mhurhangee/ep-ind-claims huggingface dataset:
An electronic device on a network side, comprising processing circuitry configured to: divide a service region of the electronic device into a plurality of timing advance group TAG regions and allocate, based on location information, one or more user equipments in each of the TAG regions to a same TAG; transmit, to the user equipment, identification information of the TAG allocated to the user equipment; and transmit timing advance TA information to the user equipment, wherein the TA information comprises identification information of the TAG allocated for the user equipment and a TA value corresponding to the TAG allocated for the user equipment to enable the user equipment to use the TA value corresponding to the TAG allocated for the user equipment as a TA value between the user equipment and the electronic device; and wherein the electronic device is characterised by the processing circuitry being further configured to: configure different radio network temporary identifiers RNTIs for each of the TAGs in the service region of the electronic device; and scramble the TA information using a RNTI corresponding to the TAG allocated for the user equipment. divide a service region of the electronic device into a plurality of timing advance group TAG regions and allocate, based on location information, one or more user equipments in each of the TAG regions to a same TAG; transmit, to the user equipment, identification information of the TAG allocated to the user equipment; and transmit timing advance TA information to the user equipment, wherein the TA information comprises identification information of the TAG allocated for the user equipment and a TA value corresponding to the TAG allocated for the user equipment to enable the user equipment to use the TA value corresponding to the TAG allocated for the user equipment as a TA value between the user equipment and the electronic device; and wherein the electronic device is characterised by the processing circuitry being further configured to: configure different radio network temporary identifiers RNTIs for each of the TAGs in the service region of the electronic device; and scramble the TA information using a RNTI corresponding to the TAG allocated for the user equipment. configure different radio network temporary identifiers RNTIs for each of the TAGs in the service region of the electronic device; and scramble the TA information using a RNTI corresponding to the TAG allocated for the user equipment.
A method for determining a pre-equalization matrix to be used for testing, the method comprising the steps of: - Providing a radio communication tester having a base station emulator and a channel emulator, - Providing a device under test having at least two branches, - Establishing a NxM multiple-input multiple-output, MIMO, connection between the radio communication tester and the device under test, the NxM MIMO connection comprising at least two channels, - Forwarding reference signal received power per branch measurement values continuously from the device under test to the radio communication tester, and - Determining a pre-equalization matrix by means of the radio communication tester, wherein the reference signal received power per branch measurement values and presence of additive white Gaussian noise, AWGN, are taken into account when calculating the pre-equalization matrix, and wherein the pre-equalization matrix compensates cross-talk between the at least two channels and balances the branches such that the device under test receives equal power at its reception antennas, wherein the pre-equalization matrix is obtained by multiplying the inverse of a compensation matrix having compensation parameters and a balancing matrix having balancing parameters, wherein the compensation matrix is determined during an optimization phase, thereby optimizing the compensation parameters of the compensation matrix, and wherein the balancing matrix is determined during an adjustment phase, thereby adjusting the balancing parameters. - Providing a radio communication tester having a base station emulator and a channel emulator, - Providing a device under test having at least two branches, - Establishing a NxM multiple-input multiple-output, MIMO, connection between the radio communication tester and the device under test, the NxM MIMO connection comprising at least two channels, - Forwarding reference signal received power per branch measurement values continuously from the device under test to the radio communication tester, and - Determining a pre-equalization matrix by means of the radio communication tester, wherein the reference signal received power per branch measurement values and presence of additive white Gaussian noise, AWGN, are taken into account when calculating the pre-equalization matrix, and wherein the pre-equalization matrix compensates cross-talk between the at least two channels and balances the branches such that the device under test receives equal power at its reception antennas, wherein the pre-equalization matrix is obtained by multiplying the inverse of a compensation matrix having compensation parameters and a balancing matrix having balancing parameters, wherein the compensation matrix is determined during an optimization phase, thereby optimizing the compensation parameters of the compensation matrix, and wherein the balancing matrix is determined during an adjustment phase, thereby adjusting the balancing parameters.
System for supplying a fluid to an evaporator of a refrigeration unit, the system having a first conduit, which can be connected to a fluid inlet of the evaporator, a second conduit, which can be connected to the fluid inlet of the evaporator, an expansion valve with a continuously modifiable first flow cross section, wherein the expansion valve is disposed in the first conduit in such a manner that the continuously modifiable first flow cross section can be used to set a first mass flow of the fluid through the first conduit continuously, a shut-off device, which is disposed in the second conduit, wherein the shut-off device can be switched discretely between an open position and a closed position, wherein a second mass flow of the fluid can be conveyed through the second conduit when the shut-off device is in the open position and a fluid flow through the second conduit is prevented when the shut-off device is in the closed position, a throttle with a constant second flow cross section, wherein the throttle is disposed in the second conduit in such a manner that the second mass flow can be conveyed through the second flow cross section when the shut-off device is in the open position, and a control unit, which is set up so that a continuous modification of the first flow cross section of the expansion valve can be controlled wherein the control unit is set up such that the shut-off device can be controlled as a function of the first flow cross section such that when the shut-off device is in the open position the second mass flow of the fluid flows through the second conduit and when the shut-off device is in the closed position the fluid flow through the second conduit is prevented, characterised in that the expansion valve is set up to measure the set first flow cross section and to transfer information about the measured first flow cross section to the control unit, and the expansion valve has an induction measuring facility, wherein the induction measuring facility measures the first flow cross section of the expansion valve by means of induction measurement.
A data decryption device comprising: a common key partly decrypting part that is configured to generate a randomized mask common key including a random number element, by performing a decrypting process for an encrypted common key being a common key encrypted using an attribute conditional expression including an attribute value, using a randomized secret key which is obtained by including the random number element into a user secret key generated in accordance with an attribute-based encryption scheme using the attribute value representing an attribute; a mask common key acquiring part that is configured to acquire a mask common key which is obtained by removing the random number element from the randomized mask common key generated by the common key partly decrypting part; a mask removing part that is configured to generate the common key using the mask common key acquired by the mask common key acquiring part; and a data decrypting part that is configured to decrypt target data having been encrypted using the common key, using the common key generated by the mask removing part. a common key partly decrypting part that is configured to generate a randomized mask common key including a random number element, by performing a decrypting process for an encrypted common key being a common key encrypted using an attribute conditional expression including an attribute value, using a randomized secret key which is obtained by including the random number element into a user secret key generated in accordance with an attribute-based encryption scheme using the attribute value representing an attribute; a mask common key acquiring part that is configured to acquire a mask common key which is obtained by removing the random number element from the randomized mask common key generated by the common key partly decrypting part; a mask removing part that is configured to generate the common key using the mask common key acquired by the mask common key acquiring part; and a data decrypting part that is configured to decrypt target data having been encrypted using the common key, using the common key generated by the mask removing part.
A pharmaceutical composition for use in a method of treating depression in a subject, wherein the depression is characterized by having an increased burst firing in neurons of a lateral habenula of the subject, wherein the pharmaceutical composition is administered locally into the lateral habenula of the subject, the pharmaceutical composition comprising a reagent that is capable of inhibiting the burst firing, but is incapable of inhibiting tonic pulse, in the neurons of the lateral habenula, wherein the reagent comprises one selected from: ketamine; AP5; Mibefradil; a combination of ketamine and Mibefradil; or a combination of AP5 and Mibefradil. ketamine; AP5; Mibefradil; a combination of ketamine and Mibefradil; or a combination of AP5 and Mibefradil.
A method for coupling an optical waveguide to a single-mode fiber, comprising: forming a locating slot on a substrate, wherein a first optical waveguide is further disposed on the substrate, one end of the first optical waveguide has an inverted taper structure whose width is gradually decreased along a direction of the locating slot, and a center line, passing through a taper tip of the inverted taper structure, is parallel to a center line of the locating slot; fastening, into the locating slot, a single-mode fiber with one end having an optical fiber taper structure whose diameter is gradually decreased along a direction of the first optical waveguide, wherein the end having the optical fiber taper structure of the single-mode fiber is disposed opposite to the end having the inverted taper structure of the first optical waveguide; and disposing a second optical waveguide on the substrate according to a location of the first optical waveguide and a location of the single-mode fiber, wherein the second optical waveguide is located between the first optical waveguide and the single-mode fiber, and wherein the end having the inverted taper structure of the first optical waveguide is embedded in the second optical waveguide, and the end having the optical fiber taper structure of the single-mode fiber is optically coupled to the second optical waveguide the method being characterised in that the coupling of the optical fibre taper structure and the end of the second optical waveguide is a coupling by an evanescent field. forming a locating slot on a substrate, wherein a first optical waveguide is further disposed on the substrate, one end of the first optical waveguide has an inverted taper structure whose width is gradually decreased along a direction of the locating slot, and a center line, passing through a taper tip of the inverted taper structure, is parallel to a center line of the locating slot; fastening, into the locating slot, a single-mode fiber with one end having an optical fiber taper structure whose diameter is gradually decreased along a direction of the first optical waveguide, wherein the end having the optical fiber taper structure of the single-mode fiber is disposed opposite to the end having the inverted taper structure of the first optical waveguide; and disposing a second optical waveguide on the substrate according to a location of the first optical waveguide and a location of the single-mode fiber, wherein the second optical waveguide is located between the first optical waveguide and the single-mode fiber, and wherein the end having the inverted taper structure of the first optical waveguide is embedded in the second optical waveguide, and the end having the optical fiber taper structure of the single-mode fiber is optically coupled to the second optical waveguide the method being characterised in that the coupling of the optical fibre taper structure and the end of the second optical waveguide is a coupling by an evanescent field.
A device for anastomosing an anatomical duct with a vascular prosthesis, wherein said vascular prosthesis is adapted to engage within the anatomical duct, said device characterised in that it comprises an extra-vascular stent made of a biocompatible resilient material having a memory effect, said extra-vascular stent having a predetermined nominal position and adapted to be extended elastically up to engage the outside of said anatomical duct, and to return to said nominal position, with containing function, in order to prevent the diameter of the anatomical duct from increasing and without compressing the anatomical duct, and in that said extra-vascular stent has a length not less than half the outside diameter of the anatomical duct.
Arrangement for emitting light with a planar light guiding element as well as a plurality of substantially punctiform light sources, which are arranged on a support element on at least one narrow side forming the light coupling region of the light guiding element, wherein the light guiding element is designed to radiate the light emitted by the light sources and radiated via the light coupling region via a flat side (11, 12) that is arranged substantially perpendicular to the narrow side, wherein the support element is fixed to the light guiding element by means of clamping elements, and wherein the support element is an LED board, characterized in that the light guiding element has support elements, in particular projections or ribs on its light coupling surface, for the LED board.
Cosmetic composition comprising, in a physiologically acceptable medium, at least one microcapsule comprising at least: - a core, - a first laminated coating surrounding said core comprising at least 45% by weight of the total weight of a microcapsule of multilayer interference particles comprising at least one iron oxide, and - a second laminated coating surrounding said first coating, comprising between 10% and 40% by weight of titanium dioxide relative to the total weight of a microcapsule, said multilayer interference particles being released from said microcapsule(s) only when said composition is applied on a keratin material such as keratin fibers or the skin, wherein the ratio by weight between the total quantity of iron oxide(s) and the total quantity of titanium dioxide present in the microcapsules is between 0.25 and 0.85. - a core, - a first laminated coating surrounding said core comprising at least 45% by weight of the total weight of a microcapsule of multilayer interference particles comprising at least one iron oxide, and - a second laminated coating surrounding said first coating, comprising between 10% and 40% by weight of titanium dioxide relative to the total weight of a microcapsule,
A method for providing a desired amount of cooling to a quantity of food product in a vessel within a given period of time, comprising: feeding cryogenic liquid which is not carbon dioxide from a cryogen source to a plurality of nozzle openings and out of the plurality of nozzle openings into a vessel directly into a formable mass of food product in the vessel at a flow rate effective to provide from each nozzle up to 2004.7 kJ (1900 BTUs) of refrigeration to the formable mass of food product per minute from the cryogenic liquid delivered from each nozzle, while an impeller is rotated at a rate of 3 to 45 rpm (rotations per minute) to move the food product past the nozzle openings, wherein each nozzle opening is in direct contact with the food product and is at the interior surface of the vessel or is between the interior surface and the path of the impeller, wherein the pressure drop encountered by the cryogenic liquid between the cryogen source and the nozzle openings is up to 69.0 kPa (10 pounds per square inch) and wherein the number of nozzle openings is determined by the overall desired amount of cooling to be provided to the quantity of food product being cooled, and by the length of time within which the cooling is to be achieved.; and moving the formable mass of food product past each nozzle opening at a rate of 0.2 to 3.0 meter per second so that the mass of food product remains formable as it is being cooled by contact with the cryogenic liquid. feeding cryogenic liquid which is not carbon dioxide from a cryogen source to a plurality of nozzle openings and out of the plurality of nozzle openings into a vessel directly into a formable mass of food product in the vessel at a flow rate effective to provide from each nozzle up to 2004.7 kJ (1900 BTUs) of refrigeration to the formable mass of food product per minute from the cryogenic liquid delivered from each nozzle, while an impeller is rotated at a rate of 3 to 45 rpm (rotations per minute) to move the food product past the nozzle openings, wherein each nozzle opening is in direct contact with the food product and is at the interior surface of the vessel or is between the interior surface and the path of the impeller, wherein the pressure drop encountered by the cryogenic liquid between the cryogen source and the nozzle openings is up to 69.0 kPa (10 pounds per square inch) and wherein the number of nozzle openings is determined by the overall desired amount of cooling to be provided to the quantity of food product being cooled, and by the length of time within which the cooling is to be achieved.; and moving the formable mass of food product past each nozzle opening at a rate of 0.2 to 3.0 meter per second so that the mass of food product remains formable as it is being cooled by contact with the cryogenic liquid.
Process for marking an optical eyeglass equipped with a surface coating comprising the following steps: - A step of detreating by means of a laser beam, so as to locally detreat an area of the optical eyeglass by removing the surface coating until a lower layer of the eyeglass is reached, which layer is located under said coating and made of a material that is different from the surface coating, thus forming at least one detreated zone (6, 11), - A step of depositing an ink in the detreated zone (6, 11) in order to form at least one inked pattern, so that the ink adheres to the lower layer present at the bottom of the detreated zone (6, 11), characterized in that the optical eyeglass includes an interference stack, of the antireflection or interference-mirror type, located between the surface coating and a substrate and optionally separated from the substrate by one or more varnishes, said at least one detreated zone (6, 11) passing through the surface coating and the interference stack. - A step of detreating by means of a laser beam, so as to locally detreat an area of the optical eyeglass by removing the surface coating until a lower layer of the eyeglass is reached, which layer is located under said coating and made of a material that is different from the surface coating, thus forming at least one detreated zone (6, 11), - A step of depositing an ink in the detreated zone (6, 11) in order to form at least one inked pattern, so that the ink adheres to the lower layer present at the bottom of the detreated zone (6, 11),
A layered absorbent element for use in a disposable absorbent article, said absorbent element comprising: i) a top layer having a first surface and a second surface said top layer being a fibrous nonwoven layer having a basis weight of from 20 to 100 gsm, and a thickness from 0,25 to 5 mm, said nonwoven layer being formed with fibers having an average length from 26 to 200 mm, said nonwoven layer being selected from needlepunched and hydroentangled nonwoven materials, said nonwoven layer comprising 5 to 70 wt% of multicomponent binder fibers and is thermally bonded by said multicomponent binder fibers, and ii) a bottom layer having a first surface and a second surface, said first surface of said bottom layer being in direct contact with said second surface of said top layer, said bottom layer comprising superabsorbent polymer and fibers, wherein said fibers comprise cellulosic fibers, and wherein a plurality of fibers protruding from said first surface of said bottom layer penetrate into said top layer through its second surface, wherein at least some of the plurality of said fibers protruding from said first surface of said bottom layer are bonded to multicomponent binder fibers which are part of said top layer. i) a top layer having a first surface and a second surface said top layer being a fibrous nonwoven layer having a basis weight of from 20 to 100 gsm, and a thickness from 0,25 to 5 mm, said nonwoven layer being formed with fibers having an average length from 26 to 200 mm, said nonwoven layer being selected from needlepunched and hydroentangled nonwoven materials, said nonwoven layer comprising 5 to 70 wt% of multicomponent binder fibers and is thermally bonded by said multicomponent binder fibers, and said nonwoven layer being formed with fibers having an average length from 26 to 200 mm, said nonwoven layer being selected from needlepunched and hydroentangled nonwoven materials, said nonwoven layer comprising 5 to 70 wt% of multicomponent binder fibers and is thermally bonded by said multicomponent binder fibers, ii) a bottom layer having a first surface and a second surface, said first surface of said bottom layer being in direct contact with said second surface of said top layer, said bottom layer comprising superabsorbent polymer and fibers, wherein said fibers comprise cellulosic fibers,