mhurhangee/ep-ind-claims huggingface dataset:
A resource configuration method, comprising: receiving a group establishment request, wherein the group establishment request carries a group identifier of a group to be established; acquiring, according to the group identifier of the group to be established, a base station list of the group to be established and a tracking area list of the group to be established; wherein the base station list of the group to be established comprises a base station in which a registered subscription user equipment of the group to be established locates at present, the tracking area list of the group to be established comprises a tracking area, under the base station, in which the registered subscription user equipment of the group to be established locates at present; if the base station list of the group to be established is not empty, configuring, according to the base station list of the group to be established and the tracking area list of the group to be established, a resource for the group to be established. receiving a group establishment request, wherein the group establishment request carries a group identifier of a group to be established; acquiring, according to the group identifier of the group to be established, a base station list of the group to be established and a tracking area list of the group to be established; wherein the base station list of the group to be established comprises a base station in which a registered subscription user equipment of the group to be established locates at present, the tracking area list of the group to be established comprises a tracking area, under the base station, in which the registered subscription user equipment of the group to be established locates at present; if the base station list of the group to be established is not empty, configuring, according to the base station list of the group to be established and the tracking area list of the group to be established, a resource for the group to be established.
A surgical apparatus for vaginal sacral colpoplexy or rectopexy, comprising: a first retractor; a second retractor; a dissection shaft defining a central channel extending from a first end portion of the shaft to a second end portion of the shaft, wherein the first retractor and the second retractor each has a ridge along its inner surface, which is adapted to slide in a corresponding groove on anterior and posterior curved surfaces of the dissection shaft, enabling the retractors (11, 12) and the dissecting shaft to be insertable as one piece without separation and the dissection shaft to be withdrawable from the retractors (11, 12), leaving the retractors (11, 12) in place for being movable in opposite directions from one another. a first retractor; a second retractor; a dissection shaft defining a central channel extending from a first end portion of the shaft to a second end portion of the shaft, wherein the first retractor and the second retractor each has a ridge along its inner surface, which is adapted to slide in a corresponding groove on anterior and posterior curved surfaces of the dissection shaft, enabling the retractors (11, 12) and the dissecting shaft to be insertable as one piece without separation and the dissection shaft to be withdrawable from the retractors (11, 12), leaving the retractors (11, 12) in place for being movable in opposite directions from one another.
Method for obtaining one or more air products, in which an air separation plant comprising a rectification column system is used, in which plant compressed air is processed in an adjustable total air quantity, wherein the total air quantity is adjusted to a first value during a first operating period and adjusted to a second value which is different from the first value during a second operating period, wherein the adjustment of the total air quantity is changed from the first value to the second value in a third operating period from a first time and up to a second time, and wherein the second operating period is after the first operating period, and the third operating period is between the first operating period and the second operating period, wherein, in the third operating period, an adjustment of a quantity of a liquid which is formed by rectification using the compressed air and transported into or out of the rectification column system is changed from a third time and up to a fourth time, wherein the third time is before or after the first time and before the second time, and the fourth time is after the first time and the third time and before or after the second time, a period between the first time and the second time is adjusted such that it differs by no more than 20% from a period between the third time and the fourth time, wherein the period between the first time and the second time is adjusted by changing the first time and/or the second time, a period between the first time and the third time is adjusted depending on the adjustment of the period between the first time and the second time by changing the third time, and the third time is after the first time, and the fourth time is after the second time, wherein the period between the first time and the third time is extended if the period between the first time and the second time is shortened.
A process for preparing a dry dairy composition, the process comprising: (i) adding from 10 to 5,000 ppm of polyphenols to a dairy product by combining a green tea extract with the dairy product to form a fluid dairy composition; (ii) removing at least a portion of water from the fluid dairy composition to form a concentrated dairy composition; and (iii) drying the concentrated dairy composition to form the dry dairy composition, wherein the dry dairy composition comprises: from 35 to 90 wt. % protein; from 10 to 35 wt. % carbohydrates; less than or equal to 1.5 wt. % lactose; and from 100 to 10,000 ppm polyphenols. (i) adding from 10 to 5,000 ppm of polyphenols to a dairy product by combining a green tea extract with the dairy product to form a fluid dairy composition; (ii) removing at least a portion of water from the fluid dairy composition to form a concentrated dairy composition; and (iii) drying the concentrated dairy composition to form the dry dairy composition, wherein the dry dairy composition comprises: from 35 to 90 wt. % protein; from 10 to 35 wt. % carbohydrates; less than or equal to 1.5 wt. % lactose; and from 100 to 10,000 ppm polyphenols. from 35 to 90 wt. % protein; from 10 to 35 wt. % carbohydrates; less than or equal to 1.5 wt. % lactose; and from 100 to 10,000 ppm polyphenols.
A computer-implemented method comprising, by one or more processors: acquiring a dot pattern having a distribution of dots; deriving, from the dot pattern, a greyscale image comprising a plurality of pixels each associated with a greyscale value, wherein deriving the greyscale image comprises: for each pixel, determining the closest dot to the pixel and associating a distance of the closest dot from the pixel with the pixel; and assigning a greyscale value to each pixel, wherein the greyscale value is based on the distance associated with that pixel. acquiring a dot pattern having a distribution of dots; deriving, from the dot pattern, a greyscale image comprising a plurality of pixels each associated with a greyscale value, wherein deriving the greyscale image comprises: for each pixel, determining the closest dot to the pixel and associating a distance of the closest dot from the pixel with the pixel; and assigning a greyscale value to each pixel, wherein the greyscale value is based on the distance associated with that pixel. for each pixel, determining the closest dot to the pixel and associating a distance of the closest dot from the pixel with the pixel; and assigning a greyscale value to each pixel, wherein the greyscale value is based on the distance associated with that pixel.
A method for the conversion of the substrate specificity of a Δ5 and/or Δ6 front-end desaturase to the substrate specificity of a Δ4 front-end desaturase, the method comprising: a) identifying regions and/or amino acid residues which control the substrate specificity of (i) the Δ5 and/or Δ6 front-end desaturase and (ii) the Δ4 front-end desaturase, wherein the regions and/or amino acid residues which control the substrate specificity of the Δ4, Δ5 and/or Δ6 front-end desaturase are localized within the third transmembrane domain; and b) replacing in the amino acid sequence of the Δ5 and/or Δ6 front-end desaturase referred to in step a), the regions and/or amino acid residues which control the substrate specificity of the Δ5 and/or Δ6 front-end desaturase, by the corresponding regions and/or amino acid residues which control the substrate specificity of the Δ4 front-end desaturase, thereby converting the substrate specificity of the Δ5 and/or Δ6 front-end desaturase to the substrate specificity of the Δ4 front-end desaturase. a) identifying regions and/or amino acid residues which control the substrate specificity of (i) the Δ5 and/or Δ6 front-end desaturase and (ii) the Δ4 front-end desaturase, wherein the regions and/or amino acid residues which control the substrate specificity of the Δ4, Δ5 and/or Δ6 front-end desaturase are localized within the third transmembrane domain; and b) replacing in the amino acid sequence of the Δ5 and/or Δ6 front-end desaturase referred to in step a), the regions and/or amino acid residues which control the substrate specificity of the Δ5 and/or Δ6 front-end desaturase, by the corresponding regions and/or amino acid residues which control the substrate specificity of the Δ4 front-end desaturase, thereby converting the substrate specificity of the Δ5 and/or Δ6 front-end desaturase to the substrate specificity of the Δ4 front-end desaturase.
A method for testing the strength of masts which are anchored at the ground, with which the mast is deflected above its anchoring location, in a transverse direction to its longitudinal axis at a constant speed, and the force is thereby registered in dependence on time and is used for evaluating the strength of the mast, characterised in that the mast is deflected back in the counter direction at a constant speed when being unloaded and the force is thereby registered in dependence on time, wherein a comparison of the loading forces with the unloading forces in each case in dependence on time is used for evaluating the strength of the mast.
A recognition method performed by a recognition module, comprising the steps of: the recognition module attempting, in a first stage, to identify at least one of a plurality of identity information of a client device when the client device seeks to join a network via the recognition module; the recognition module extracting the rest of the plurality of identity information in a second stage when any of the plurality of identity information has not been obtained in the first stage, wherein the step of extracting the rest of the plurality of identity information in the second stage comprises redirecting the client device to an identification web page to retrieve the rest of the plurality of identity information when the recognition module detects a signal directed to a destination from the client device; and the recognition module determining specifications of the client device according to one of the plurality of identity information with a second database or through the Internet. the recognition module attempting, in a first stage, to identify at least one of a plurality of identity information of a client device when the client device seeks to join a network via the recognition module; the recognition module extracting the rest of the plurality of identity information in a second stage when any of the plurality of identity information has not been obtained in the first stage, wherein the step of extracting the rest of the plurality of identity information in the second stage comprises redirecting the client device to an identification web page to retrieve the rest of the plurality of identity information when the recognition module detects a signal directed to a destination from the client device; and the recognition module determining specifications of the client device according to one of the plurality of identity information with a second database or through the Internet.
A boundary layer control system for an aircraft, comprising: - an outflow opening (20, 60) arrangeable in a skin section (18, 55) of the aircraft, which outflow opening (20, 60) provides a suction force when air flows along the skin section (18, 55), - at least one duct (14, 16) couplable with the outflow opening (20, 60) and coupled to a boundary layer control component having perforations, - a pressurized air source, and - an air control device, wherein the air control device is configured to selectively couple the at least one duct (14, 16) with one of: - the pressurized air source for purging the perforations of the boundary layer control component and - the outflow opening (20,60) for inducing a suction of air through the perforations into the boundary layer control component, characterized in that the pressurized air source is a pressurized air line, which is connectable to a bleed air port of the aircraft. - an outflow opening (20, 60) arrangeable in a skin section (18, 55) of the aircraft, which outflow opening (20, 60) provides a suction force when air flows along the skin section (18, 55), - at least one duct (14, 16) couplable with the outflow opening (20, 60) and coupled to a boundary layer control component having perforations, - a pressurized air source, and - an air control device, - the pressurized air source for purging the perforations of the boundary layer control component and - the outflow opening (20,60) for inducing a suction of air through the perforations into the boundary layer control component, characterized in that the pressurized air source is a pressurized air line, which is connectable to a bleed air port of the aircraft.
An optical switch (300, 400, 500, 600, 700, 800, 900) for routing an optical transmission signal according to an optical control signal, the switch comprising: one or more optical control ports (331, 332, 431, 432, 521, 522, 621, 622, 731, 732, 733, 734, 830, 921, 922); three or more optical transmission ports (321, 322, 325, 421, 422, 425, 521, 522, 525, 621, 622, 625, 721, 722, 723, 724, 725, 820, 826, 827, 828, 921, 922, 925); and a light director (313, 413, 510, 610, 703, 713, 793, 813, 913); the switch characterised by further comprising a thermally driven light mill; wherein the light mill and the light director are arranged with respect to each other, to the one or more control ports and to the three or more transmission ports such that: illumination of a respective one of the one or more control ports by a control beam carrying the control signal drives the light mill to rotate towards a respective position in which the light director is arranged so as to direct a transmission beam carrying the transmission signal, entering the switch via a respective one (321, 322, 421, 422, 521, 522, 621, 622, 721, 722, 723, 724, 820, 921, 922) of the transmission ports, to exit the switch via a respective other (325, 425, 525, 625, 725, 826, 827, 828, 925) of the transmission ports. one or more optical control ports (331, 332, 431, 432, 521, 522, 621, 622, 731, 732, 733, 734, 830, 921, 922); three or more optical transmission ports (321, 322, 325, 421, 422, 425, 521, 522, 525, 621, 622, 625, 721, 722, 723, 724, 725, 820, 826, 827, 828, 921, 922, 925); and a light director (313, 413, 510, 610, 703, 713, 793, 813, 913); the switch characterised by further comprising a thermally driven light mill;
A handle substrate of a composite substrate for a semiconductor: said handle substrate comprising polycrystalline alumina; wherein said handle substrate comprises an outer peripheral edge part with an average grain size of 20 to 55 μm; wherein said handle substrate comprises a central part with an average grain size of 10 to 50 μm; and wherein said average grain size of said outer peripheral edge part of said handle substrate is 1.1 times or more and 3.0 times or less of said average grain size of said central part of said handle substrate.
A composite dome and nozzle structure of a rocket motor comprising: a first layer of a first reinforcement material comprising graphite fibers adapted to provide structural support; a second layer of a second reinforcement material comprising glass or quartz fibers to provide thermal insulation on a first side of the first layer; a third layer of third reinforcement material comprising glass or quartz fibers to provide thermal insulation on a second side of the first layer; and a common matrix material surrounding said first, second and third reinforcement materials to form a single integral composite structure, wherein the first, second and third layers and the common matrix material are shaped to form an integrated rocket motor dome and nozzle structure. a first layer of a first reinforcement material comprising graphite fibers adapted to provide structural support; a second layer of a second reinforcement material comprising glass or quartz fibers to provide thermal insulation on a first side of the first layer; a third layer of third reinforcement material comprising glass or quartz fibers to provide thermal insulation on a second side of the first layer; and a common matrix material surrounding said first, second and third reinforcement materials to form a single integral composite structure, wherein the first, second and third layers and the common matrix material are shaped to form an integrated rocket motor dome and nozzle structure.
A circuit for providing backup power to one or more loads when a power source is unavailable, the circuit comprising: a boost supply for boosting an input voltage; a capacitor for storing energy based upon voltage provided from the boost supply; and a buck supply for reducing voltage received from the capacitor to supply a reduced backup voltage from the buck circuit when power from the power source is unavailable; said circuit further comprising: a first diode for connecting the input voltage to the one or more loads when the power source is available; and a second diode for connecting the reduced backup voltage to the one or more loads when the power source is unavailable. a boost supply for boosting an input voltage; a capacitor for storing energy based upon voltage provided from the boost supply; and a buck supply for reducing voltage received from the capacitor to supply a reduced backup voltage from the buck circuit when power from the power source is unavailable; said circuit further comprising: a first diode for connecting the input voltage to the one or more loads when the power source is available; and a second diode for connecting the reduced backup voltage to the one or more loads when the power source is unavailable.
A control method of a laundry treatment apparatus including: a cabinet including a laundry opening into which laundry having mass is introduced; a drum rotatably placed within the cabinet to store the laundry therein, the drum including a drum opening communicating with the laundry opening; and a balancing unit to attenuate unbalance of the drum caused by nonuniform mass distribution of the laundry by locally increasing load of the drum via supply of liquid to the balancing unit, wherein the balancing unit includes: a feeder for supplying liquid; at least three balancers for being mounted on a drum of said apparatus, being configured to store liquid supplied from the feeder, wherein the balancers are disposed to be spaced apart from one another by a same angle along the circumference of the drum; a flow path structure for being mounted on a side surface of the drum to guide the liquid supplied from the feeder to said balancers, wherein each of the balancers includes: a receptacle (551, 552) mounted to an inner circumferential surface of the drum; and a guide plate for guiding liquid introduced into the receptacle (551, 552), being configured to divide an interior of the receptacle (551, 552) into an upper space facing the rotational center of the drum and a lower space facing the circumferential surface of the drum, such that the liquid moves from a center of the receptacle (551, 552) to an edge thereof, the method comprising: (i) determining a drum region where the unbalance inducing laundry is located by measuring frequency of rotation of the drum; (ii) determining whether or not the unbalance inducing laundry has passed a position where the feeder is located; (iii) if the unbalance inducing laundry has passed the feeder, determining whether or not the drum has rotated by a predetermined standby angle thereafter; and (iv) if the drum reaches the standby angle, supplying liquid from the feeder until the drum is rotated by a predetermined supply angle. (i) determining a drum region where the unbalance inducing laundry is located by measuring frequency of rotation of the drum; (ii) determining whether or not the unbalance inducing laundry has passed a position where the feeder is located; (iii) if the unbalance inducing laundry has passed the feeder, determining whether or not the drum has rotated by a predetermined standby angle thereafter; and (iv) if the drum reaches the standby angle, supplying liquid from the feeder until the drum is rotated by a predetermined supply angle.
An abnormality detection device characterized by: a storage unit configured to, when abnormality of an in-vehicle device is detected, store abnormality information of the abnormality; a transmission unit configured to transmit the abnormality information to a server; an in-vehicle information terminal configured to provide driving support information to an occupant, detect whether an operation input through an operation section is a predetermined operation inputting read-out operation information and, when detecting the predetermined operation, read out the abnormality information stored in the storage unit; a transmission prevention unit configured to, when the read-out operation information is input through the operation section, prevent transmission of the abnormality information to the server; and a prevention cancel unit configured to cancel the prevention of the transmission of the abnormality information when a vehicle comprising the abnormality detection device has run a predetermined running distance from a running distance when the transmission of the abnormality information is prevented by the transmission prevention unit. a storage unit configured to, when abnormality of an in-vehicle device is detected, store abnormality information of the abnormality; a transmission unit configured to transmit the abnormality information to a server; an in-vehicle information terminal configured to provide driving support information to an occupant, detect whether an operation input through an operation section is a predetermined operation inputting read-out operation information and, when detecting the predetermined operation, read out the abnormality information stored in the storage unit; a transmission prevention unit configured to, when the read-out operation information is input through the operation section, prevent transmission of the abnormality information to the server; and a prevention cancel unit configured to cancel the prevention of the transmission of the abnormality information when a vehicle comprising the abnormality detection device has run a predetermined running distance from a running distance when the transmission of the abnormality information is prevented by the transmission prevention unit.