mhurhangee/ep-ind-claims huggingface dataset:
A coating composition, comprising a flexible hyperbranched polyol prepared by (a) reacting a polyol comprising at least three hydroxyl groups with an aliphatic dicarboxylic acid having from 6 to 36 carbon atoms or its mono- or diesters with alcohols having 1 to 4 carbon atoms or its anhydrides to form a hydroxyl-functional first intermediate product; (b) reacting the first intermediate product with a cyclic carboxylic acid anhydride to form a carboxylic acid-functional second intermediate product; and (c) reacting the second intermediate product with an epoxide-functional compound having one epoxide group to form the hyperbranched polyol. (a) reacting a polyol comprising at least three hydroxyl groups with an aliphatic dicarboxylic acid having from 6 to 36 carbon atoms or its mono- or diesters with alcohols having 1 to 4 carbon atoms or its anhydrides to form a hydroxyl-functional first intermediate product; (b) reacting the first intermediate product with a cyclic carboxylic acid anhydride to form a carboxylic acid-functional second intermediate product; and (c) reacting the second intermediate product with an epoxide-functional compound having one epoxide group to form the hyperbranched polyol.
A security key change method, comprising: determining, by a master eNodeB, MeNB, that a security key change needs to be performed between a first base station and a user equipment UE, wherein the first base station comprises at least one of the master eNodeB and a secondary eNodeB; sending, by the master eNodeB, a key change command message to the UE, which instructs the UE to perform the security key change between the UE and the first base station; and receiving, by the master eNodeB, a key change complete message sent by the UE, wherein the key change command message instructs the UE whether to keep access stratum configuration information between the UE and the master eNodeB or the secondary eNodeB, and/or whether to keep data transmission between the UE and the master eNodeB or the secondary eNodeB, wherein the access stratum configuration information between the UE and the master eNodeB or the secondary eNodeB comprises at least one of the following: Packet Data Convergence Protocol, PDCP, configuration information between the UE and the master eNodeB or the secondary eNodeB; Radio Link Control, RLC, configuration information between the UE and the master eNodeB or the secondary eNodeB; Medium Access Control, MAC configuration information between the UE and the master eNodeB or the secondary eNodeB; an active state of an activated secondary cell, SCell, between the UE and the master eNodeB or the secondary eNodeB; a cell radio network temporary identifier, C-RNTI, used for communication between the UE and the master eNodeB or the secondary eNodeB. determining, by a master eNodeB, MeNB, that a security key change needs to be performed between a first base station and a user equipment UE, wherein the first base station comprises at least one of the master eNodeB and a secondary eNodeB; sending, by the master eNodeB, a key change command message to the UE, which instructs the UE to perform the security key change between the UE and the first base station; and receiving, by the master eNodeB, a key change complete message sent by the UE, wherein the key change command message instructs the UE whether to keep access stratum configuration information between the UE and the master eNodeB or the secondary eNodeB, and/or whether to keep data transmission between the UE and the master eNodeB or the secondary eNodeB, wherein the access stratum configuration information between the UE and the master eNodeB or the secondary eNodeB comprises at least one of the following: Packet Data Convergence Protocol, PDCP, configuration information between the UE and the master eNodeB or the secondary eNodeB; Radio Link Control, RLC, configuration information between the UE and the master eNodeB or the secondary eNodeB; Medium Access Control, MAC configuration information between the UE and the master eNodeB or the secondary eNodeB; an active state of an activated secondary cell, SCell, between the UE and the master eNodeB or the secondary eNodeB; a cell radio network temporary identifier, C-RNTI, used for communication between the UE and the master eNodeB or the secondary eNodeB.
An in vitro method for priming of antigen specific T helper 1 cells or cytotoxic T cells (CTLs) suitable for administration to a patient having a tumor, said method comprising co-culturing target T cells from the patient to be treated, autologous monocyte-derived dendritic cells loaded with tumor associated peptides and allogeneic lymphocytes sensitized against MHC class I and/or MHC class II antigens on antigen presenting cells (APCs) from the patient or against APCs from an unrelated blood donor expressing at least one MHC class II antigen that is identical with MHC class II antigens expressed on APCs from the patient to be treated and wherein the sensitization is induced by a mixed leukocyte reaction comprising culturing inactivated allogeneic antigen presenting cells with peripheral blood mononuclear cells (PBMCs) from a healthy donor, wherein the monocyte derived dendritic cells are from the patient or from a healthy donor having a MHC class II (HLA-DR) antigen matching the HLA-DR antigen of the patient.
Electrical core of an aircraft comprising: - at least one shelf, - at least one module for generating and distributing electrical power, disposed on the shelf, containing components and comprising at least one input and at least one output, - at least one power supply cable connected to the input of the module, - at least one output cable in the form of primary cables connected to the output of the module, characterized in that for a module, the shelf arranged under the module has a hollow structure and in that: each module comprises a first parallelepipedal part with a depth greater than that of the shelf and a protuberance in the lower part whose height is substantially equal to that of the shelf in such a way that the module has a face overlooking the lip of the shelf; each module comprises a connection for the output cable or cables arranged on the face of the module; the output cable or cables or a bundle of cables corresponding to a first segment of the output cable or cables run in the hollow structure of the shelf disposed under the module. - at least one shelf, - at least one module for generating and distributing electrical power, disposed on the shelf, containing components and comprising at least one input and at least one output, - at least one power supply cable connected to the input of the module, - at least one output cable in the form of primary cables connected to the output of the module, each module comprises a first parallelepipedal part with a depth greater than that of the shelf and a protuberance in the lower part whose height is substantially equal to that of the shelf in such a way that the module has a face overlooking the lip of the shelf; each module comprises a connection for the output cable or cables arranged on the face of the module; the output cable or cables or a bundle of cables corresponding to a first segment of the output cable or cables run in the hollow structure of the shelf disposed under the module.
A laundry treatment apparatus comprising: a cabinet; a drawer retractably provided in the cabinet; a tub provided in the drawer and having a space for containing water; a drum rotatably provided in the tub and having a space for containing laundry; a guider comprising: a first body having a first end and a second end, the first end of the first body being rotatably connected to a rear panel of the cabinet, and a second body having a first end and a second end, the first end of the second body being rotatably coupled to the drawer, and the second end of the second body being rotatably coupled to the second end of the first body; a discharge unit provided on a lower portion of a rear surface of the drawer and configured to discharge water in the tub to the outside of the tub; a discharge pipe provided on the rear panel of the cabinet and extending through the rear panel of the cabinet toward an outside of the cabinet; a discharge channel defined by the first body, wherein the discharge channel serves as a part of a water discharge line (81, 83, 85) and the guider guiding a movement of the water discharge line; a first pipe configured to connect the discharge unit and the discharge channel; and a second pipe configured to connect the discharge channel and the discharge pipe, wherein the second pipe is extensible from the discharge pipe to the first body forming the discharge channel. a cabinet; a drawer retractably provided in the cabinet; a tub provided in the drawer and having a space for containing water; a drum rotatably provided in the tub and having a space for containing laundry; a guider comprising: a first body having a first end and a second end, the first end of the first body being rotatably connected to a rear panel of the cabinet, and a second body having a first end and a second end, the first end of the second body being rotatably coupled to the drawer, and the second end of the second body being rotatably coupled to the second end of the first body; a first body having a first end and a second end, the first end of the first body being rotatably connected to a rear panel of the cabinet, and a second body having a first end and a second end, the first end of the second body being rotatably coupled to the drawer, and the second end of the second body being rotatably coupled to the second end of the first body; a discharge unit provided on a lower portion of a rear surface of the drawer and configured to discharge water in the tub to the outside of the tub; a discharge pipe provided on the rear panel of the cabinet and extending through the rear panel of the cabinet toward an outside of the cabinet; a discharge channel defined by the first body, wherein the discharge channel serves as a part of a water discharge line (81, 83, 85) and the guider guiding a movement of the water discharge line; a first pipe configured to connect the discharge unit and the discharge channel; and a second pipe configured to connect the discharge channel and the discharge pipe, wherein the second pipe is extensible from the discharge pipe to the first body forming the discharge channel.
A process for reversibly absorbing CO 2 to an alkali or earth alkaline metal absorbent, said process comprising a CO 2 absorption step wherein the alkali or earth alkaline metal absorbent is contacted with a first gas composition; and a CO 2 desorption step wherein the alkali or earth alkaline metal absorbent is contacted with a second gas composition, and the respective moisture contents of the first and second gas compositions are controlled such that during the absorption step the alkali or earth alkaline metal absorbent is converted to a bicarbonate, and during the desorption step the alkali or earth alkaline metal absorbent is converted to a carbonate hydrate,. wherein the first gas composition is, optionally dried, ambient air having a water vapor pressure of between 0.001 bar and 0.0150 bar and having a temperature of from -23.15 °C to 26.85 °C, wherein the second gas composition has a water vapor pressure from 0.020 bar to 0.2 bar and having a temperature form 26.85 °C to 126.85 °C.
An anti-BLyS antibody, wherein the amino acid sequences of the light chain variable region and the amino acid sequences of the heavy chain variable region of the anti-BLyS antibody are amino acid sequences as shown by SEQ ID NO.47 and SEQ ID NO.48.
An information processing method for a communications system supporting retransmission, wherein the method comprises: obtaining a starting position k 0 for an output bit sequence in a circular buffer of length N CB, the output bit sequence is a redundancy version of a bit sequence D to be transmitted; and determining the output bit sequence for each initial transmission or retransmission from the circular buffer based on the starting position ko for the output bit sequence; wherein the circular buffer comprises all bits of the bit sequence D, a length of the bit sequence D is K D bits, and the bit sequence D is an encoded bit sequence that is obtained by encoding a bit sequence C with a length K based on a quasi-cyclic low-density parity-check, QC-LDPC, matrix; characterized in that the starting position k 0 is one element in { p 0, p 1, p 2, p 3}, 0 ≤p 0 < p 1 < p 2 < p 3 < N CB, p 0, p 1, p 2, p 3 are all integers, and there are two or more intervals between two adjacent values in { p 0, p 1, p 2, p 3}, the intervals in { p 0, p 1, p 2, p 3} are uneven and ( p 1 - p 0) > ( p 2 - p 1), wherein N CB ≥ K D, 0 ≤p 0 < ( p 0 + K) ≤ p 1 < p 2 < p 3. obtaining a starting position k 0 for an output bit sequence in a circular buffer of length N CB, the output bit sequence is a redundancy version of a bit sequence D to be transmitted; and determining the output bit sequence for each initial transmission or retransmission from the circular buffer based on the starting position ko for the output bit sequence; wherein the circular buffer comprises all bits of the bit sequence D, a length of the bit sequence D is K D bits, and the bit sequence D is an encoded bit sequence that is obtained by encoding a bit sequence C with a length K based on a quasi-cyclic low-density parity-check, QC-LDPC, matrix; characterized in that the starting position k 0 is one element in { p 0, p 1, p 2, p 3}, 0 ≤p 0 < p 1 < p 2 < p 3 < N CB, p 0, p 1, p 2, p 3 are all integers, and there are two or more intervals between two adjacent values in { p 0, p 1, p 2, p 3}, the intervals in { p 0, p 1, p 2, p 3} are uneven and ( p 1 - p 0) > ( p 2 - p 1), wherein N CB ≥ K D, 0 ≤p 0 < ( p 0 + K) ≤ p 1 < p 2 < p 3.
An electronically controlled optical system on a photonic substrate, the photonic substrate including a single-frequency laser, the system configured to generate an optical output at a target frequency and comprising: a micro-ring resonator configured to generate a frequency comb of a plurality of comb frequencies based on the single-frequency laser; a carrier-envelope offset interferometer configured to determine a carrier-envelope offset frequency of the frequency comb; a tunable filter configured to select a subset of comb frequencies of the frequency comb corresponding to the target frequency; and a spectrometer; wherein a frequency value corresponding to the overlap between the subset of comb frequencies and the frequency comb is determined by the spectrometer and the tunable filter is configured to be adjusted to adjust the centre frequency so as to output one of the comb frequencies of the frequency comb corresponding to the target frequency. a micro-ring resonator configured to generate a frequency comb of a plurality of comb frequencies based on the single-frequency laser; a carrier-envelope offset interferometer configured to determine a carrier-envelope offset frequency of the frequency comb; a tunable filter configured to select a subset of comb frequencies of the frequency comb corresponding to the target frequency; and a spectrometer; wherein a frequency value corresponding to the overlap between the subset of comb frequencies and the frequency comb is determined by the spectrometer and the tunable filter is configured to be adjusted to adjust the centre frequency so as to output one of the comb frequencies of the frequency comb corresponding to the target frequency.
A laser processing method for forming a modified region along a line to cut in an object to be processed by collecting a laser light onto the object, the method comprising: a modified region forming step of forming a plurality of modified spots along the line by irradiating the object with the laser light having a pulse waveform in which its half width and a time width from a rise to a fall are substantially equal to one another, to form the modified region with the plurality of modified spots, wherein, in the modified region forming step, in the case where pulse energy of the laser light is at a first value lower than a predetermined value, a first pulse waveform formed such that a peak value is located on its first half side and into a saw-blade shape is set as the pulse waveform, and in the case where the pulse energy is at a second value higher than the predetermined value, a second pulse waveform formed such that a peak value is located on its latter half side and into a saw-blade shape is set as the pulse waveform. a modified region forming step of forming a plurality of modified spots along the line by irradiating the object with the laser light having a pulse waveform in which its half width and a time width from a rise to a fall are substantially equal to one another, to form the modified region with the plurality of modified spots, wherein, in the modified region forming step, in the case where pulse energy of the laser light is at a first value lower than a predetermined value, a first pulse waveform formed such that a peak value is located on its first half side and into a saw-blade shape is set as the pulse waveform, and in the case where the pulse energy is at a second value higher than the predetermined value, a second pulse waveform formed such that a peak value is located on its latter half side and into a saw-blade shape is set as the pulse waveform.
An amplifying system for a mobile device, the amplifying system comprising: a current monitor arranged between a first supply node and a second supply node and operable to monitor a current flow between the first and second supply nodes and to output a monitored current value (Im); an amplifier; a peak current limiter coupled to the amplifier and configured to limit an amplifier current (la) supplied to the amplifier to not exceed a maximum peak current value and wherein the peak current limiter is coupled to a one of the first supply node and the second supply node; a controller coupled to the current monitor output and configured to control the peak current limiter; and wherein the first supply node is operably coupled to a battery for supplying a battery current and the controller is operable to set the maximum peak current value of the peak current limiter in dependence on a difference between the battery current and the amplifier current (la), and to prevent the battery current from exceeding a predefined battery peak current value by controlling the peak current limiter to set the maximum peak current value to a value of less than or equal to the difference between a predefined maximum battery peak current value and a system current (Is), wherein the system current is equal to the difference between the battery current and the amplifier current (la). a current monitor arranged between a first supply node and a second supply node and operable to monitor a current flow between the first and second supply nodes and to output a monitored current value (Im); an amplifier; a peak current limiter coupled to the amplifier and configured to limit an amplifier current (la) supplied to the amplifier to not exceed a maximum peak current value and wherein the peak current limiter is coupled to a one of the first supply node and the second supply node; a controller coupled to the current monitor output and configured to control the peak current limiter; and wherein the first supply node is operably coupled to a battery for supplying a battery current and the controller is operable to set the maximum peak current value of the peak current limiter in dependence on a difference between the battery current and the amplifier current (la), and to prevent the battery current from exceeding a predefined battery peak current value by controlling the peak current limiter to set the maximum peak current value to a value of less than or equal to the difference between a predefined maximum battery peak current value and a system current (Is), wherein the system current is equal to the difference between the battery current and the amplifier current (la).
An antistatic polymer composition containing not less than 0.1 parts by weight nor more than 65 parts by weight of i) a polymeric-type antistatic agent comprising: a polymer composition containing a polymeric-type charge prevention agent, wherein the polymeric-type charge prevention agent contains a polyether block polyolefin copolymer, a polyoxyalkylene copolymer or a polymer having a cyano group; and an anion-containing salt, having a fluoro group and a sulfonyl group, which is added dispersedly in said polymer composition without intermediary of a medium consisting of a low-molecular-weight polyether-containing compound or low-molecular-weight polar compound whose number-average molecular weight is not more than 5000, added to total 100 parts by weight of ii) polymer, for which a crosslinkable rubber and a thermoplastic elastomer dispersed by dynamic crosslinking obtainable by a process in which a compound containing a rubber component whose main component is EPDM is dispersed by dynamic crosslinking in a compound containing a styrene thermoplastic elastomer as a main component thereof are used. a polymer composition containing a polymeric-type charge prevention agent, wherein the polymeric-type charge prevention agent contains a polyether block polyolefin copolymer, a polyoxyalkylene copolymer or a polymer having a cyano group; and an anion-containing salt, having a fluoro group and a sulfonyl group, which is added dispersedly in said polymer composition without intermediary of a medium consisting of a low-molecular-weight polyether-containing compound or low-molecular-weight polar compound whose number-average molecular weight is not more than 5000,