130, 420, 430, 440) to an N-lane communication device (110, 112, 114, 120, 122, 124, 200, 412, 414, 416) as part of a second auto-negotiation process, wherein M > N; completing, by the physical layer device, the second auto-negotiation process with the N-lane communication device (110, 112, 114, 120, 122, 124, 200, 412, 414, 416); and after the completion of the second auto-negotiation process, transmitting, by the physical layer device, auto-negotiation information to the M-lane communication device (110, 112, 114, 120, 122, 124, 200, 412, 414, 416) over the M-lane communication interface (116, 126, 130, 420, 430, 440), the transmitted auto-negotiation information including information based on a completion of the second auto-negotiation process with the N-lane communication device (110, 112, 114, 120, 122, 124, 200, 412, 414, 416) over the N-lane communication interface (116, 126, 130, 420, 430, 440). receiving, by a physical layer device, first auto-negotiation capability information from an M-lane communication device (110, 112, 114, 120, 122, 124, 200, 412, 414, 416) over an M-lane communication interface (116, 126, 130, 420, 430, 440, 126, 130, 420, 430, 440) as part of a first auto-negotiation process; transmitting, by the physical layer device, second auto-negotiation capability information based on the first auto-negotiation capability information over an N-lane communication interface (116, 126, 130, 420, 430, 440) to an N-lane communication device (110, 112, 114, 120, 122, 124, 200, 412, 414, 416) as part of a second auto-negotiation process, wherein M > N; completing, by the physical layer device, the second auto-negotiation process with the N-lane communication device (110, 112, 114, 120, 122, 124, 200, 412, 414, 416); and after the completion of the second auto-negotiation process, transmitting, by the physical layer device, auto-negotiation information to the M-lane communication device (110, 112, 114, 120, 122, 124, 200, 412, 414, 416) over the M-lane communication interface (116, 126, 130, 420, 430, 440), the transmitted auto-negotiation information including information based on a completion of the second auto-negotiation process with the N-lane communication device (110, 112, 114, 120, 122, 124, 200, 412, 414, 416) over the N-lane communication interface (116, 126, 130, 420, 430, 440).
Milling device for removing material applied to paved traffic surfaces, in particular applied carriageway markings or aircraft tyre abrasion applied to a take-off/landing strip, wherein the milling device in a working position is movable relative to the traffic surface, with an outer hood-shaped housing and an inner hood-shaped housing surrounded by the latter, a spray bar which is arranged within the inner housing, is rotatable about an axis of rotation by means of drive and has spray nozzles for the passage of liquid under high pressure, and also with a suction port which is connected to the outer housing and is connectable to a suction device, wherein, with respect to the working position of the milling device, the two housings (28, 29) are open towards the traffic surface, the spray bar with the spray nozzles is rotatable about an axis which is perpendicular to the traffic surface, and liquid discharged from the spray nozzles during the milling and milled material are sucked off by an interface formed between the housings (28, 29) and by the suction port, characterized in that the intermediate space formed between the housings (28, 29) is divided into intermediate space regions (36, 37, 38) in such a manner that liquid discharged from the spray nozzles and milled application material flows from the intermediate space regions (36, 37, 38) into the suction port.
Bearing for a support bearing, having a first housing part and a second housing part, between which a housing gap is formed, wherein a bearing apparatus is arranged in the housing gap, wherein a sealing system is provided, which seals the housing gap, wherein the sealing system has at least one first sealing lip, which is formed such that it can pivot, wherein the first sealing lip is at a distance from the first housing part and/or the second housing part in the non-sealing state, and for sealing the housing gap, same is pivoted and brought into contact with the first housing part and/or the second housing part, wherein the sealing system has a support section for supporting a spring element, characterised in that the support section is materially uniformly integrated into the sealing system, wherein the sealing system is positively and/or firmly connected to the first housing part and/or the second housing part, and wherein the sealing system and the first housing part and/or the second housing part are produced using a 2-component injection moulding method.
A liquid washing, care, conditioning, or cleaning agent, comprising a fragrance composition, wherein at least 50% by weight of the contained fragrances is selected from such fragrances that can be assigned to at least one of the following classes of substances: - saturated alcohols - saturated esters - saturated ethers - aromatics with saturated substituents - nitriles - saturated acetals - saturated hemiacetals, whereby the percentage by weight details are based on the total amount of fragrances, whereby the agent comprises an imidoperoxycarboxylic acid, whereby said acid is present in granular form. - saturated alcohols - saturated esters - saturated ethers - aromatics with saturated substituents - nitriles - saturated acetals - saturated hemiacetals,
A method, comprising the steps of: receiving, by a primary, mobile communication device, an incoming call from a remote device; determining, by the primary device, a numerical count of detected user gestures by either: a gesture sensor of the primary device detecting the user gestures; or: the primary device receiving, from a secondary device, at least one message, formatted for interpretation by a processor, carrying a gesture command indicating the numerical count of detected user gestures detected by a gesture sensor of the secondary device; and the method further comprises the steps of: responsive to determining the numerical count of detected user gestures, the primary device automatically generating an electronic message indicating a user will return the incoming call in a time frame corresponding to the numerical count of detected user gestures, and the primary device automatically communicating the electronic message to the remote device. receiving, by a primary, mobile communication device, an incoming call from a remote device; determining, by the primary device, a numerical count of detected user gestures by either: a gesture sensor of the primary device detecting the user gestures; or: the primary device receiving, from a secondary device, at least one message, formatted for interpretation by a processor, carrying a gesture command indicating the numerical count of detected user gestures detected by a gesture sensor of the secondary device; and the method further comprises the steps of: responsive to determining the numerical count of detected user gestures, the primary device automatically generating an electronic message indicating a user will return the incoming call in a time frame corresponding to the numerical count of detected user gestures, and the primary device automatically communicating the electronic message to the remote device.