mhurhangee/ep-ind-claims huggingface dataset:
A method of routing an IP Multimedia Subsystem, IMS, connection request sent by a user of a third party service, User A, towards a peer third party service user, User B, where the originating identity and target identity fields contain respectively external third party identities of User A and User B, the method comprising: receiving said request at an IMS Access Gateway to an IMS network; extracting said external identities and using them to determine whether or not service logic is to be executed in the IMS network for both User A and User B and, if not, for determining an IMS Edge Node routable identity associated with User B; and using the IMS Edge Node routable identity to forward the IMS connection request to a terminating side IMS Edge Node. receiving said request at an IMS Access Gateway to an IMS network; extracting said external identities and using them to determine whether or not service logic is to be executed in the IMS network for both User A and User B and, if not, for determining an IMS Edge Node routable identity associated with User B; and using the IMS Edge Node routable identity to forward the IMS connection request to a terminating side IMS Edge Node.
A quantum dot, QD, light modulator comprising: a QD-containing layer comprising a plurality of QDs having light-emission characteristics; a refractive index change layer arranged adjacent to the QD-containing layer; and a reflector arranged facing the QD-containing layer, wherein the QD light modulator is configured to modulate light-emission characteristics of the QD-containing layer according to a change in properties of the refractive index change layer and characterised in that the plurality of QDs are configured to be excitable by a wavelength λ of light, and wherein the refractive index change layer has a thickness corresponding to an integer multiple of A/4. a QD-containing layer comprising a plurality of QDs having light-emission characteristics; a refractive index change layer arranged adjacent to the QD-containing layer; and a reflector arranged facing the QD-containing layer, wherein the QD light modulator is configured to modulate light-emission characteristics of the QD-containing layer according to a change in properties of the refractive index change layer and characterised in that the plurality of QDs are configured to be excitable by a wavelength λ of light, and wherein the refractive index change layer has a thickness corresponding to an integer multiple of A/4.
An indication device comprising at least one electrically conductive liquid (106, 110, 114, 1206, 1214, 1316), a rigid chamber (116, 202, 1202), and a pump, said at least one electrically conductive liquid being enclosed in said rigid chamber, wherein at least one segment of at least one liquid (106, 110, 114, 1206, 1214, 1316) is an indicator, which segment the pump drives along an adjacent set of indices (602, 604, 606, 610) of an indicator visible to an observer so as to indicate a quantity, characterized in that said pump is a magneto-hydrodynamic pump for conductive liquids (106, 110, 114, 1206, 1214, 1316).
Arrangement of a vehicle body, particularly a motor vehicle, comprising a device for attaching at least one conduit (2, 3) to the body, the conduit allowing energy storage, the body comprising an opening in which the attaching device is arranged, characterized in that the attaching device comprises a support and a supporting inner reinforcement, the support being arranged in an opening in a lateral side of the body, the reinforcement being arranged in an opening in the support, characterized in that the support comprises a peripheral edge with a substantially rectangular profile with four corners from which extends a boss protruding transversely out from a pressing defining a bottom wall in which the opening in the support is made.
Polycrystalline diamond, comprising: carbon, the polycrystalline diamond having a concentration of each of hydrogen, oxygen, nitrogen, silicon, and boron not higher than 0.01 mass % and a crystal grain size not greater than 500 nm, having Knoop hardness not lower than 150 GPa, and fabricated by sintering graphite having a concentration of impurities of 0.01 mass% or less obtained by thermal decomposition of hydrocarbon having purity not lower than 99.99%, at a temperature not lower than 1500°C, wherein said graphite is sintered at a temperature of from 1200 °C to 2500 °C under a pressure of from 7 GPa to 25 GPa, without adding a sintering aid or a catalyst. carbon, the polycrystalline diamond having a concentration of each of hydrogen, oxygen, nitrogen, silicon, and boron not higher than 0.01 mass % and a crystal grain size not greater than 500 nm, having Knoop hardness not lower than 150 GPa, and fabricated by sintering graphite having a concentration of impurities of 0.01 mass% or less obtained by thermal decomposition of hydrocarbon having purity not lower than 99.99%, at a temperature not lower than 1500°C, wherein said graphite is sintered at a temperature of from 1200 °C to 2500 °C under a pressure of from 7 GPa to 25 GPa, without adding a sintering aid or a catalyst.
Device for adjusting a seat position of a vehicle seat, wherein the device comprises at least one support element for a seat part and is connectable to a seat substructure, characterised in that the device comprises at least one first leg and at least one second leg, the legs (6, 7) being rotatably arrangeable on the seat substructure and the at least one support element, wherein a first angle α between the first leg and the support element can be adjusted by an angle adjustment device, wherein the at least one first leg and the at least one second leg are mechanically coupled, wherein a change in the angle α causes the at least one support element to be displaced along a height axis Z and along a longitudinal axis X, wherein the angle adjustment device comprises a locking device, which locks an adjusted angle α, wherein the angle adjustment device comprises a drive, by means of which the locking device is driven in order to change the angle α, wherein the drive is connected to a primary shaft extending in a width direction in a form-fitting manner, wherein the primary shaft comprises a spur gear on both sides, wherein the spur gears each transmit the force to a further spur gear, which are connected to a respective locking device in a form-fitting manner by means of secondary axles.
A dynamic support system for an article of footwear (100, 1400, 1600, 1700, 1800, 1900, 1950, 2000, 2100, 2110) comprising: at least one first sensor (621-625, 721-729, 905, 907, 910) located in a first article of footwear; at least one second sensor (821-827, 906, 908, 909) located in an article configured to be worn by a wearer of the first article of footwear, wherein the article worn by the wearer is different than the first article of footwear; characterized by a microprocessor (630, 730, 830, 831, 903, 904) in the first article of footwear in communication with the at least one first sensor located in the first article of footwear and with the at least one second sensor located in the article configured to be worn by the wearer of the article of footwear; wherein the microprocessor receives a first input from the at least one first sensor located in the first article of footwear and a second input from the at least one second sensor located in the article worn by the wearer of the first article of footwear over a personal-area network and responds to at least one of the first input and the second input by determining whether to activate a motor (274, 277, 377, 474) to compress an array (150, 200, 300, 400, 550, 2010, 2101, 2111, 2250) of tiles in a fabric portion of the first article of footwear; wherein the array of tiles comprises columns and rows of tiles and wherein at least two cables are laced diagonally through the tiles and mechanically connected to a reel (273, 276, 376, 473, 573) attached to the motor, the motor being configured to rotate the reel and compress the array of tiles upon activation by the microprocessor. at least one first sensor (621-625, 721-729, 905, 907, 910) located in a first article of footwear; at least one second sensor (821-827, 906, 908, 909) located in an article configured to be worn by a wearer of the first article of footwear, wherein the article worn by the wearer is different than the first article of footwear; characterized by a microprocessor (630, 730, 830, 831, 903, 904) in the first article of footwear in communication with the at least one first sensor located in the first article of footwear and with the at least one second sensor located in the article configured to be worn by the wearer of the article of footwear; wherein the microprocessor receives a first input from the at least one first sensor located in the first article of footwear and a second input from the at least one second sensor located in the article worn by the wearer of the first article of footwear over a personal-area network and responds to at least one of the first input and the second input by determining whether to activate a motor (274, 277, 377, 474) to compress an array (150, 200, 300, 400, 550, 2010, 2101, 2111, 2250) of tiles in a fabric portion of the first article of footwear; wherein the array of tiles comprises columns and rows of tiles and wherein at least two cables are laced diagonally through the tiles and mechanically connected to a reel (273, 276, 376, 473, 573) attached to the motor, the motor being configured to rotate the reel and compress the array of tiles upon activation by the microprocessor.
An electronic apparatus comprising: a communicator; an image capturer configured to acquire a capture image of a display apparatus comprising a screen; and a processor configured to: identify a screen area of the screen, within the capture image; sample a plurality of patch images (91, 92), each of which having a predetermined unit size, from a background area outside the screen area within the capture image; generate a screen image to be displayed on the screen by arranging the sampled patch images (91, 92) in the identified screen area; and control the communicator to transmit the screen image to the display apparatus. a communicator; an image capturer configured to acquire a capture image of a display apparatus comprising a screen; and a processor configured to: identify a screen area of the screen, within the capture image; sample a plurality of patch images (91, 92), each of which having a predetermined unit size, from a background area outside the screen area within the capture image; generate a screen image to be displayed on the screen by arranging the sampled patch images (91, 92) in the identified screen area; and control the communicator to transmit the screen image to the display apparatus. identify a screen area of the screen, within the capture image; sample a plurality of patch images (91, 92), each of which having a predetermined unit size, from a background area outside the screen area within the capture image; generate a screen image to be displayed on the screen by arranging the sampled patch images (91, 92) in the identified screen area; and control the communicator to transmit the screen image to the display apparatus.
A communication method of a user equipment, UE, the communication method comprising: receiving, from an evolved NodeB, eNB, information indicating whether a blind detection can be performed at least in a physical resource block, PRB,-pair unit; receiving, from the eNB, resource allocation information on resource allocation granularity for a neighbor cell associated with an interference signal; determining PRB pairs to be applied a same precoding based on the resource allocation granularity for the neighbor cell, in case that the blind detection can be performed in the PRB-pair unit; performing an interference cancellation for the interference signal based on the determined PRB pairs; and decoding reception data based on a log likelihood ratio, LLR, which is determined based on the interference cancellation and a modulation scheme of interference, wherein the resource allocation granularity is provided by a higher layer parameter N, wherein the higher layer parameter N is one of 1, 2, 3 and 4, and wherein the determined PRB pairs are consecutive N PRB pairs. receiving, from an evolved NodeB, eNB, information indicating whether a blind detection can be performed at least in a physical resource block, PRB,-pair unit; receiving, from the eNB, resource allocation information on resource allocation granularity for a neighbor cell associated with an interference signal; determining PRB pairs to be applied a same precoding based on the resource allocation granularity for the neighbor cell, in case that the blind detection can be performed in the PRB-pair unit; performing an interference cancellation for the interference signal based on the determined PRB pairs; and decoding reception data based on a log likelihood ratio, LLR, which is determined based on the interference cancellation and a modulation scheme of interference, wherein the resource allocation granularity is provided by a higher layer parameter N, wherein the higher layer parameter N is one of 1, 2, 3 and 4, and wherein the determined PRB pairs are consecutive N PRB pairs.
A method for producing a blank for a light wave conductor with a predetermined numerical aperture including a jacket portion and a blank core with a polygonal cross section, the method comprising the steps: - determining an effective dopant concentration of the jacket portion for the light conductor to be produced from the predetermined numerical aperture, - adjusting a nominal dopant concentration when producing the jacket portion wherein the nominal dopant concentration is computed from an effective dopant concentration as a function of geometric parameters describing a fiber configuration of the light wave conductor, in particular a predetermined core geometry of the light wave conductor and/or mechanical parameters of the fiber configuration of the light wave conductor to be produced, - producing the blank core with the predetermined geometry of the core cross section of the blank, - surrounding the blank core with a jacket portion of the blank with the nominal dopant concentration, characterized in that the effective dopant concentration c eff and the nominal dopant concentration c nom and the scaling factor F relate to each other as follows: c eff x F ≤ c nom wherein the scaling factor F is computed from the parameters V, C, S and N as follows F = V × 1 + C − 1 × N × 1 + S − 1 × N wherein V is a parameter for rounding of the corners, C is a parameter for an influence of a coating of the light wave conductor, N is a number of edges of the core and S defines an influence of a barrier layer. - determining an effective dopant concentration of the jacket portion for the light conductor to be produced from the predetermined numerical aperture, - adjusting a nominal dopant concentration when producing the jacket portion wherein the nominal dopant concentration is computed from an effective dopant concentration as a function of geometric parameters describing a fiber configuration of the light wave conductor, in particular a predetermined core geometry of the light wave conductor and/or mechanical parameters of the fiber configuration of the light wave conductor to be produced, - producing the blank core with the predetermined geometry of the core cross section of the blank, - surrounding the blank core with a jacket portion of the blank with the nominal dopant concentration, characterized in that
A vehicle comprising a physical storage area (102, 102A, 102B, 130, 302, 304, 306, 502) and a computer-implemented system for monitoring loading status of the physical storage area, the computer-implemented system comprising: a camera system comprising one or more camera (106, 106A, 106B) wherein each camera is configured to capture video or images, or both video and images, of the storage area; and one or more processing module (114, 120) in communication with the camera system, the one or more processing module comprising one or more processor and the processing module configured to: receive image or video data from the one or more camera of the camera system; determine unoccupied volume of the storage area based on the received image or video data; and use the determined unoccupied volume of the storage area to provide output data that can be displayed to indicate loading status of the storage area; wherein the processing module is configured to determine the unoccupied volume by: identifying, labeling, and categorizing objects stored in the storage area; calculating a volume of each object in the storage area; and calculating the unoccupied volume in the storage area. a camera system comprising one or more camera (106, 106A, 106B) wherein each camera is configured to capture video or images, or both video and images, of the storage area; and one or more processing module (114, 120) in communication with the camera system, the one or more processing module comprising one or more processor and the processing module configured to: receive image or video data from the one or more camera of the camera system; determine unoccupied volume of the storage area based on the received image or video data; and use the determined unoccupied volume of the storage area to provide output data that can be displayed to indicate loading status of the storage area; receive image or video data from the one or more camera of the camera system; determine unoccupied volume of the storage area based on the received image or video data; and use the determined unoccupied volume of the storage area to provide output data that can be displayed to indicate loading status of the storage area; wherein the processing module is configured to determine the unoccupied volume by: identifying, labeling, and categorizing objects stored in the storage area; calculating a volume of each object in the storage area; and calculating the unoccupied volume in the storage area. identifying, labeling, and categorizing objects stored in the storage area; calculating a volume of each object in the storage area; and calculating the unoccupied volume in the storage area.
A device for delivering a cosmetic active agent to a dermal or mucosal surface comprising: a) a first portion configured to define a delivery surface for presentation to a dermal or mucosal surface to deliver the cosmetic active agent; and b) a second portion configured as a body to be held by a user further comprising a means for driving the passage of the cosmetic active agent into the dermal or mucosal surface characterised in that: the first portion and the second portion are adapted to be releasably interconnected and the means for driving the passage of the cosmetic active agent into the dermal or mucosal surface is housed wholly in the second portion and comprises an electromagnetophoresis dermaportation device located immediately adjacent the point of interconnection to the first portion. a) a first portion configured to define a delivery surface for presentation to a dermal or mucosal surface to deliver the cosmetic active agent; and b) a second portion configured as a body to be held by a user further comprising a means for driving the passage of the cosmetic active agent into the dermal or mucosal surface
A pipe joint, comprising: a pressing ring fitted over a pipe to be joined; a pipe or a pipe joint body which has a containing section expanded in diameter toward the pressing ring and into which the pipe to be joined is inserted through the containing section; a tightening element capable of operating and moving the pressing ring toward the pipe or the pipe joint body; and a packing ring compressed by being pressed by the pressing ring that is moved by the operation of the tightening element, wherein the packing ring includes a base section fitted and mounted in the containing section at a rear thereof, a seal section contained within the containing section at a front thereof, and a connection section which connects the base section and the seal section and has a cutout groove formed on an outer peripheral side thereof, when the packing ring positioned by fitting and mounting the base section in the containing section at the rear thereof is subjected to pressing by the pressing ring, the seal section is bent into the cutout groove and is deformed, and compression caused by the deformation creates a sealed state, wherein a piece ring is formed in an L-shaped cross section having a flanged section which projects toward the packing ring is interposed between the pressing ring and the packing ring, characterized in that the flanged section is pressed onto an outer peripheral side of the seal section from a pipe axis direction. a pressing ring fitted over a pipe to be joined; a pipe or a pipe joint body which has a containing section expanded in diameter toward the pressing ring and into which the pipe to be joined is inserted through the containing section; a pipe or a pipe joint body which has a containing section expanded in diameter toward the pressing ring and into which the pipe to be joined is inserted through the containing section; a tightening element capable of operating and moving the pressing ring toward the pipe or the pipe joint body; and a packing ring compressed by being pressed by the pressing ring that is moved by the operation of the tightening element, wherein the packing ring includes a base section fitted and mounted in the containing section at a rear thereof, a seal section contained within the containing section at a front thereof, and a connection section which connects the base section and the seal section and has a cutout groove formed on an outer peripheral side thereof, when the packing ring positioned by fitting and mounting the base section in the containing section at the rear thereof is subjected to pressing by the pressing ring, the seal section is bent into the cutout groove and is deformed, and compression caused by the deformation creates a sealed state, wherein a piece ring is formed in an L-shaped cross section having a flanged section which projects toward the packing ring is interposed between the pressing ring and the packing ring, characterized in that the flanged section is pressed onto an outer peripheral side of the seal section from a pipe axis direction.
Vertical pole for gym exercises comprising a coupling device at one of its ends, said coupling device comprising a hemispherical element positioned inside a seat, a base, a shaft inserted inside the hemispherical element to which the vertical pole is connected, the vertical pole being characterized in that the hemispherical element comprises a plurality of blocking elements (10, 33, 45) configured to be coupled to a plurality of corresponding elements (26, 34, 44), made on the inner surface of the seat of the hemispherical element to prevent the rotation of the pole around a longitudinal axis passing through the centre of the coupling device while leaving free the oscillatory movement of the pole with respect to said longitudinal axis.
Explosive device for the deployment of at least one pyrotechnic effect charge, having a surrounding casing, having two ends which are formed by the casing, having a cover which covers one of the ends, wherein the other end is covered by a brake cover, wherein the brake cover has at least one hole, wherein a brake loop is provided, wherein the brake loop is guided through the hole in the brake cover and wherein the cover is combustible in design or the cover has at least one ignition bore, in order to ignite the pyrotechnic effect charge.