mhurhangee/patent-ind-claim-en huggingface dataset:
A zoom optical system, comprising: disposed in order from an object, a first lens group (G1) having positive refractive power; a second lens group (G2) having negative refractive power; and a third lens group (G3) having positive refractive power, wherein, at least a part (G32) of the third lens group is configured to be movable, as a vibration-proof lens group for correcting an image blur, so as to have a component in a direction perpendicular to an optical axis, characterised in that : the third lens group comprises, disposed in order from an object, a 31st lens group (G31), a 32nd lens group (G32), and a 33rd lens group (G33), wherein the 32nd lens group is configured to be movable, as a vibration-proof lens group, so as to have a component in a direction perpendicular to an optical axis. and the following conditional expressions are satisfied: 4.40 < f 1 / − f 2 < 7.00 2.00 < − f 32 / f 3 < 6.00 0.73 < − f 2 / f 3 < 2.00 where f1 denotes a focal length of the first lens group, f2 denotes a focal length of the second lens group, f32 denotes a focal length of the 32nd lens group, and f3 denotes a focal length of the third lens group. the third lens group comprises, disposed in order from an object, a 31st lens group (G31), a 32nd lens group (G32), and a 33rd lens group (G33), wherein the 32nd lens group is configured to be movable, as a vibration-proof lens group, so as to have a component in a direction perpendicular to an optical axis. and the following conditional expressions are satisfied: 4.40 < f 1 / − f 2 < 7.00 2.00 < − f 32 / f 3 < 6.00 0.73 < − f 2 / f 3 < 2.00 where f1 denotes a focal length of the first lens group, f2 denotes a focal length of the second lens group, f32 denotes a focal length of the 32nd lens group, and f3 denotes a focal length of the third lens group. where f1 denotes a focal length of the first lens group, f2 denotes a focal length of the second lens group, f32 denotes a focal length of the 32nd lens group, and f3 denotes a focal length of the third lens group.
A polypeptide comprising a variant of the general amyloid interaction motif (GAIM) of filamentous bacteriophage gene 3 protein (g3p) of the starting amino acid sequence SEQ ID NO:16, wherein the variant differs from SEQ ID NO:16 by one or more sets of amino acid changes selected from: a) substitution of T50 with any amino acid and H55T; b) N137G; c) N142A; d) R143V and Q144N; or R143V, Q144N, and A146V; or R143V, Q144N, and A146T; or R143V, Q144N, and A146K; and e) Q156V, G157N, ΔT158, ΔD159, ΔP160, and V161G; or Q156Y, G157N, ΔT158, ΔD159, ΔP160, and V161G; or G157N, ΔT158, ΔD159, ΔP160, and V161G; or ΔT158, ΔD159, ΔP160, and V161G; wherein the variant optionally further differs from SEQ ID NO:16 by one or more sets of amino acid changes selected from: f) ΔM1; or ΔM1 and ΔA2; and g) substitution of N38 with any amino acid other than cysteine; or substitution of N38 with any amino acid other than cysteine, and substitution of G40 with any amino acid other than cysteine; or substitution of G40 with any amino acid other than cysteine, threonine, or serine. a) substitution of T50 with any amino acid and H55T; b) N137G; c) N142A; d) R143V and Q144N; or R143V, Q144N, and A146V; or R143V, Q144N, and A146T; or R143V, Q144N, and A146K; and R143V, Q144N, and A146V; or R143V, Q144N, and A146T; or R143V, Q144N, and A146K; and e) Q156V, G157N, ΔT158, ΔD159, ΔP160, and V161G; or Q156Y, G157N, ΔT158, ΔD159, ΔP160, and V161G; or G157N, ΔT158, ΔD159, ΔP160, and V161G; or ΔT158, ΔD159, ΔP160, and V161G; wherein the variant optionally further differs from SEQ ID NO:16 by one or more sets of amino acid changes selected from: Q156Y, G157N, ΔT158, ΔD159, ΔP160, and V161G; or G157N, ΔT158, ΔD159, ΔP160, and V161G; or ΔT158, ΔD159, ΔP160, and V161G; f) ΔM1; or ΔM1 and ΔA2; and g) substitution of N38 with any amino acid other than cysteine; or substitution of N38 with any amino acid other than cysteine, and substitution of G40 with any amino acid other than cysteine; or substitution of G40 with any amino acid other than cysteine, threonine, or serine. substitution of N38 with any amino acid other than cysteine, and substitution of G40 with any amino acid other than cysteine; or substitution of G40 with any amino acid other than cysteine, threonine, or serine.
A fluid level detection system , comprising: a probe , the probe including a conductive trace extending along at least a portion of the probe , the probe being positioned within an interior of a tank , the tank containing a fluid with a level , and at least a portion of the probe being in contact with the fluid ; a pulse generator , the pulse generator adapted to supply a pulse to the probe for transmission along the conductive trace; a timer , the timer adapted to identify a first time, corresponding to a transmission time of the pulse, and a second time, corresponding to a receipt time of a reflected pulse; a comparator , the comparator adapted to receive at least the reflected pulse from the probe and to determine a value for the reflected pulse; characterised by a connecting region forming at least a portion of the probe , the connecting region including a plurality of channels (318A-D) to separately receive the pulse from the pulse generator ; and a launch zone formed in the connection region corresponding to a trace pattern having a longer length than a connection region length to provide a time delay between transmission of the signal and entry of the signal at a sensor zone of the probe . a probe , the probe including a conductive trace extending along at least a portion of the probe , the probe being positioned within an interior of a tank , the tank containing a fluid with a level , and at least a portion of the probe being in contact with the fluid ; a pulse generator , the pulse generator adapted to supply a pulse to the probe for transmission along the conductive trace; a timer , the timer adapted to identify a first time, corresponding to a transmission time of the pulse, and a second time, corresponding to a receipt time of a reflected pulse; a comparator , the comparator adapted to receive at least the reflected pulse from the probe and to determine a value for the reflected pulse; characterised by a connecting region forming at least a portion of the probe , the connecting region including a plurality of channels (318A-D) to separately receive the pulse from the pulse generator ; and a launch zone formed in the connection region corresponding to a trace pattern having a longer length than a connection region length to provide a time delay between transmission of the signal and entry of the signal at a sensor zone of the probe .
A method for manufacturing a spar cap of a rotor blade of a wind turbine , the method comprising: forming an outer frame of the spar cap comprising a base, perpendicular extended side walls from the base, and an open end opposite the base via at least one of three-dimensional pultrusion, thermoforming, or 3D printing, the outer frame having a varying cross-section that corresponds to a varying cross-section of the rotor blade along a span thereof; arranging a plurality of structural materials within the outer frame of the spar cap , the plurality of structural materials comprising at least one of thermoplastic or thermoset plies or pultruded members; infusing the plurality of structural materials and the outer frame together via a resin material so as to form the spar cap ; and, allowing the spar cap to cure. forming an outer frame of the spar cap comprising a base, perpendicular extended side walls from the base, and an open end opposite the base via at least one of three-dimensional pultrusion, thermoforming, or 3D printing, the outer frame having a varying cross-section that corresponds to a varying cross-section of the rotor blade along a span thereof; arranging a plurality of structural materials within the outer frame of the spar cap , the plurality of structural materials comprising at least one of thermoplastic or thermoset plies or pultruded members; infusing the plurality of structural materials and the outer frame together via a resin material so as to form the spar cap ; and, allowing the spar cap to cure.
Method for removing dust from the interior of at least one preform made of thermoplastic material by blowing in dusting air, said preform , of main axis (A), having a hollow body that is closed by a bottom and is provided axially on the opposite side with a neck delimiting an opening , characterized in that the dust removing method has at least the steps of: (a) - moving blowing-in means from a high position to a low position in order to introduce the blowing-in means into the interior of the preform without blowing air into the latter, (b) - blowing in pressurized air via the blowing-in means in said low position, in which the free end of said blowing-in means is at a given distance (d) from the bottom of the preform in order to sweep away any dust present inside the preform and, at least at the same time as the blowing in, sucking out at least said air via suction means in order to evacuate said dust; (c) - moving the blowing-in means from the low position to the high position in order to extract said blowing-in means from the preform while maintaining the blowing in of pressurized air and suction until said high position has been reached. (a) - moving blowing-in means from a high position to a low position in order to introduce the blowing-in means into the interior of the preform without blowing air into the latter, (b) - blowing in pressurized air via the blowing-in means in said low position, in which the free end of said blowing-in means is at a given distance (d) from the bottom of the preform in order to sweep away any dust present inside the preform and, at least at the same time as the blowing in, sucking out at least said air via suction means in order to evacuate said dust; (c) - moving the blowing-in means from the low position to the high position in order to extract said blowing-in means from the preform while maintaining the blowing in of pressurized air and suction until said high position has been reached.
A resin-reinforcing filler comprising: plate-like, spherical, or fibrous filler substrates made of glass; and a coating covering at least a portion of a surface of each of the substrates, characterized in that the coating comprises nanofibers which have an average fiber width of 1 nm to 900 nm and comprise cellulose nanofibers. plate-like, spherical, or fibrous filler substrates made of glass; and a coating covering at least a portion of a surface of each of the substrates, characterized in that the coating comprises nanofibers which have an average fiber width of 1 nm to 900 nm and comprise cellulose nanofibers.
Autonomous apparatus for cooking food comprising a support body having an upper edge , an openable lid having a lower edge cooperating at least partly with the upper edge of the support body when the lid is closed, an internal container which can be extracted/inserted with respect to said support body and open at the top, at least a heating device and at least an element for generating a flow of air toward the inside of said container , said at least one air flow generator element being connected to a sending aperture present in said lid , characterized in that said sending aperture has a hollow toroidal shape mating with the shape and the size of said upper edge of the support body , and has, in relation to a portion of its hollow toroidal development, an entrance disposed in cooperation with said heating device , said sending aperture cooperating, when said lid is in the closed position on said container , with a peripheral edge of said container and communicating with the inside of said container , said sending aperture further comprising a circumferential slit for allowing the flow of air circulating in the toroidal hollow sending aperture to be directed toward the inside of said container .
A method for determining the potential of a protein to self-associate, the method comprising: a. combining a protein, a gold nanoparticle, and a buffered salt to form a sample, wherein the buffered salt is a buffer and a salt or a salt that is also a buffer; b. exciting the sample with light; c. measuring the light transmitted through the sample at multiple wavelengths ranging from about 450 nm to about 750 nm; d. calculating the absorbance intensity ratio of the sample, wherein the absorbance intensity ratio is the absorbance intensity at the peak absorbance wavelength (A peak ) of the sample divided by the absorbance intensity at 450 nm (A 450 or A initial ), wherein the protein is stable at high concentration when the absorbance intensity ratio is above 1.7, and wherein the method further comprises repeating steps (a) - (d) at least one more time using a different ionic strength. a. combining a protein, a gold nanoparticle, and a buffered salt to form a sample, wherein the buffered salt is a buffer and a salt or a salt that is also a buffer; b. exciting the sample with light; c. measuring the light transmitted through the sample at multiple wavelengths ranging from about 450 nm to about 750 nm; d. calculating the absorbance intensity ratio of the sample, wherein the absorbance intensity ratio is the absorbance intensity at the peak absorbance wavelength (A peak ) of the sample divided by the absorbance intensity at 450 nm (A 450 or A initial ), wherein the protein is stable at high concentration when the absorbance intensity ratio is above 1.7, and wherein the method further comprises repeating steps (a) - (d) at least one more time using a different ionic strength.
A method for wireless communication, comprising: receiving a transmission in a transmission time interval, TTI; identifying an uplink, UL, acknowledgement, ACK, channel configuration based at least in part on a format of the TTI, characterised in that the UL ACK channel configuration includes a wideband waveform design, an ACK reporting scheme employing multiple symbols per TTI, or both; and sending an ACK message via an UL ACK channel according to the identified UL ACK channel configuration. receiving a transmission in a transmission time interval, TTI; identifying an uplink, UL, acknowledgement, ACK, channel configuration based at least in part on a format of the TTI, characterised in that the UL ACK channel configuration includes a wideband waveform design, an ACK reporting scheme employing multiple symbols per TTI, or both; and sending an ACK message via an UL ACK channel according to the identified UL ACK channel configuration.
An apparatus, comprising: a watchdog timer configured to count a watchdog count interval from an initial time to an expiration time; a memory area configured to store data that indicates the initial time and the expiration time; and a processor programmed to: execute an operating system , detect (304; 504; 606) a current mode of operation for the operating system to operate in a high power-consuming state during a first timeframe and a low power-consuming state during a second timeframe, determine (308; 510; 610) that the expiration time of the watchdog timer is set to occur during the second timeframe when the operating system will operate in the low power-consuming state, and disable (310; 514; 612) the watchdog timer based upon the expiration time being set to occur when the operating system will operate in the low power-consuming state. a watchdog timer configured to count a watchdog count interval from an initial time to an expiration time; a memory area configured to store data that indicates the initial time and the expiration time; and a processor programmed to: execute an operating system , detect (304; 504; 606) a current mode of operation for the operating system to operate in a high power-consuming state during a first timeframe and a low power-consuming state during a second timeframe, determine (308; 510; 610) that the expiration time of the watchdog timer is set to occur during the second timeframe when the operating system will operate in the low power-consuming state, and disable (310; 514; 612) the watchdog timer based upon the expiration time being set to occur when the operating system will operate in the low power-consuming state. execute an operating system , detect (304; 504; 606) a current mode of operation for the operating system to operate in a high power-consuming state during a first timeframe and a low power-consuming state during a second timeframe, determine (308; 510; 610) that the expiration time of the watchdog timer is set to occur during the second timeframe when the operating system will operate in the low power-consuming state, and disable (310; 514; 612) the watchdog timer based upon the expiration time being set to occur when the operating system will operate in the low power-consuming state.
A channel establishment method of a base station , comprising: obtaining (S301) a connection status of an operation and management channel between the base station and an operation support system, OSS, server , wherein the operation and management channel is configured to implement a communication connection between the base station and the OSS server ; broadcasting a dynamic host configuration protocol, DHCP, probe message; establishing the connection of the operation and management channel between the base station and the server based on the channel establishment parameter obtained from a DHCP server when the channel establishment parameter returned by the DHCP server for the DHCP probe message is received; when no response message for the DHCP probe message is received, obtaining (S302) a historical channel establishment parameter stored in the base station when there is a connection exception on the operation and management channel, wherein the historical channel establishment parameter is a channel establishment parameter used by the base station to establish the operation and management channel with the OSS server before a current moment; and establishing (S303) the connection of the operation and management channel between the base station and the OSS server based on the historical channel establishment parameter. obtaining (S301) a connection status of an operation and management channel between the base station and an operation support system, OSS, server , wherein the operation and management channel is configured to implement a communication connection between the base station and the OSS server ; broadcasting a dynamic host configuration protocol, DHCP, probe message; establishing the connection of the operation and management channel between the base station and the server based on the channel establishment parameter obtained from a DHCP server when the channel establishment parameter returned by the DHCP server for the DHCP probe message is received; when no response message for the DHCP probe message is received, obtaining (S302) a historical channel establishment parameter stored in the base station when there is a connection exception on the operation and management channel, wherein the historical channel establishment parameter is a channel establishment parameter used by the base station to establish the operation and management channel with the OSS server before a current moment; and establishing (S303) the connection of the operation and management channel between the base station and the OSS server based on the historical channel establishment parameter.
A method for assembling pipe-in-pipe pipeline elements for transporting fluids, each pipeline element comprising an inner pipe intended to receive the fluids to be transported and comprising at one end a bulge at an outer face, and an outer pipe intended to be positioned around the inner pipe while being coaxial therewith and comprising at one end a recess at an inner face, the method comprising the successive steps: placing the first pipeline element by inserting at a free end thereof a first annular locking wedge axially abutting between the bulge of its inner pipe and a corresponding end of its outer pipe ; butt-assembling the inner pipe of a new pipeline element on the inner pipe of the first pipeline element at the free end thereof; positioning the outer pipe of the new pipeline element alongside the outer pipe of the first pipeline element by sliding it along its inner pipe ; and butt-assembling the outer pipe of the new pipeline element on the outer pipe of the first pipeline element by inserting beforehand a second annular locking wedge axially abutting against the bulge of the inner pipe of the first pipeline element at its free end and the recess of the outer pipe of the new pipeline element at a corresponding end thereof. placing the first pipeline element by inserting at a free end thereof a first annular locking wedge axially abutting between the bulge of its inner pipe and a corresponding end of its outer pipe ; butt-assembling the inner pipe of a new pipeline element on the inner pipe of the first pipeline element at the free end thereof; positioning the outer pipe of the new pipeline element alongside the outer pipe of the first pipeline element by sliding it along its inner pipe ; and butt-assembling the outer pipe of the new pipeline element on the outer pipe of the first pipeline element by inserting beforehand a second annular locking wedge axially abutting against the bulge of the inner pipe of the first pipeline element at its free end and the recess of the outer pipe of the new pipeline element at a corresponding end thereof.
A wheel for a motor vehicle or an aircraft, the wheel comprising a base structure that is at least partially made from a composite material and a heat shield structure , wherein a. the heat shield structure is arranged on the base structure and is at least partially covering the base structure , characterised in that b. the heat shield structure is at least partially embedded in the base structure and c. comprises at least one high thermal conductive layer comprising a mesh. a. the heat shield structure is arranged on the base structure and is at least partially covering the base structure , characterised in that b. the heat shield structure is at least partially embedded in the base structure and c. comprises at least one high thermal conductive layer comprising a mesh.
A display screen , comprising an Organic Light-Emitting Diode, OLED display screen and an optical fingerprint module arranged in the OLED display screen , wherein the OLED display screen comprises a light-emitting layer and a touch screen , the light-emitting layer comprises a first light-emitting region and a second light-emitting region , and the first light-emitting region is arranged at a position corresponding to the optical fingerprint module and configured to, when the region of the touch screen , which corresponds to the first light-emitting region , is not touched, emit light at a first preset brightness value, and when the region of the touch screen , which corresponds to the first light-emitting region , is touched, emit light at a second preset brightness value, the first preset brightness value is smaller than the second preset brightness value, characterized in that two separate circuits are provided to supply power to the first light-emitting region and the second light-emitting region .