mhurhangee/ep-ind-claims huggingface dataset:
A method to prevent internet protocol address spoofing for execution by an Auto Configuration Server being coupled via at least one Load Balancer (LB1, LB2,...) in a broadband network to at least one device (DEV1, CPE1,...) comprising at least one gateway device (CPE1,..), in at least one home network said method comprises remotely managing said device by using the CPE WAN Management Protocol, CWMP, on top of the Hypertext Transfer Protocol, http, said method comprising the steps of receiving from said device a CWMP Inform message and - a step of determining from said message according to the CWMP data model parameter a public IP address (IP-Public) of said gateway device; and - a step of retrieving from a X-Forwarded For field in a http header field at the http level of said Inform message a Forwarded IP address (IP-Forw); and - a step of comparing said public IP address (IP-Public) with said Forwarded IP address (IP-Forw) and deciding based here on whether spoofing is present, wherein said step of retrieving comprises - predetermining a number n of said at least one load balancers (LB1, LB2), according to a network topology in said broadband network, through which the CWMP messages pass in order to reach said Auto Configuration Server; and; - retrieving said Forwarded IP address (IP-Forw) in said X-Forwarded For field by selecting the n'th IPaddress from the right in the X-Forwarded-For field. - a step of determining from said message according to the CWMP data model parameter a public IP address (IP-Public) of said gateway device; and - a step of retrieving from a X-Forwarded For field in a http header field at the http level of said Inform message a Forwarded IP address (IP-Forw); and - a step of comparing said public IP address (IP-Public) with said Forwarded IP address (IP-Forw) and deciding based here on whether spoofing is present, wherein said step of retrieving comprises - predetermining a number n of said at least one load balancers (LB1, LB2), according to a network topology in said broadband network, through which the CWMP messages pass in order to reach said Auto Configuration Server; and; - retrieving said Forwarded IP address (IP-Forw) in said X-Forwarded For field by selecting the n'th IPaddress from the right in the X-Forwarded-For field.
A method by a user equipment, the method comprising: communicating with a base station on a carrier; wherein the method further comprises: receiving an uplink grant from the base station for transmitting a physical uplink shared channel, wherein the uplink grant includes a field indicating at least whether an initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol is reserved for a sounding reference signal in a subframe; performing listen before talk to determine whether the subframe is available for uplink transmission in response to receiving the uplink grant; transmitting a sounding reference signal in the initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol of the subframe if listen before talk indicates that the subframe is available and the uplink grant field indicates that the symbol is reserved for a sounding reference signal in the subframe; and transmitting the physical uplink shared channel in at least a portion of a remaining part of the subframe, wherein the remaining part of the subframe occurs later than the initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol. receiving an uplink grant from the base station for transmitting a physical uplink shared channel, wherein the uplink grant includes a field indicating at least whether an initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol is reserved for a sounding reference signal in a subframe; performing listen before talk to determine whether the subframe is available for uplink transmission in response to receiving the uplink grant; transmitting a sounding reference signal in the initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol of the subframe if listen before talk indicates that the subframe is available and the uplink grant field indicates that the symbol is reserved for a sounding reference signal in the subframe; and transmitting the physical uplink shared channel in at least a portion of a remaining part of the subframe, wherein the remaining part of the subframe occurs later than the initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol.
A press-forming device, comprising: a punch; a die which relatively moves with respect to said punch; a strain amount measuring unit provided inside a member to be controlled, and configured to measure a strain amount of said member to be controlled which occurs in accordance with press-forming, when at least any one of said punch and said die is made said member to be controlled; and a frictional force calculator configured to calculate a frictional force which occurs at a time of sliding of said member to be controlled and said material to be worked based on the strain amount measured by said strain amount measuring unit, characterized in that the press-forming device further comprises a first spring back amount calculator configured to calculate a spring back amount of a formed product shape based on the frictional force calculated by said frictional force calculator. a punch; a die which relatively moves with respect to said punch; a strain amount measuring unit provided inside a member to be controlled, and configured to measure a strain amount of said member to be controlled which occurs in accordance with press-forming, when at least any one of said punch and said die is made said member to be controlled; and a frictional force calculator configured to calculate a frictional force which occurs at a time of sliding of said member to be controlled and said material to be worked based on the strain amount measured by said strain amount measuring unit, characterized in that the press-forming device further comprises a first spring back amount calculator configured to calculate a spring back amount of a formed product shape based on the frictional force calculated by said frictional force calculator.
A method of ensuring that a currently reachable contact address is registered for a user terminal within an IP Multimedia Subsystem, the method comprising: registering a first contact address for said terminal with the IP Multimedia Subsystem; and characterised by subsequently determining at a network based registration function that said terminal is no longer reachable via said first contact address; and as a consequence of such a determination, the network based registration function registering a second reachable contact address on behalf of the user terminal, with the IP Multimedia Subsystem. registering a first contact address for said terminal with the IP Multimedia Subsystem; and characterised by subsequently determining at a network based registration function that said terminal is no longer reachable via said first contact address; and as a consequence of such a determination, the network based registration function registering a second reachable contact address on behalf of the user terminal, with the IP Multimedia Subsystem.
A radio link transmission method comprising transmitting data on a plurality of radio channels (f1, f2), comprising the steps of: at a transmitter side of the radio link - allocating a portion of the capacity of each radio channel of said plurality of radio channels for transmission of identical data (11, 12; 21, 22) on said plurality of radio channels (f1, f2), - allocating the remaining capacity of each radio channel of said plurality of radio channels (f 1, f 2) for transmission of unique data (13, 14; 23-26), which is different for each radio channel of said plurality of radio channels (f 1, f 2), - modulating and transmitting said identical data on each radio channel of said plurality of radio channels (f 1,f 2) means of separate modulators (171, 172), - transmitting said unique data in the respective radio channels of said plurality of radio channels (f 1,f 2), characterized in that at a receiver side of the radio link - receiving and demodulating the identical data of each radio channel using separate demodulators (211, 212), - selecting the best protected traffic by using the quality of the radio channels (f 1, f 2) for the identical data. at a transmitter side of the radio link - allocating a portion of the capacity of each radio channel of said plurality of radio channels for transmission of identical data (11, 12; 21, 22) on said plurality of radio channels (f1, f2), - allocating the remaining capacity of each radio channel of said plurality of radio channels (f 1, f 2) for transmission of unique data (13, 14; 23-26), which is different for each radio channel of said plurality of radio channels (f 1, f 2), - modulating and transmitting said identical data on each radio channel of said plurality of radio channels (f 1,f 2) means of separate modulators (171, 172), - transmitting said unique data in the respective radio channels of said plurality of radio channels (f 1,f 2), - allocating a portion of the capacity of each radio channel of said plurality of radio channels for transmission of identical data (11, 12; 21, 22) on said plurality of radio channels (f1, f2), - allocating the remaining capacity of each radio channel of said plurality of radio channels (f 1, f 2) for transmission of unique data (13, 14; 23-26), which is different for each radio channel of said plurality of radio channels (f 1, f 2), - modulating and transmitting said identical data on each radio channel of said plurality of radio channels (f 1,f 2) means of separate modulators (171, 172), - transmitting said unique data in the respective radio channels of said plurality of radio channels (f 1,f 2), characterized in that at a receiver side of the radio link - receiving and demodulating the identical data of each radio channel using separate demodulators (211, 212), - selecting the best protected traffic by using the quality of the radio channels (f 1, f 2) for the identical data. - receiving and demodulating the identical data of each radio channel using separate demodulators (211, 212), - selecting the best protected traffic by using the quality of the radio channels (f 1, f 2) for the identical data.
A temperature distribution evaluation method for evaluating a temperature distribution in a heating region included in a heating device, the temperature distribution evaluation method comprising: Heating, in the heating region, a semiconductor substrate and a release and reception body the release and reception body transporting a raw material to and from the semiconductor substrate; and evaluating the temperature distribution in the heating region based on a substrate thickness change amount of the semiconductor substrate, wherein the raw material is a sublimation gas generated from the semiconductor substrate or the release and reception body. Heating, in the heating region, a semiconductor substrate and a release and reception body the release and reception body transporting a raw material to and from the semiconductor substrate; and evaluating the temperature distribution in the heating region based on a substrate thickness change amount of the semiconductor substrate,
A method for manufacturing an optical fiber ribbon as a method for manufacturing an intermittent connection-type optical fiber ribbon, the method comprising steps of: intermittently applying an adhesive resin between adjacent optical fibers of a plurality of optical fibers in the middle of a pass line in a longitudinal direction by arranging the plurality of optical fibers in parallel to allow the optical fibers to run on the pass line; and curing the adhesive resin, wherein the step of intermittently applying the adhesive resin is a step of, while rotating an adhesive resin conveying roller (7, 7A), which is formed by alternately laminating a disk-like fiber roller installed in the pass line, a disk-like partition plate having a diameter, which is constant in a circumferential direction, larger than that of the fiber roller and including a gap portion for holding the adhesive resin in a part of the vicinity of a peripheral edge portion in a circumferential direction, immersing the adhesive resin conveying roller (7, 7A) in the adhesive resin, which is not cured, to hold the adhesive resin in the gap portion, and then removing the adhesive resin attached to the peripheral edge portion of the fiber roller and brining the optical fibers into contact with the partition plate such that the partition plate is sandwiched between the optical fibers in running, so as to intermittently apply the adhesive resin held in the gap portion to the optical fibers in the longitudinal direction. intermittently applying an adhesive resin between adjacent optical fibers of a plurality of optical fibers in the middle of a pass line in a longitudinal direction by arranging the plurality of optical fibers in parallel to allow the optical fibers to run on the pass line; and curing the adhesive resin, wherein the step of intermittently applying the adhesive resin is a step of, while rotating an adhesive resin conveying roller (7, 7A), which is formed by alternately laminating a disk-like fiber roller installed in the pass line, a disk-like partition plate having a diameter, which is constant in a circumferential direction, larger than that of the fiber roller and including a gap portion for holding the adhesive resin in a part of the vicinity of a peripheral edge portion in a circumferential direction, immersing the adhesive resin conveying roller (7, 7A) in the adhesive resin, which is not cured, to hold the adhesive resin in the gap portion, and then removing the adhesive resin attached to the peripheral edge portion of the fiber roller and brining the optical fibers into contact with the partition plate such that the partition plate is sandwiched between the optical fibers in running, so as to intermittently apply the adhesive resin held in the gap portion to the optical fibers in the longitudinal direction.
A method of manufacturing a finished uncut spectacle lens, the method including: - obtaining prescription data representing a prescribed optical correction for a wearer of the finished uncut spectacle lens to be manufactured; - providing a semi-finished lens blank with a curved front surface including an optical bowl with a convex curvature; and - machining the semi-finished lens blank to create the finished uncut spectacle lens based on the prescription data, wherein a semi-finished lens blank is used that has a peripheral lentic zone in which the curvature of the curved front surface deviates from the convex curvature of the optical bowl, characterized in that frame data is obtained and the step of providing the semi-finished lens blank includes a step of selecting the semi-finished lens blank the optical bowl of which has dimensions large enough to cover the whole contour of a frame according to the frame data, where the radius of curvature of the front surface in the peripheral lentic zone is an infinite radius, and the concavely curved back surface is also present in the peripheral lentic zone. - obtaining prescription data representing a prescribed optical correction for a wearer of the finished uncut spectacle lens to be manufactured; - providing a semi-finished lens blank with a curved front surface including an optical bowl with a convex curvature; and - machining the semi-finished lens blank to create the finished uncut spectacle lens based on the prescription data, a semi-finished lens blank is used that has a peripheral lentic zone in which the curvature of the curved front surface deviates from the convex curvature of the optical bowl, characterized in that frame data is obtained and the step of providing the semi-finished lens blank includes a step of selecting the semi-finished lens blank the optical bowl of which has dimensions large enough to cover the whole contour of a frame according to the frame data, where the radius of curvature of the front surface in the peripheral lentic zone is an infinite radius, and the concavely curved back surface is also present in the peripheral lentic zone.
A developer supply container detachably mountable to a developer receiving apparatus, said developer receiving apparatus including a developer receiving portion provided with a receiving port for receiving a developer and including a portion-to-be-engaged capable of displacing integrally with said developer receiving portion, said developer supply container comprising: a rotatable developer accommodating portion for accommodating the developer; a discharging portion provided with a discharge opening (3a4) for discharging the developer accommodating in said developer accommodating portion; an engaging portion having one end portion side (3Bb1) fixed to said discharging portion and the other end portion side (3Bb2) which is a free end portion, said engaging portion being deformable to displace the developer receiving portion so as to bring the receiving port into communication with said discharge opening (3a4), with a mounting operation of said developer supply container; and a positioning portion capable of being contacted by the free end portion to position the free end portion when said engaging portion deforms. a rotatable developer accommodating portion for accommodating the developer; a discharging portion provided with a discharge opening (3a4) for discharging the developer accommodating in said developer accommodating portion; an engaging portion having one end portion side (3Bb1) fixed to said discharging portion and the other end portion side (3Bb2) which is a free end portion, said engaging portion being deformable to displace the developer receiving portion so as to bring the receiving port into communication with said discharge opening (3a4), with a mounting operation of said developer supply container; and a positioning portion capable of being contacted by the free end portion to position the free end portion when said engaging portion deforms.
A hanging member intended to display bottles, flasks or any other containers, hung by the neck, on shelves, in particular store shelves, characterized in that it comprises two half-shells with a sufficient size to surround the capsule, stopper or any other closure means of a flask, bottle or any container able to contain a liquid or non-liquid product: a) the first half-shell being sufficient in size to surround half of the capsule, stopper or any other closure means for a flask, bottle or any container able to contain a liquid or non-liquid product, this half-shell being provided with an opening, and b) the second half-shell being identical in size, but symmetrical in shape and provided with an opening. a) the first half-shell being sufficient in size to surround half of the capsule, stopper or any other closure means for a flask, bottle or any container able to contain a liquid or non-liquid product, this half-shell being provided with an opening, and b) the second half-shell being identical in size, but symmetrical in shape and provided with an opening.
An ophthalmic visualization system, comprising: a surgical microscope configured to image the surgical field; a computing device in communication with an OCT system configured to scan a surgical field to generate an OCT image, the computing device configured to determine locations within the surgical field corresponding to locations within the OCT image; and an indicator mechanism (172, 192) in communication with the computing device and the surgical microscope; wherein the indicator mechanism is configured to cause: a location indicator (230, 302, 304, 304, 312, 314, 316), the OCT image, and an OCT image key to be positioned within the field of view of the surgical microscope; the location indicator being positioned within the field of the view of the surgical microscope and being sized, shaped, and positioned to be aligned with the B-scan of the OCT system; the OCT image key being positioned adjacent to the OCT image; wherein the location indicator and the OCT image key include corresponding rulers to graphically represent locations within the surgical field corresponding to the locations within the OCT image, characterised in that each of the rulers include scale bars (226, 236) and corresponding numerals (224, 234) such that the scale bars and the numerals of the OCT image key establishes a point-to-point correspondence with the scale bars and numerals of the location indicator. a computing device in communication with an OCT system configured to scan a surgical field to generate an OCT image, the computing device configured to determine locations within the surgical field corresponding to locations within the OCT image; and an indicator mechanism (172, 192) in communication with the computing device and the surgical microscope; wherein the indicator mechanism is configured to cause: a location indicator (230, 302, 304, 304, 312, 314, 316), the OCT image, and an OCT image key a location indicator (230, 302, 304, 304, 312, 314, 316), the OCT image, and an OCT image key to be positioned within the field of view of the surgical microscope; the location indicator being positioned within the field of the view of the surgical microscope and being sized, shaped, and positioned to be aligned with the B-scan of the OCT system; the OCT image key being positioned adjacent to the OCT image; wherein the location indicator and the OCT image key include corresponding rulers to graphically represent locations within the surgical field corresponding to the locations within the OCT image, characterised in that the OCT image key being positioned adjacent to the OCT image; wherein the location indicator and the OCT image key include corresponding rulers to graphically represent locations within the surgical field corresponding to the locations within the OCT image, characterised in that each of the rulers include scale bars (226, 236) and corresponding numerals (224, 234) such that the scale bars and the numerals of the OCT image key establishes a point-to-point correspondence with the scale bars and numerals of the location indicator.
A polyamide resin composition comprising 0.01 to 10 parts by mass of cellulose fiber having an average fiber diameter of 500 nm or less in relation to 100 parts by mass of a polyamide resin, wherein the polyamide resin is nylon 6 or nylon 66, wherein the heat deformation temperature of said polyamide resin composition under the load of 1.8 MPa is 65°C or higher, when determined on the basis of ASTM D648, and the linear expansion coefficient, derived as the average value in the range from 20 to 150°C, of said resin composition in the MD direction is 80 × 10 -6 (1/°C) or less, when determined on the basis of JIS K7197.