mhurhangee/ep-ind-claims huggingface dataset:
Method for treating the surface of a printing medium, having the following steps: physical and/or chemical treatment of a surface of the printing medium, comprising a setting of a surface tension or surface energy of the printing medium; applying several samples of a test liquid onto the physically and/or chemically treated surface of the printing medium, wherein the several samples are applied so as to be distributed across a width of the printing medium in a direction perpendicular to a transport direction (x) of the printing medium; detecting a behaviour of the test liquid on the physically and/or chemically treated surface across the width of the printing medium, wherein the behaviour of the test liquid comprises a contact behaviour and/or a flow behaviour of the test liquid on the surface and wherein from the detected behaviour of the test liquid, spatial variations of surface properties of the printing medium are captured; and adapting the physical and/or chemical treatment of the surface of the printing medium as a function of the detected behaviour; comprising an adaptation of the surface tension or surface energy of the printing medium. physical and/or chemical treatment of a surface of the printing medium, comprising a setting of a surface tension or surface energy of the printing medium; applying several samples of a test liquid onto the physically and/or chemically treated surface of the printing medium, wherein the several samples are applied so as to be distributed across a width of the printing medium in a direction perpendicular to a transport direction (x) of the printing medium; detecting a behaviour of the test liquid on the physically and/or chemically treated surface across the width of the printing medium, wherein the behaviour of the test liquid comprises a contact behaviour and/or a flow behaviour of the test liquid on the surface and wherein from the detected behaviour of the test liquid, spatial variations of surface properties of the printing medium are captured; and adapting the physical and/or chemical treatment of the surface of the printing medium as a function of the detected behaviour; comprising an adaptation of the surface tension or surface energy of the printing medium.
An electrochromic element comprising: a first electrode; a second electrode; an electrolyte disposed between the first electrode and the second electrode; a first layer overlying the first electrode and disposed between the first electrode and the electrolyte, containing an oxidizable color-developing electrochromic compound; and a second layer overlying the second electrode and disposed between the second electrode and the electrolyte, containing a compound having the following formula: wherein each of R 1 to R 5 independently represents a hydrogen atom, a halogen atom, or a monovalent organic group, wherein the monovalent organic group is selected from the group consisting of an alkyl group, an alkenyl group, an alkynyl group, an aryl group, a heteroaryl group, an alkoxy group, an aryloxy group, and a heteroaryloxy group, and at least one of R 1 to R 5 has a functional group directly or indirectly bindable to hydroxyl group. a first electrode; a second electrode; an electrolyte disposed between the first electrode and the second electrode; a first layer overlying the first electrode and disposed between the first electrode and the electrolyte, containing an oxidizable color-developing electrochromic compound; and a second layer overlying the second electrode and disposed between the second electrode and the electrolyte, containing a compound having the following formula: wherein each of R 1 to R 5 independently represents a hydrogen atom, a halogen atom, or a monovalent organic group, wherein the monovalent organic group is selected from the group consisting of an alkyl group, an alkenyl group, an alkynyl group, an aryl group, a heteroaryl group, an alkoxy group, an aryloxy group, and a heteroaryloxy group, and at least one of R 1 to R 5 has a functional group directly or indirectly bindable to hydroxyl group.
A method for establishing a correspondence for a user equipment, said correspondence being used by an access node, AN, controller for configuring a forwarding table for the user equipment according to said correspondence, wherein the method comprises: receiving, by an operator server, a service access request of a user equipment for registering the user equipment with the operator server, when the user equipment accesses an access node, AN, for the first time and applies for enabling transmission of service data of the user equipment by the AN, wherein the service access request carries a Media Access Control, MAC, address of the user equipment that is used as a source MAC address; establishing, by the operator server, a correspondence for the user equipment, wherein the correspondence comprises the MAC address of the user equipment and an identifier of an operator to which the user equipment belongs, wherein the identifier of the operator is allocated by an AN controller to the operator server; and sending, by the operator server, the correspondence to the AN controller. receiving, by an operator server, a service access request of a user equipment for registering the user equipment with the operator server, when the user equipment accesses an access node, AN, for the first time and applies for enabling transmission of service data of the user equipment by the AN, wherein the service access request carries a Media Access Control, MAC, address of the user equipment that is used as a source MAC address; establishing, by the operator server, a correspondence for the user equipment, wherein the correspondence comprises the MAC address of the user equipment and an identifier of an operator to which the user equipment belongs, wherein the identifier of the operator is allocated by an AN controller to the operator server; and sending, by the operator server, the correspondence to the AN controller.
A data processing method, comprising: determining, by a transmitting node, a code block length N 0 for encoding an information bit sequence according to a data characteristic for characterizing the information bit sequence to be transmitted; determining, by the transmitting node, a code block number C according to the code block length N 0, wherein when N is a practical code block length required by the information bit sequence, and Δ is a fixed increment: when N > N 0 + Δ, the transmitting node performs code block segmentation on the information bit sequence, and the code block number is C ≥ 2; and when N ≤ N 0 + Δ, the code block number is C = 1, and the code block segmentation is not performed; performing, by the transmitting node, polar encoding on the information bit sequence according to the code block length N 0; and transmitting, by the transmitting node, a code block obtained through the polar encoding, to a receiving node. determining, by a transmitting node, a code block length N 0 for encoding an information bit sequence according to a data characteristic for characterizing the information bit sequence to be transmitted; determining, by the transmitting node, a code block number C according to the code block length N 0, wherein when N is a practical code block length required by the information bit sequence, and Δ is a fixed increment: when N > N 0 + Δ, the transmitting node performs code block segmentation on the information bit sequence, and the code block number is C ≥ 2; and when N ≤ N 0 + Δ, the code block number is C = 1, and the code block segmentation is not performed; performing, by the transmitting node, polar encoding on the information bit sequence according to the code block length N 0; and transmitting, by the transmitting node, a code block obtained through the polar encoding, to a receiving node. when N > N 0 + Δ, the transmitting node performs code block segmentation on the information bit sequence, and the code block number is C ≥ 2; and when N ≤ N 0 + Δ, the code block number is C = 1, and the code block segmentation is not performed; performing, by the transmitting node, polar encoding on the information bit sequence according to the code block length N 0; and transmitting, by the transmitting node, a code block obtained through the polar encoding, to a receiving node.
A kit for targeted medical imaging and/or therapeutics, comprising at least one Pre-targeting Probe and at least one Effector Probe, wherein the Pre-targeting Probe comprises a Primary Targeting Moiety and a first Bio-orthogonal Reactive Group, and wherein the Effector Probe comprises an Effector Moiety, such as a label or a pharmaceutically active compound, and a second Bio-orthogonal Reactive Group, wherein either of the first and second Bio-orthogonal Reactive Groups is a dienophile and the other of the first and second Bio-orthogonal Reactive Groups is a diene, wherein the dienophile is a trans -cyclooctene moiety, said moiety being an all-carbon monoalkenylene eight-membered ring or a or heterocyclic monoalkenylene eight-membered ring, said trans -cyclooctene moiety comprising, onto the ring, at least two exocyclic bonds fixed in the same plane, and comprising at least one linkage, optionally via a spacer, to the Pre-targeting Probe or the Effector Probe, wherein the at least two exocylic bonds fixed in the same plane are selected from the group consisting of (a) the single bonds of a fused cyclopropyl ring, (b) the single bonds of a fused cyclobutyl ring, (c) the hybridized bonds of a fused aromatic ring, (d) an exocyclic double bond to an oxygen, and (e) an exocyclic double bond to a carbon.
A method for retracting a seat belt of a vehicle, said method comprising the steps of - determining an excessive length (L Δ) of seat belt pulled out, said excessive length (L Δ) of seat belt pulled out being the difference between a current length and a minimum length (L min) of seat belt pulled out, when said seat belt is in use by the current seat occupant, said minimum length (L min) being determined as the hitherto lowest value of said current length, since the last time said seat belt was buckled up, - in case of detecting a risk situation involving said vehicle, retracting said seat belt by applying a retraction force, said retraction force being a function of said excessive length (L Δ) of seat belt pulled out, said retraction force being, at least partly, increasing as a function of said excessive length (L Δ) of seat belt pulled out. said retraction force being differentiated from a pre-tension force used to keep said seat belt tensioned, when the seat occupant moves in the seat during normal driving conditions, said retraction force being at least twice the pretension force. - determining an excessive length (L Δ) of seat belt pulled out, said excessive length (L Δ) of seat belt pulled out being the difference between a current length and a minimum length (L min) of seat belt pulled out, when said seat belt is in use by the current seat occupant, said minimum length (L min) being determined as the hitherto lowest value of said current length, since the last time said seat belt was buckled up, - in case of detecting a risk situation involving said vehicle, retracting said seat belt by applying a retraction force, said retraction force being a function of said excessive length (L Δ) of seat belt pulled out, said retraction force being, at least partly, increasing as a function of said excessive length (L Δ) of seat belt pulled out. said retraction force being differentiated from a pre-tension force used to keep said seat belt tensioned, when the seat occupant moves in the seat during normal driving conditions, said retraction force being at least twice the pretension force.
A method of operating a transmitter entity in a wireless telecommunications system for communicating higher layer data to a receiver entity (506, 508), wherein the method comprises: establishing an allocation of radio resources for the transmitter entity to use for transmitting higher layer data to the receiver entity during a higher layer data transmission period; transmitting an indication of the allocated radio resources to the receiver entity; beginning transmission of the higher layer data to the receiver entity at the beginning of the higher layer data transmission period using the allocated radio resources; and identifying during the higher layer data transmission period whether any of the allocated radio resources which have not yet been used are needed by the transmitter entity for transmitting other data in the wireless telecommunications system, and if so, establishing a subset of the allocated radio resources for the transmitter entity to use for transmitting the other data and transmitting the other data using the subset of the allocated radio resources; wherein the method further comprises the transmitter entity conveying to the receiver entity during the higher layer data transmission period an indication of the subset of allocated radio resources used for the transmission of other data, wherein the indication comprises a predefined sequence included in a control channel region for the other data which is multiplexed along with a data channel for the other data into a data channel period of the allocation of radio resources in the higher layer data transmission period. establishing an allocation of radio resources for the transmitter entity to use for transmitting higher layer data to the receiver entity during a higher layer data transmission period; transmitting an indication of the allocated radio resources to the receiver entity; beginning transmission of the higher layer data to the receiver entity at the beginning of the higher layer data transmission period using the allocated radio resources; and identifying during the higher layer data transmission period whether any of the allocated radio resources which have not yet been used are needed by the transmitter entity for transmitting other data in the wireless telecommunications system, and if so, establishing a subset of the allocated radio resources for the transmitter entity to use for transmitting the other data and transmitting the other data using the subset of the allocated radio resources; wherein the method further comprises the transmitter entity conveying to the receiver entity during the higher layer data transmission period an indication of the subset of allocated radio resources used for the transmission of other data, wherein the indication comprises a predefined sequence included in a control channel region for the other data which is multiplexed along with a data channel for the other data into a data channel period of the allocation of radio resources in the higher layer data transmission period.
An intraocular lens IOL, comprising: an optic body made from a three-dimensional polymeric matrix, comprising a copolymer system comprising at least one non-ionic acrylic monomer, wherein the three-dimensional polymeric matrix has a non-uniform cross-link density created by applying ionising energy to an already cured optic body to break cross-linked bonds wherein when hydrated in a hydrating solution the non-uniform cross-link density causes the three-dimensional polymeric matrix to swell in a non-uniform manner, thereby creating a non-uniform refractive index within the optic body to create an anti-reflection surface layer in an outermost region of the lens, wherein the anti-reflection surface layer comprises a region of the matrix that is 50 nm to 100 microns thick, wherein the anti-reflection surface layer is at least partially disposed around a central aperture formed in the optic body, and wherein said anti-reflection surface layer has been formed by irradiating the three-dimensional polymeric matrix with the ionizing energy in a pattern configured to create said non-uniform cross-link density within the matrix. an optic body made from a three-dimensional polymeric matrix, comprising a copolymer system comprising at least one non-ionic acrylic monomer, wherein the three-dimensional polymeric matrix has a non-uniform cross-link density created by applying ionising energy to an already cured optic body to break cross-linked bonds wherein when hydrated in a hydrating solution the non-uniform cross-link density causes the three-dimensional polymeric matrix to swell in a non-uniform manner, thereby creating a non-uniform refractive index within the optic body to create an anti-reflection surface layer in an outermost region of the lens, wherein the anti-reflection surface layer comprises a region of the matrix that is 50 nm to 100 microns thick, wherein the anti-reflection surface layer is at least partially disposed around a central aperture formed in the optic body, and wherein said anti-reflection surface layer has been formed by irradiating the three-dimensional polymeric matrix with the ionizing energy in a pattern configured to create said non-uniform cross-link density within the matrix.
A method for estimating a time of arrival of a radio signal at a wireless communication device, wherein the radio signal comprises M subcarriers, wherein M ≥ 2, and wherein the method comprises: receiving the radio signal by the wireless communication device; obtaining, by the wireless communication device, M subsignals from the M subcarriers, by demodulating each of the M subcarriers to obtain a respective one of the M subsignals; determining an autocorrelation matrix P of the M subsignals; estimating a number of propagation paths based on the eigenvalues and eigenvectors of the autocorrelation matrix; and estimating a time of arrival associated with a first path based on the eigenvalues and eigenvectors of the autocorrelation matrix and the estimated number of propagation paths; wherein the method further comprises generating M symbol sequences by extracting, from each of the M subsignals, L consecutive symbols, L being a natural number greater than one, the L extracted consecutive symbols forming a respective one of the M symbol sequences; and characterized in that the determining the autocorrelation matrix P comprises calculating P as follows: P = 1 L ∑ l = 1 L R ′ l R ′ H l. wherein R '( l) is an 1-th component of a subcarrier symbol vector. receiving the radio signal by the wireless communication device; obtaining, by the wireless communication device, M subsignals from the M subcarriers, by demodulating each of the M subcarriers to obtain a respective one of the M subsignals; determining an autocorrelation matrix P of the M subsignals; estimating a number of propagation paths based on the eigenvalues and eigenvectors of the autocorrelation matrix; and estimating a time of arrival associated with a first path based on the eigenvalues and eigenvectors of the autocorrelation matrix and the estimated number of propagation paths; wherein the method further comprises generating M symbol sequences by extracting, from each of the M subsignals, L consecutive symbols, L being a natural number greater than one, the L extracted consecutive symbols forming a respective one of the M symbol sequences; and characterized in that the determining the autocorrelation matrix P comprises calculating P as follows: P = 1 L ∑ l = 1 L R ′ l R ′ H l. wherein R '( l) is an 1-th component of a subcarrier symbol vector.
Framework roof truss of a roof construction comprising - at least one lattice beam and - at least one corner piece, the corner piece comprising ∘ two limbs, that form a kink angle differing from 0° - wherein the limbs and the lattice beam are realized as lattice beams consisting of at least two girders (3, 5) with connection-fastening struts and diagonal bracing struts running therebetween and the open ends are prepared for connection to further lattice beams - wherein along one of the girders (3, 5) of the limbs as well as of the lattice beam there are welt grooves running parallel to their longitudinal extent, into which the welt of a roofing, in particular a roof membrane, is insertable in longitudinal direction - wherein corner piece and lattice beam are connected to each other at one of their respective ends, and - wherein the two limbs of the corner piece are of different lengths, characterized in that - the limbs and the lattice beam are made up of an upper girder, a lower girder and a middle girder with connection-fastening struts and diagonal bracing struts running therebetween, - wherein, on one side of the middle girders, there are two parallel welt grooves, and - the kink angle of the corner piece, that is to say the complement of the angle under which both limbs are joined to 180°, is, in an installed state of the corner piece, smaller than a roof kink angle of the roof construction in which the corner piece is used. - at least one lattice beam and - at least one corner piece, the corner piece comprising ∘ two limbs, that form a kink angle differing from 0° - wherein the limbs and the lattice beam are realized as lattice beams consisting of at least two girders (3, 5) with connection-fastening struts and diagonal bracing struts running therebetween and the open ends are prepared for connection to further lattice beams - wherein along one of the girders (3, 5) of the limbs as well as of the lattice beam there are welt grooves running parallel to their longitudinal extent, into which the welt of a roofing, in particular a roof membrane, is insertable in longitudinal direction - wherein corner piece and lattice beam are connected to each other at one of their respective ends, and - wherein the two limbs of the corner piece are of different lengths, characterized in that - the limbs and the lattice beam are made up of an upper girder, a lower girder and a middle girder with connection-fastening struts and diagonal bracing struts running therebetween, - wherein, on one side of the middle girders, there are two parallel welt grooves, and - the kink angle of the corner piece, that is to say the complement of the angle under which both limbs are joined to 180°, is, in an installed state of the corner piece, smaller than a roof kink angle of the roof construction in which the corner piece is used.
A use of organosilane in preparation of an in-reactor polyolefin alloy, wherein the organosilane is represented by a general formula R 1 m SiX n (OR 2) k, wherein R 1 is a C 2 -C 20 alkyl group and a terminal of R 1 has an α-olefin double bond, a norbornene group, or a dicyclopentadiene group, X is a halogen element, R 2 is a C 1 -C 20 linear chain, branched chain or isomerized alkyl group, m is an integer within a range of 1-3, n is an integer within a range of 1-3, k is an integer within a range of 0-2, and m+n+k=4.