mhurhangee/ep-ind-claims huggingface dataset:
A method for converting a plurality of unicast sessions (206 1-N) to a multicast session using the Session Initiation Protocol, comprising: receiving, at a content provider server, a request (208, 210) by a client device (101 N+1) for content available from the content provider server; in response to the request by the client device (101 N+1), determining whether a threshold number of unicast sessions (206 1-N) exist for delivering the content to other client devices (101 1-N); and in response to a determination that a threshold number of unicast sessions (206 1-N) exist for delivering the content: establishing a multicast session for delivering the content, wherein the multicast session is established by the content provider server; and generating at least one multicast session join message (214 1-N) adapted for enabling the other client devices (101 1-N) to join the multicast session and propagating the at least one multicast session join message (214 1-N) toward a SIP server adapted for propagating the at least one multicast session join message (216 1-N) toward the other client devices (101 1-N). receiving, at a content provider server, a request (208, 210) by a client device (101 N+1) for content available from the content provider server; in response to the request by the client device (101 N+1), determining whether a threshold number of unicast sessions (206 1-N) exist for delivering the content to other client devices (101 1-N); and in response to a determination that a threshold number of unicast sessions (206 1-N) exist for delivering the content: establishing a multicast session for delivering the content, wherein the multicast session is established by the content provider server; and generating at least one multicast session join message (214 1-N) adapted for enabling the other client devices (101 1-N) to join the multicast session and propagating the at least one multicast session join message (214 1-N) toward a SIP server adapted for propagating the at least one multicast session join message (216 1-N) toward the other client devices (101 1-N). establishing a multicast session for delivering the content, wherein the multicast session is established by the content provider server; and generating at least one multicast session join message (214 1-N) adapted for enabling the other client devices (101 1-N) to join the multicast session and propagating the at least one multicast session join message (214 1-N) toward a SIP server adapted for propagating the at least one multicast session join message (216 1-N) toward the other client devices (101 1-N).
A method for identifying that a protein of interest binds to a ligand, comprising: (a) contacting the ligand, which is immobilized on a solid support, with a fusion protein comprising (i) a first domain comprising the protein of interest, and (ii) a second domain comprising a nucleic acid-interacting motif, wherein the protein of interest and the nucleic acid-interacting motif differ from each other; (b) adding a nucleic acid oligomer comprising (i) a first nucleic acid sequence that is a PCR amplification sequence, and (ii) a second nucleic acid sequence that binds the nucleic acid-interacting motif, wherein the first nucleic acid sequence is heterologous to the second nucleic acid sequence; (c) removing nucleic acid oligomer unbound to the fusion protein; and (d) detecting whether the nucleic acid oligomer is bound to the fusion protein, whereby detection of bound nucleic acid oligomer indicates the protein of interest binds to the ligand. (a) contacting the ligand, which is immobilized on a solid support, with a fusion protein comprising (i) a first domain comprising the protein of interest, and (ii) a second domain comprising a nucleic acid-interacting motif, wherein the protein of interest and the nucleic acid-interacting motif differ from each other; (i) a first domain comprising the protein of interest, and (ii) a second domain comprising a nucleic acid-interacting motif, wherein the protein of interest and the nucleic acid-interacting motif differ from each other; (b) adding a nucleic acid oligomer comprising (i) a first nucleic acid sequence that is a PCR amplification sequence, and (ii) a second nucleic acid sequence that binds the nucleic acid-interacting motif, wherein the first nucleic acid sequence is heterologous to the second nucleic acid sequence; (i) a first nucleic acid sequence that is a PCR amplification sequence, and (ii) a second nucleic acid sequence that binds the nucleic acid-interacting motif, wherein the first nucleic acid sequence is heterologous to the second nucleic acid sequence; (c) removing nucleic acid oligomer unbound to the fusion protein; and (d) detecting whether the nucleic acid oligomer is bound to the fusion protein,
An image processing circuit comprising: a calculator configured to perform in parallel gamma correction calculations on gray level values 1 to Z depending on each of target nozzles for each of target pixels containing gray level values other than zero of pixels in ink-droplet image data to be printed by a multi-drop inkjet head including nozzles and having a maximum droplet number Z per pixel, the nozzles of the multi-drop inkjet head including the target nozzles for ink ejection on the respective target pixels; and a selector configured to select a calculation result corresponding to a gray level value of the target pixel from calculation results of the gamma correction calculations performed on the gray level values 1 to Z by the calculator, for each of the target pixels. a calculator configured to perform in parallel gamma correction calculations on gray level values 1 to Z depending on each of target nozzles for each of target pixels containing gray level values other than zero of pixels in ink-droplet image data to be printed by a multi-drop inkjet head including nozzles and having a maximum droplet number Z per pixel, the nozzles of the multi-drop inkjet head including the target nozzles for ink ejection on the respective target pixels; and a selector configured to select a calculation result corresponding to a gray level value of the target pixel from calculation results of the gamma correction calculations performed on the gray level values 1 to Z by the calculator, for each of the target pixels.
A method for the identification without shaft encoder of mechanical characteristic quantities, in particular mass moments of inertia of a three-phase asynchronous motor characterized in that comprising at least the steps: - impressing a constant voltage ( U 1α) in α axial direction, with α- and β - coordinates with respect to the fixed orientation of the stator windings, in order to generate a constant magnetic flux; - supplying a test signal voltage ( U 1β) in β- axis direction of the asynchronous motor, wherein the α- axis direction remains supplied with constant current; - measuring of measuring signal current ( I 1β) in β stator axial direction of the asynchronous motor; - identifying mechanical characteristic quantities of the asynchronous motor based on the digitally recorded time samples of the test signal voltage ( U 1β) and on the measuring signal current ( I 1β) by analysis of the frequency response of the measured transfer function with knowledge of the transfer function in the frequency range of an equivalent circuit of an asynchronous motor by means of parameter extraction; wherein the supplying of a test signal into the asynchronous motor takes place such that the rotor can execute deflection movements based on the supplying of test signals. - impressing a constant voltage ( U 1α) in α axial direction, with α- and β - coordinates with respect to the fixed orientation of the stator windings, in order to generate a constant magnetic flux; - supplying a test signal voltage ( U 1β) in β- axis direction of the asynchronous motor, wherein the α- axis direction remains supplied with constant current; - measuring of measuring signal current ( I 1β) in β stator axial direction of the asynchronous motor; - identifying mechanical characteristic quantities of the asynchronous motor based on the digitally recorded time samples of the test signal voltage ( U 1β) and on the measuring signal current ( I 1β) by analysis of the frequency response of the measured transfer function with knowledge of the transfer function in the frequency range of an equivalent circuit of an asynchronous motor by means of parameter extraction;
An irrigation sleeve for use with a surgical system comprising an irrigation source and a surgical tool, the irrigation sleeve comprising: a sleeve body extending between a proximal sleeve end and a distal sleeve end; a first lumen formed in the sleeve body for receiving at least a portion of the surgical tool; and a second lumen formed in the sleeve body, spaced from the first lumen, and comprising a proximal lumen region and a distal lumen region, the proximal lumen region extending from a lumen inlet adapted for fluid communication with the irrigation source to a lumen transition, and the distal lumen region extending from the lumen transition to a lumen outlet, the proximal lumen region having a larger cross-sectional area than the distal lumen region taken at the lumen transition; and wherein the distal lumen region of the second lumen is spaced out of fluid communication with the first lumen. a sleeve body extending between a proximal sleeve end and a distal sleeve end; a first lumen formed in the sleeve body for receiving at least a portion of the surgical tool; and a second lumen formed in the sleeve body, spaced from the first lumen, and comprising a proximal lumen region and a distal lumen region, the proximal lumen region extending from a lumen inlet adapted for fluid communication with the irrigation source to a lumen transition, and the distal lumen region extending from the lumen transition to a lumen outlet, the proximal lumen region having a larger cross-sectional area than the distal lumen region taken at the lumen transition; and wherein the distal lumen region of the second lumen is spaced out of fluid communication with the first lumen.
A vehicle structure in combination with a casing unitary with the vehicle structure, the combination for use with an attritable gas turbine engine, wherein: the casing includes a casing wall opposite said vehicle structure; a bypass duct is defined by and formed between said casing wall and said vehicle structure; said casing is configured to receive a core of an attritable gas turbine engine; and said casing comprises insulation integrally formed throughout a core support section and an exhaust section. the casing includes a casing wall opposite said vehicle structure; a bypass duct is defined by and formed between said casing wall and said vehicle structure; said casing is configured to receive a core of an attritable gas turbine engine; and said casing comprises insulation integrally formed throughout a core support section and an exhaust section.
A method for manufacturing a light emitting device comprising a light emitting element and an optical part, the method comprising the steps of: (i) forming a hydroxyl film on a bonding surface of each of the light emitting element and the optical part by an atomic layer deposition; and (ii) bonding the bonding surfaces of the light emitting element and the optical part with each other, each of the bonding surfaces having the hydroxyl film formed thereon, wherein a substep is repeated at least one time in the step (i), in which substep a first raw material gas and a second raw material gas are sequentially supplied onto the bonding surfaces of the light emitting element and the optical part, and wherein, prior to the atomic layer deposition of the step (i), at least one of the bonding surfaces of the light emitting element and the optical part is subjected to a plasma treatment, followed by being exposed to a water, and the bonding of the bonding surfaces in the step (ii) is performed without a heating treatment. (i) forming a hydroxyl film on a bonding surface of each of the light emitting element and the optical part by an atomic layer deposition; and (ii) bonding the bonding surfaces of the light emitting element and the optical part with each other, each of the bonding surfaces having the hydroxyl film formed thereon,
A light-emitting device (10, 16), comprising: a mounting substrate including a mounting surface; a light-emitting element disposed on the mounting surface; a light transmissive component disposed on the light-emitting element; and a resin component (160, 166) that covers a side surface of the light-emitting element and a side surface of the light transmissive component, wherein the resin component (160, 166) includes a cover portion (250, 250b) that covers an outer edge portion of a topmost surface of the light transmissive component, a height from the mounting surface to a top of the cover portion (250, 250b) is greater than a height from the mounting surface to the topmost surface of the light transmissive component, and the topmost surface of the light transmissive component includes an exposed region (260, 261) that is exposed from the resin component (160, 166), characterised in that the cover portion (250, 250b) has an outwardly curved surface which is the exposed surface curved outwardly toward the exposed region. a mounting substrate including a mounting surface; a light-emitting element disposed on the mounting surface; a light transmissive component disposed on the light-emitting element; and a resin component (160, 166) that covers a side surface of the light-emitting element and a side surface of the light transmissive component, wherein the resin component (160, 166) includes a cover portion (250, 250b) that covers an outer edge portion of a topmost surface of the light transmissive component, a height from the mounting surface to a top of the cover portion (250, 250b) is greater than a height from the mounting surface to the topmost surface of the light transmissive component, and the topmost surface of the light transmissive component includes an exposed region (260, 261) that is exposed from the resin component (160, 166), characterised in that the cover portion (250, 250b) has an outwardly curved surface which is the exposed surface curved outwardly toward the exposed region.
A hydrotalcite represented by a formula below: (M 2+) 1-x (M 3+) x 2 (A n-) x/n •mH 2 O where M 2+ indicates at least one divalent metal, M 3+ indicates at least one trivalent metal, A n- indicates an n-valent anion, n indicates an integer of 1 to 6, and x and m are within respective ranges of 0.17 ≤ x ≤ 0.36 and 0 ≤ m ≤ 10, the hydrotalcite satisfying to below: a lattice strain in the <003> direction as measured using an X-ray diffraction method is 3 × 10 -3 or less; an average width of primary particles as measured using a SEM method is between 5 nm and 200 nm inclusive; and a degree of monodispersity expressed by an equation below is 50% or greater: Degree of monodispersity (%) = (average width of primary particles as measured using the SEM method/average width of secondary particles as measured using a dynamic light scattering method) × 100. where M 2+ indicates at least one divalent metal, M 3+ indicates at least one trivalent metal, A n- indicates an n-valent anion, n indicates an integer of 1 to 6, and x and m are within respective ranges of 0.17 ≤ x ≤ 0.36 and 0 ≤ m ≤ 10, the hydrotalcite satisfying to below: a lattice strain in the <003> direction as measured using an X-ray diffraction method is 3 × 10 -3 or less; an average width of primary particles as measured using a SEM method is between 5 nm and 200 nm inclusive; and a degree of monodispersity expressed by an equation below is 50% or greater: Degree of monodispersity (%) = (average width of primary particles as measured using the SEM method/average width of secondary particles as measured using a dynamic light scattering method) × 100. a lattice strain in the <003> direction as measured using an X-ray diffraction method is 3 × 10 -3 or less; an average width of primary particles as measured using a SEM method is between 5 nm and 200 nm inclusive; and a degree of monodispersity expressed by an equation below is 50% or greater: Degree of monodispersity (%) = (average width of primary particles as measured using the SEM method/average width of secondary particles as measured using a dynamic light scattering method) × 100.
A method of forming a 5' capped labelled RNA, comprising: combining a preparation comprising uncapped RNA having a 5' terminal diphosphate or triphosphate with a capping enzyme and a compound represented by Formula: or a salt thereof, wherein: Base is a purine or a pyrimidine, R is a linker, and L is a label selected from the group consisting of an affinity label, a detection label, a chemoselective group, an oligonucleotide, and a combination thereof; so as to convert the uncapped RNA into 5' labelled capped RNA. combining a preparation comprising uncapped RNA having a 5' terminal diphosphate or triphosphate with a capping enzyme and a compound represented by Formula: or a salt thereof, wherein: Base is a purine or a pyrimidine, R is a linker, and L is a label selected from the group consisting of an affinity label, a detection label, a chemoselective group, an oligonucleotide, and a combination thereof; so as to convert the uncapped RNA into 5' labelled capped RNA. Base is a purine or a pyrimidine, R is a linker, and L is a label selected from the group consisting of an affinity label, a detection label, a chemoselective group, an oligonucleotide, and a combination thereof; so as to convert the uncapped RNA into 5' labelled capped RNA.
A method of deposition of a wear resistant DLC layer onto substrates in a vacuum chamber from a graphite cathode by means of a low-voltage pulsed arc wherein current pulses alternate with a holding current and a cathode spot moves on a surface of the graphite cathode, characterized in that a rotary cylindrical cathode is used as the cathode, the motion of the cathode spot on the surface of the graphite cathode being steered by a magnetic field generated by a magnetic field source arranged under the surface of the graphite cathode, and the value of the current pulses is 250 to 1000 A, the value of the holding current is 40 to 200 A, the frequency of the pulses is 100 to 5000 Hz and the pulse duty cycle is 1 to 90 %, the intensity of the magnetic field in the place of the cathode spot being 5 to 40 mT.
An apparatus for wireless communication, comprising: a processing system (1502A, 1504A) configured to generate a frame with an information element, IE, assigning a restricted access window, RAW, and to determine whether or not to include a field in the IE indicating a group of one or more devices allowed to transmit during the RAW based on a type of the RAW, wherein at least one option type of the RAW type is accessible by devices regardless of their device type; and the processing system is further configured to determine not to include the field in the IE if at least one option type of the RAW type indicates a group of one or more devices, regardless of their device type, can communicate during the RAW; and an interface to output the generated frame for transmission. a processing system (1502A, 1504A) configured to generate a frame with an information element, IE, assigning a restricted access window, RAW, and to determine whether or not to include a field in the IE indicating a group of one or more devices allowed to transmit during the RAW based on a type of the RAW, wherein at least one option type of the RAW type is accessible by devices regardless of their device type; and the processing system is further configured to determine not to include the field in the IE if at least one option type of the RAW type indicates a group of one or more devices, regardless of their device type, can communicate during the RAW; and an interface to output the generated frame for transmission.
A method for handling a telecommunications link between at least two subscribers (118, 158), wherein the telecommunications link has a signaling channel for transmitting a signaling stream and a payload channel for transmitting a payload stream, wherein frequency-coded signals are transmitted in the payload stream, wherein at least one subscriber of the at least two subscribers (118, 158) is assigned to a network (100, 110), comprising a switching device and a signal processing device, which is separate from the switching device, wherein the frequency-coded signals in the payload stream are detected by the signal processing device and transmitted to the switching device independently of the payload stream, characterized in that a decision is made as on the basis of parameters in session initiation protocol signals and/or in session description protocol signals embedded in the SIP signals in a feature process, as to whether the telecommunications link might necessitate the reception of dual tone multifrequency (DTMF) codes, if the decision made is positive, in the signal processing device, a rule is set by the switching device by means of remote programming, enabling and/or instructing the signal processing device to detect frequency-coded signals and filter them out of the payload stream.
A method for mixing at least two liquid components (A; B) in particular of a two- or multi-component wet coating system, wherein: - a feed component under a hydraulic pressure particularly set at constant is fed discontinuously through a variable passage cross-section to a parent component under a hydraulic pressure particularly set at constant; - an actual feed quantity of the feed component is detected, and - the feed quantity of the feed component is regulated with respect to a target feed quantity for the feed component in such a way that a timing cycle of the discontinuous feed and the passage cross-section for the feed component are influenced. - a feed component under a hydraulic pressure particularly set at constant is fed discontinuously through a variable passage cross-section to a parent component under a hydraulic pressure particularly set at constant; - an actual feed quantity of the feed component is detected, and - the feed quantity of the feed component is regulated with respect to a target feed quantity for the feed component in such a way that a timing cycle of the discontinuous feed and the passage cross-section for the feed component are influenced.
Light module for signal display in the rear view mirror of a motor vehicle, comprising a circuit carrier on which there are arranged at least one luminous means and, if appropriate, further electronic subassemblies, and a power lead for connecting the circuit carrier to an interface, arranged at a spacing from the circuit carrier, with connection means for connecting to a power supply unit and/or control device, the circuit carrier and the power lead being integrally constructed from the same material and being formed by a flexible printed circuit board, at least one further flexible printed circuit board with at least one additional function being provided, and the circuit carrier being arranged with a strip-shaped conductor track projecting outwards on the edge region of the further flexible printed circuit board, and being able to be brought into a desired position by folding down or bending over the strip-shaped conductor track, characterized in that the further flexible printed circuit board has a cutout, and in that the circuit carrier can be brought into the region of the cutout by folding down the strip-shaped conductor track.