mhurhangee/patent-ind-claim-en huggingface dataset:
Method for coding at least one current image (I n ), comprising steps of: - determining (C4) at least one parameter (p', p") of a preset parametric function (F P ), said function being able to convert the images of a first subset (SS) of a set (Sn) of previously decoded reference images into an approximation of the images of a second subset (SC) of images of said set (S n ) of reference images, - applying (C6) said function (F P ) parameterized with the determined parameter (p', p") to a third subset (SD) of said set (S n ) of reference images, said third subset being different from said first subset, to obtain another set (SV) of previously decoded reference images, - coding (C7) the current image (I n ) on the basis of said obtained set (SV) of reference images, wherein, for at least one image to be coded: - said first and second subsets (SS, SC) respectively comprise two reference images, - said third subset (SD) comprises the two reference images that are temporally closest to the current image (In), - and said other obtained set (SV) of reference images comprises two reference images. - determining (C4) at least one parameter (p', p") of a preset parametric function (F P ), said function being able to convert the images of a first subset (SS) of a set (Sn) of previously decoded reference images into an approximation of the images of a second subset (SC) of images of said set (S n ) of reference images, - applying (C6) said function (F P ) parameterized with the determined parameter (p', p") to a third subset (SD) of said set (S n ) of reference images, said third subset being different from said first subset, to obtain another set (SV) of previously decoded reference images, - coding (C7) the current image (I n ) on the basis of said obtained set (SV) of reference images, - said first and second subsets (SS, SC) respectively comprise two reference images, - said third subset (SD) comprises the two reference images that are temporally closest to the current image (In), - and said other obtained set (SV) of reference images comprises two reference images.
A method of communicating network capability information, the method comprising: receiving , from an application server, a network capability request comprising a quality of service, QoS, capability request; obtaining network capability information; and sending , to the application server, an indication of the network capabilities determined in accordance with the obtained network capability information, wherein obtaining network capability information comprises: sending a message in accordance with the received network capability request to one of a policy control function, PCF, and a session management function, SMF; and receiving the network capability information from the one of the PCF and the SMF. receiving , from an application server, a network capability request comprising a quality of service, QoS, capability request; obtaining network capability information; and sending , to the application server, an indication of the network capabilities determined in accordance with the obtained network capability information, wherein obtaining network capability information comprises: sending a message in accordance with the received network capability request to one of a policy control function, PCF, and a session management function, SMF; and receiving the network capability information from the one of the PCF and the SMF. sending a message in accordance with the received network capability request to one of a policy control function, PCF, and a session management function, SMF; and receiving the network capability information from the one of the PCF and the SMF.
A laminate characterized in that it comprises: a substrate made of a polymer material; an undercoat layer disposed on at least part of a surface of the substrate and made of only an inorganic material selected from pure tantalum, tantalum oxide and tantalum nitride; and an atomic layer deposition film disposed on at least part of a surface of the undercoat layer, wherein the atomic layer deposition film is an inorganic oxide film containing inorganic oxides of any of Al, Ti, Si, Zn and Sn, or a nitride film or oxynitride film containing such inorganic oxides; or an oxide film, nitride film or oxynitride film containing Zr, wherein the laminate has a water vapor transmission rate of 0.1 g/(m 2 ·day) or less. a substrate made of a polymer material; an undercoat layer disposed on at least part of a surface of the substrate and made of only an inorganic material selected from pure tantalum, tantalum oxide and tantalum nitride; and an atomic layer deposition film disposed on at least part of a surface of the undercoat layer, wherein the atomic layer deposition film is an inorganic oxide film containing inorganic oxides of any of Al, Ti, Si, Zn and Sn, or a nitride film or oxynitride film containing such inorganic oxides; or an oxide film, nitride film or oxynitride film containing Zr, wherein the laminate has a water vapor transmission rate of 0.1 g/(m 2 ·day) or less.
A method of making a glycoconjugate comprising a saccharide conjugated to a carrier protein, comprising the steps of: a) reacting a saccharide, wherein said saccharide is a bacterial capsular polysaccharide, with 2,2,6,6-tetramethyl-1-piperidinyloxy (TEMPO) and N-chlorosuccinimide (NCS) in an aqueous solvent to produce an activated saccharide; and b) reacting the activated saccharide with a carrier protein comprising one or more amine groups. a) reacting a saccharide, wherein said saccharide is a bacterial capsular polysaccharide, with 2,2,6,6-tetramethyl-1-piperidinyloxy (TEMPO) and N-chlorosuccinimide (NCS) in an aqueous solvent to produce an activated saccharide; and b) reacting the activated saccharide with a carrier protein comprising one or more amine groups.
A tire comprising: a tread , the tread having arranged therein a sacrificial magnet portion exposed to tread wear, the sacrificial magnet portion being provided for generating a first magnetic field signal that is changing as a function of tread wear or that is indicative of tread thickness; a magnetizable material having a magnetization preferably depending non-linearly on magnetic field strength, the magnetizable material being provided for generating an interfering magnetic field signal for superimposing the first magnetic field signal; a magnetic field sensor for sensing or measuring the first magnetic field signal and the superimposed interfering magnetic field signal; and a permanent magnet portion arranged proximate the magnetizable material so as to decouple the interfering magnetic field signal sensed or measured by the magnetic field sensor from the first magnetic field signal sensed or measured by the magnetic field sensor , characterized in that the sacrificial magnet portion and the permanent magnet portion are integrated within a stud embedded in the tread . a tread , the tread having arranged therein a sacrificial magnet portion exposed to tread wear, the sacrificial magnet portion being provided for generating a first magnetic field signal that is changing as a function of tread wear or that is indicative of tread thickness; a magnetizable material having a magnetization preferably depending non-linearly on magnetic field strength, the magnetizable material being provided for generating an interfering magnetic field signal for superimposing the first magnetic field signal; a magnetic field sensor for sensing or measuring the first magnetic field signal and the superimposed interfering magnetic field signal; and a permanent magnet portion arranged proximate the magnetizable material so as to decouple the interfering magnetic field signal sensed or measured by the magnetic field sensor from the first magnetic field signal sensed or measured by the magnetic field sensor , characterized in that the sacrificial magnet portion and the permanent magnet portion are integrated within a stud embedded in the tread .
A topical nanoparticle composition for use in the treatment of a fungal nail or skin infection comprising polyhexamethylene biguanide (PHMB) and an antifungal agent.
A use of an epoxy-acrylic-based coating liquid containing FeF 3 iron fluoride and paint particles in an aqueous dispersion to form an anti-corrosion coating in an interior (b) of a pipe on a chemical basis, wherein the pipe that is to be coated on its inside comprises the inside (b) and further - an outside (a), - a first outer end (e 1 ) at the first end of the pipe and a second outer end (e 2 ) at the second end of the pipe , - a length (L), - a first inside diameter (D 1 ) at the first outer end (e 1 ) of the pipe and a second inside diameter (D 2 ) at the second outer end (e 2 ) of the pipe , and - a central axis (M), characterized in that the pipe is pivoted at an angle (α) of 1° < (α) < 30°, respectively an angle (β) of -30° < (β) < -1°, with respect to the horizontal line extending in parallel to the surface of the coating liquid , and the coating liquid is brought against the inside (b) in a turbulent flow. - an outside (a), - a first outer end (e 1 ) at the first end of the pipe and a second outer end (e 2 ) at the second end of the pipe , - a length (L), - a first inside diameter (D 1 ) at the first outer end (e 1 ) of the pipe and a second inside diameter (D 2 ) at the second outer end (e 2 ) of the pipe , and - a central axis (M),
A helmet , comprising: an outer liner comprising an inward-facing surface ; an inner liner positioned at least partially inside the outer liner, the inner liner comprising an outward-facing surface facing the inward-facing surface of the outer liner; at least one chin strap; characterized in that the helmet further comprises: a plurality of return springs comprising an elastomeric material, each return spring having a first end coupled to the inward-facing surface of the outer liner, a second end distal to the first end and coupled to the outward-facing surface of the inner liner, and a body connecting the first end and the second end, the plurality of return springs biasing the inner liner to a first position with respect to the outer liner; and wherein: the at least one chin strap is anchored to the outer liner and passes through an opening in the inner liner; the inner liner is slidably coupled to the inward-facing surface of the outer liner through the plurality of return springs and slidably movable relative to the outer liner between the first position and a second position where the inner liner and outer liner are rotated with respect to each other away from the first position; and the body of each return spring of the plurality of return springs is substantially tangential to at least one of the inward-facing surface of the outer liner and the outward-facing surface of the inner liner. an outer liner comprising an inward-facing surface ; an inner liner positioned at least partially inside the outer liner, the inner liner comprising an outward-facing surface facing the inward-facing surface of the outer liner; at least one chin strap; characterized in that the helmet further comprises: a plurality of return springs comprising an elastomeric material, each return spring having a first end coupled to the inward-facing surface of the outer liner, a second end distal to the first end and coupled to the outward-facing surface of the inner liner, and a body connecting the first end and the second end, the plurality of return springs biasing the inner liner to a first position with respect to the outer liner; and wherein: the at least one chin strap is anchored to the outer liner and passes through an opening in the inner liner; the inner liner is slidably coupled to the inward-facing surface of the outer liner through the plurality of return springs and slidably movable relative to the outer liner between the first position and a second position where the inner liner and outer liner are rotated with respect to each other away from the first position; and the body of each return spring of the plurality of return springs is substantially tangential to at least one of the inward-facing surface of the outer liner and the outward-facing surface of the inner liner.
A method of isolating recombinant adeno associated virus (rAAV) genome comprising a) subjecting a composition comprising rAAV particles to a condition under which the rAAV particles are denatured; and b) subjecting the composition comprising the denatured rAAV particles to size exclusion chromatography, wherein the mobile phase for the size exclusion chromatography comprises a salt, organic solvent, or detergent. a) subjecting a composition comprising rAAV particles to a condition under which the rAAV particles are denatured; and b) subjecting the composition comprising the denatured rAAV particles to size exclusion chromatography,
A semiconductor structure, comprising: an anisotropic nanocrystalline core comprising a first semiconductor material and having an aspect ratio between, but not including, 1.0 and 2.0; and a nanocrystalline shell comprising a second, different, semiconductor material completely surrounding the anisotropic nanocrystalline core, wherein the nanocrystalline shell has a center, wherein the nanocrystalline shell extends in a first direction along a first axis and the anisotropic nanocrystalline core is disposed off-center with respect to the nanocrystalline shell in the first direction along the first axis, wherein the nanocrystalline shell extends in a second direction along a second axis orthogonal to the first axis and the anisotropic nanocrystalline core is further disposed off-center with respect to the nanocrystalline shell in the second direction along the second axis, wherein the nanocrystalline shell is longer in the first direction than in the second direction, and wherein the anisotropic nanocrystalline core and the nanocrystalline shell form a quantum dot. an anisotropic nanocrystalline core comprising a first semiconductor material and having an aspect ratio between, but not including, 1.0 and 2.0; and a nanocrystalline shell comprising a second, different, semiconductor material completely surrounding the anisotropic nanocrystalline core, wherein the nanocrystalline shell has a center, wherein the nanocrystalline shell extends in a first direction along a first axis and the anisotropic nanocrystalline core is disposed off-center with respect to the nanocrystalline shell in the first direction along the first axis, wherein the nanocrystalline shell extends in a second direction along a second axis orthogonal to the first axis and the anisotropic nanocrystalline core is further disposed off-center with respect to the nanocrystalline shell in the second direction along the second axis, wherein the nanocrystalline shell is longer in the first direction than in the second direction, and wherein the anisotropic nanocrystalline core and the nanocrystalline shell form a quantum dot.
A replaceable device to facilitate authentication of a print cartridge , the replaceable device comprising a memory , a processor and dedicated hardware logic , the replaceable device to receive a timing challenge from a host device and enable authentication of the print cartridge by providing a challenge response in a challenge response time that falls within an expected time window, characterized by further comprising characterization data stored on the memory , the characterization data including a calculation count and providing the expected time window depending on the calculation count, the dedicated hardware logic to perform a calculation, comprising a basic function that defines a sequence of operations, in response to the timing challenge, wherein the calculation yields the challenge response within the expected time window, and wherein the dedicated hardware logic is fabricated such that the basic function that defines the sequence of operations runs very fast in the dedicated hardware logic, and wherein the basic function is iterated many times in the dedicated hardware logic with the output of each iteration being part of the input to the next iteration, the first iteration using a session key and an operation on a random seed number, and the output of the last iteration yielding the challenge response, the replaceable device to derive, with the host device and using a base key , a new and different session key for each communication exchange with the host device .
Method for controlling a tool mount provided with a system for avoiding obstacles that are positioned in a row , the tool mount comprises: - a first mount configured to be connected to a motorized device that is able to move along the row , - a second mount supporting a tool , - a link which connects the first and second mounts and which is configured to allow the second mount to move with respect to the first mount in a direction comprising at least one transverse component, - an actuator configured to control the link and which comprises first and second ends of travel, - a slaving system configured to command the actuator such that the tool moves from an extended position between the obstacles , corresponding to a first limit of the travel of the actuator , to a retracted position when passing an obstacle , corresponding to a second limit of the travel of the actuator ; a point of the tool being positioned with respect to the row at an adjustment distance (D) in the extended position, characterized in that the method comprises a step of measuring the deformation of the link at given moments when passing the obstacles , a step of comparing the measured values of the deformation of the link when passing two obstacles and a step of carrying out, if necessary and on the basis of this comparison step, a corrective action in order that the adjustment distance (D) is essentially constant. - a first mount configured to be connected to a motorized device that is able to move along the row , - a second mount supporting a tool , - a link which connects the first and second mounts and which is configured to allow the second mount to move with respect to the first mount in a direction comprising at least one transverse component, - an actuator configured to control the link and which comprises first and second ends of travel, - a slaving system configured to command the actuator such that the tool moves from an extended position between the obstacles , corresponding to a first limit of the travel of the actuator , to a retracted position when passing an obstacle , corresponding to a second limit of the travel of the actuator ;
A laser processing device comprising: one laser oscillator configured to be as a laser source, a laser-beam switcher configured to selectively switch between a first optical path and a second optical path as an optical path along which a laser beam is to travel, the first optical path including a first fiber , the second optical path including a second fiber having a core diameter larger than a core diameter of the first fiber ; a laser illuminator configured to illuminate a same processed point on a workpiece with a laser beam that has passed through the first optical path and a laser beam that has passed through the second optical path; and a controller configured to cause the laser-beam switcher to switch from the first optical path to the second optical path depending on a predetermined condition, characterized in that the predetermined condition being a condition for the laser illuminator to illuminate the workpiece until reaching a molten state at the processed point. one laser oscillator configured to be as a laser source, a laser-beam switcher configured to selectively switch between a first optical path and a second optical path as an optical path along which a laser beam is to travel, the first optical path including a first fiber , the second optical path including a second fiber having a core diameter larger than a core diameter of the first fiber ; a laser illuminator configured to illuminate a same processed point on a workpiece with a laser beam that has passed through the first optical path and a laser beam that has passed through the second optical path; and a controller configured to cause the laser-beam switcher to switch from the first optical path to the second optical path depending on a predetermined condition,
A random access method, comprising receiving , by a network device, a first message sent by a terminal device, wherein the first message comprises a preamble for random access, random access information, and an index for indicating a size of the random access information, wherein the preamble is selected randomly by the terminal device from a plurality of preambles for the terminal device to perform random access when the terminal device performs 2-step Random Access, and the random access information is control signaling related to Radio Resource Control, RRC, sent by the terminal device or data sent by the terminal device based on a random access event; in a case that the network device successfully receives the preamble while does not successfully receive the random access information, sending , by the network device, a Random Access Response, RAR, to the terminal device according to the index, wherein the RAR comprises uplink resource information for the terminal device to resend the random access information; and receiving , by the network device, the random access information sent by the terminal device according to the RAR through 4-step Random Access. receiving , by a network device, a first message sent by a terminal device, wherein the first message comprises a preamble for random access, random access information, and an index for indicating a size of the random access information, wherein the preamble is selected randomly by the terminal device from a plurality of preambles for the terminal device to perform random access when the terminal device performs 2-step Random Access, and the random access information is control signaling related to Radio Resource Control, RRC, sent by the terminal device or data sent by the terminal device based on a random access event; in a case that the network device successfully receives the preamble while does not successfully receive the random access information, sending , by the network device, a Random Access Response, RAR, to the terminal device according to the index, wherein the RAR comprises uplink resource information for the terminal device to resend the random access information; and receiving , by the network device, the random access information sent by the terminal device according to the RAR through 4-step Random Access.
A method for wireless communications by a user equipment, UE, comprising: determining if conditions applied to time delays for separate requests for at least two types of uplink information are satisfied, wherein the at least two types of uplink information comprise control information, the conditions are processing times during which the requests are to be handled and the two types of uplink information are requested in downlink transmissions; and sending an uplink transmission which multiplexes the two types of uplink information if each of the conditions is satisfied, characterized in that at least one of the conditions represents a relaxed condition with a greater processing time, relative to a corresponding condition if only one of the types of uplink information was requested. determining if conditions applied to time delays for separate requests for at least two types of uplink information are satisfied, wherein the at least two types of uplink information comprise control information, the conditions are processing times during which the requests are to be handled and the two types of uplink information are requested in downlink transmissions; and sending an uplink transmission which multiplexes the two types of uplink information if each of the conditions is satisfied, characterized in that at least one of the conditions represents a relaxed condition with a greater processing time, relative to a corresponding condition if only one of the types of uplink information was requested.