mhurhangee/ep-ind-claims huggingface dataset:
A polypeptide comprising a modified oxyntomodulin sequence: H x X 1 X 2 GTFTSDYX 3 X 4 YLDX 5 X 6 X 6 AX 7 X 8 FVX 7 WLX 9 X 10 X 11 KRNRNNX 12 X 13 X 14, wherein H x is selected from the group consisting of His, imidazole-lactic acid (ImiH); desamino-His (ΔNH 2 -H), acetyl His, pyroglutamyl His, N-methyl-His (Me-H), N,N-dimethyl-His (Me 2 -H); Benzoyl His (Bz-H), Benzyl His (Bzl-H), and Phe; X 1 is selected from the group consisting of Asn, Asp, Glu, Ile, Trp, Val, D-Ala, D-Ser, and α-aminoisobutyric acid; X 2 is Gln, Asp, Glu, Pro, Leu or L-norleucine; X 3 is Ser, Ala, Cys, Cys(mPEG), or Cys(cholesteryl); X 4 is Lys, Cys, Cys(mPEG), or Cys(cholesteryl); X 5 is Ser or Ala; X 6 is Arg, Cys, Cys(mPEG), or Cys(cholesteryl); X 7 is Gln, Cys, Cys(mPEG), or Cys(cholesteryl); X 8 is Asp, Cys, Cys(mPEG), or Cys(cholesteryl); X 9 is Met, Met, Val, norleucine, alanine, α-aminoisobutyric acid or O-methyl-homoserine; X 10 is Asn, Cys, Cys(mPEG), or Cys(cholesteryl); X 11 is Thr, Cys, Cys(mPEG), or Cys(cholesteryl); X 12 is Ile, Cys, Cys(mPEG), or Cys(cholesteryl); X 13 is Ala, Cys, Cys(mPEG), or Cys(cholesteryl); and X 14 is carboxylic acid (COOH), carboxamide, secondary amide, Ala, K(palmitoyl), Cys, Cys(mPEG), Cys(cholesteryl), or any linker to which mPEG or cholesterol is linked with a chemical bond; or a pharmaceutically acceptable salt thereof. X 1 is selected from the group consisting of Asn, Asp, Glu, Ile, Trp, Val, D-Ala, D-Ser, and α-aminoisobutyric acid; X 2 is Gln, Asp, Glu, Pro, Leu or L-norleucine; X 3 is Ser, Ala, Cys, Cys(mPEG), or Cys(cholesteryl); X 4 is Lys, Cys, Cys(mPEG), or Cys(cholesteryl); X 5 is Ser or Ala; X 6 is Arg, Cys, Cys(mPEG), or Cys(cholesteryl); X 7 is Gln, Cys, Cys(mPEG), or Cys(cholesteryl); X 8 is Asp, Cys, Cys(mPEG), or Cys(cholesteryl); X 9 is Met, Met, Val, norleucine, alanine, α-aminoisobutyric acid or O-methyl-homoserine; X 10 is Asn, Cys, Cys(mPEG), or Cys(cholesteryl); X 11 is Thr, Cys, Cys(mPEG), or Cys(cholesteryl); X 12 is Ile, Cys, Cys(mPEG), or Cys(cholesteryl); X 13 is Ala, Cys, Cys(mPEG), or Cys(cholesteryl); and X 14 is carboxylic acid (COOH), carboxamide, secondary amide, Ala, K(palmitoyl), Cys, Cys(mPEG), Cys(cholesteryl), or any linker to which mPEG or cholesterol is linked with a chemical bond; or a pharmaceutically acceptable salt thereof.
A tag board for manufacturing an RFID tag with an inverted-F antenna, comprising: an insulation substrate made of a ceramic sintered body, the insulation substrate having a lower surface suitable for bonding to a surface of a commodity and an upper surface comprising a recess for mounting a semiconductor device; an upper surface conductor on the upper surface of the insulation substrate to act as an antenna conductor in the RFID tag for transmitting and receiving radio waves; a ground conductor on the lower surface of the insulation substrate to act as a ground conductor in the RFID tag; and a short-circuit-portion through conductor that penetrates the insulation substrate in a thickness direction and electrically connects the upper surface conductor and the ground conductor to each other, wherein the short-circuit-portion through conductor is connected to the upper surface conductor only at a part of a periphery of the upper surface conductor. an insulation substrate made of a ceramic sintered body, the insulation substrate having a lower surface suitable for bonding to a surface of a commodity and an upper surface comprising a recess for mounting a semiconductor device; an upper surface conductor on the upper surface of the insulation substrate to act as an antenna conductor in the RFID tag for transmitting and receiving radio waves; a ground conductor on the lower surface of the insulation substrate to act as a ground conductor in the RFID tag; and a short-circuit-portion through conductor that penetrates the insulation substrate in a thickness direction and electrically connects the upper surface conductor and the ground conductor to each other, wherein the short-circuit-portion through conductor is connected to the upper surface conductor only at a part of a periphery of the upper surface conductor.
A battery pack, which comprises: a battery cell assembly comprising a battery cell array composed of a plurality of cylindrical battery cells and a channel provided in the battery cell array, the channel being formed by N surrounding battery cells, wherein N > 2; and a heat dissipation assembly comprising a heat-absorbing member disposed in the channel, and wherein the heat-absorbing member comprises N side walls, wherein the N side walls respectively abut against the side walls of the N battery cells, the heat dissipation assembly comprises a heat-conducting member (72,) in contact with the heat-absorbing member to dissipate the heat absorbed by the heat-absorbing member, wherein the heat-conducting member is disposed along an axial direction of the battery cell, and the heat-conducting member is partially located inside the heat-absorbing member and partially located outside the heat-absorbing member and wherein the heat-conducting member comprises a cylinder provided with a receiving groove and a plurality of heat dissipation fins, wherein the receiving groove is provided along an axial direction of the cylinder, and one end of the heat dissipation fins are installed on the sidewall of the receiving groove, and the other end extends into the receiving groove, the heat-absorbing member is provided with a receiving cavity for accommodating the cylinder. a battery cell assembly comprising a battery cell array composed of a plurality of cylindrical battery cells and a channel provided in the battery cell array, the channel being formed by N surrounding battery cells, wherein N > 2; and a heat dissipation assembly comprising a heat-absorbing member disposed in the channel, and wherein the heat-absorbing member comprises N side walls, wherein the N side walls respectively abut against the side walls of the N battery cells, the heat dissipation assembly comprises a heat-conducting member (72,) in contact with the heat-absorbing member to dissipate the heat absorbed by the heat-absorbing member, wherein the heat-conducting member is disposed along an axial direction of the battery cell, and the heat-conducting member is partially located inside the heat-absorbing member and partially located outside the heat-absorbing member and wherein the heat-conducting member comprises a cylinder provided with a receiving groove and a plurality of heat dissipation fins, wherein the receiving groove is provided along an axial direction of the cylinder, and one end of the heat dissipation fins are installed on the sidewall of the receiving groove, and the other end extends into the receiving groove, the heat-absorbing member is provided with a receiving cavity for accommodating the cylinder.
A method of operating a refrigerant system, comprising: moving a refrigerant flow through the refrigerant system using one or more compressors; receiving an input signal from a sensor characterized by comparing the input signal to a command setpoint to determine a deviation from said setpoint; adjusting the position of a modulating valve member to effect a change in the amount of the refrigerant flow being directed to a hot gas reheat section (11a, 11b) of the refrigerant system in response to said deviation, said amount defining a hot gas reheat portion of the refrigerant flow; comparing said position to at least one pre-defined value to determine a preferred available internal volume of the hot gas reheat section, the preferred available internal volume being selected from a pre-defined plurality of internal volumes; and commanding the state of at least one control valve to be in one of an open and a closed state in order to direct the hot gas reheat portion of the refrigerant flow through only those parts of the hot gas reheat section that correspond to the preferred available internal volume. moving a refrigerant flow through the refrigerant system using one or more compressors; receiving an input signal from a sensor characterized by comparing the input signal to a command setpoint to determine a deviation from said setpoint; adjusting the position of a modulating valve member to effect a change in the amount of the refrigerant flow being directed to a hot gas reheat section (11a, 11b) of the refrigerant system in response to said deviation, said amount defining a hot gas reheat portion of the refrigerant flow; comparing said position to at least one pre-defined value to determine a preferred available internal volume of the hot gas reheat section, the preferred available internal volume being selected from a pre-defined plurality of internal volumes; and commanding the state of at least one control valve to be in one of an open and a closed state in order to direct the hot gas reheat portion of the refrigerant flow through only those parts of the hot gas reheat section that correspond to the preferred available internal volume.
A water purifying apparatus comprising: a plurality of heads for detachably mounting a plurality of filters, respectively, the plurality of heads each having an inlet part for introducing water and an outlet part for discharging water; a mounting member to which the plurality of heads are mounted in parallel, the mounting member including a plurality of rotation supporting parts rotatably supporting the heads and accommodating the inlet parts and the outlet parts of the heads therein; characterised in further comprising: a connecting cap mounted on the rotation supporting part to connect the inlet part of one head and the outlet part of another head with each other, wherein the connecting cap includes: a flow path part connected between the inlet part and the outlet part; and a cover part extending from the flow path part, the cover part having a shielding plate covering the inlet part and the outlet part of each of the heads in a state in which the connecting cap is fixed to the rotation supporting part, and a supporter that connects the shielding plate to the flow path part. a plurality of heads for detachably mounting a plurality of filters, respectively, the plurality of heads each having an inlet part for introducing water and an outlet part for discharging water; a mounting member to which the plurality of heads are mounted in parallel, the mounting member including a plurality of rotation supporting parts rotatably supporting the heads and accommodating the inlet parts and the outlet parts of the heads therein; characterised in further comprising: a connecting cap mounted on the rotation supporting part to connect the inlet part of one head and the outlet part of another head with each other, wherein the connecting cap includes: a flow path part connected between the inlet part and the outlet part; and a cover part extending from the flow path part, the cover part having a shielding plate covering the inlet part and the outlet part of each of the heads in a state in which the connecting cap is fixed to the rotation supporting part, and a supporter that connects the shielding plate to the flow path part. a connecting cap mounted on the rotation supporting part to connect the inlet part of one head and the outlet part of another head with each other, wherein the connecting cap includes: a flow path part connected between the inlet part and the outlet part; and a cover part extending from the flow path part, the cover part having a shielding plate covering the inlet part and the outlet part of each of the heads in a state in which the connecting cap is fixed to the rotation supporting part, and a supporter that connects the shielding plate to the flow path part. a flow path part connected between the inlet part and the outlet part; and a cover part extending from the flow path part, the cover part having a shielding plate covering the inlet part and the outlet part of each of the heads in a state in which the connecting cap is fixed to the rotation supporting part, and a supporter that connects the shielding plate to the flow path part.
Timepiece barrel for pivotal assembly between a plate and a bar, said plate including a first bore or a first jewel comprising said first bore, said plate or said first jewel comprising an upper surface facing said bar, and said bar comprising a second bore or a second jewel comprising said second bore, said bar or said second jewel comprising a lower surface facing said plate, said barrel including at least one spring housed between a pivoting drum and a cover and hooked between said drum at the outer end thereof and an arbor at the inner end thereof, said arbor pivoting integrally with a ratchet about a pivot axis, said barrel including a one-piece sub-assembly coaxial with said arbor and grouping together, about a core, at least said ratchet and/or said arbor, characterized in that said one-piece sub-assembly comprises said ratchet and said core, which defines at the lower part thereof a pipe, which includes an outer bearing surface on which said drum is pivotally guided at a third bore comprised in said drum, and said pipe also includes a fourth bore into which is pressed said arbor integral in rotation with said core.
A system for acoustically registering probes, comprising: a first acoustically registerable probe coupled to a medium, the first acoustically registerable probe (12, 212) comprising a transducer array configured to transmit first acoustic energy and to receive second acoustic energy; a second acoustically registerable probe coupled to the medium, the second acoustically registerable probe comprising a second transducer array configured to transmit the second acoustic energy and to receive the first acoustic energy; such that when the first acoustically registerable probe and the second acoustically registerable probe are in a field of view of each other acoustic communication therebetween is provided; and a position calibration module configured to determine positions of the first probe and the second probe based on times of flights and signal strengths of the first acoustic energy and the second acoustic energy; wherein the first acoustically registerable probe and the second acoustically registerable probe include bandwidths that share one or more frequencies to permit communication therebetween; and characterized in that the first and second probes (12, 14) are configured to iteratively send and receive acoustic energy with decremented field of view angles to identify a position of each other through the medium carrying the acoustic energy to register the first and second probes (12, 14) in a common coordinate system. a first acoustically registerable probe coupled to a medium, the first acoustically registerable probe (12, 212) comprising a transducer array configured to transmit first acoustic energy and to receive second acoustic energy; a second acoustically registerable probe coupled to the medium, the second acoustically registerable probe comprising a second transducer array configured to transmit the second acoustic energy and to receive the first acoustic energy; such that when the first acoustically registerable probe and the second acoustically registerable probe are in a field of view of each other acoustic communication therebetween is provided; and a position calibration module configured to determine positions of the first probe and the second probe based on times of flights and signal strengths of the first acoustic energy and the second acoustic energy; wherein the first acoustically registerable probe and the second acoustically registerable probe include bandwidths that share one or more frequencies to permit communication therebetween; and characterized in that the first and second probes (12, 14) are configured to iteratively send and receive acoustic energy with decremented field of view angles to identify a position of each other through the medium carrying the acoustic energy to register the first and second probes (12, 14) in a common coordinate system.
A method for transmitting a downlink, DL, grant and DL data to a wireless device, the method being performed by a network node, the method comprising: obtaining an indication for providing the DL data to the wireless device; and transmitting, in a frequency band of a transmission time interval, sTTI, of a short subframe, the DL grant for the wireless device and the DL data for the wireless device, wherein the position of the DL grant in the sTTI frequency band identifies the position of the DL data in the sTTI frequency band; characterised in that a short subframe is shorter than 1 ms, and the DL grant and the DL data are transmitted in a starting Orthogonal Frequency Division Multiplexing, OFDM, symbol of the sTTI. obtaining an indication for providing the DL data to the wireless device; and transmitting, in a frequency band of a transmission time interval, sTTI, of a short subframe, the DL grant for the wireless device and the DL data for the wireless device, wherein the position of the DL grant in the sTTI frequency band identifies the position of the DL data in the sTTI frequency band; characterised in that a short subframe is shorter than 1 ms, and the DL grant and the DL data are transmitted in a starting Orthogonal Frequency Division Multiplexing, OFDM, symbol of the sTTI.
A method of multi-factor authentication that uses quantum communication with a computer system that implements a trusted authority, the method comprising, with a user device: transmitting, to the trusted authority, pulses of photons; receiving, from the trusted authority, a message signed by the trusted authority; retrieving verification information from the memory of the user device; verifying the trusted authority using the verification information and the signed message; receiving, from the trusted authority, obscured measuring bases used in a quantum communication session between the user device and the trusted authority, the obscured measuring bases being generated by the trusted authority using measuring bases it used for measuring the photons of the pulses, device factor information associated with the user device and user factor information associated with a user, wherein the device factor information comprises information for a hash function and the user factor information associated with a user comprises a user password, and wherein the measuring bases are obscured by the trusted authority using results of applying the hash function to the user password; recovering measuring bases, corresponding to the obscured measuring bases, using the hash function and the user password; and deriving secret bits that are shared between the user device and the trusted authority using the measuring bases. transmitting, to the trusted authority, pulses of photons; receiving, from the trusted authority, a message signed by the trusted authority; retrieving verification information from the memory of the user device; verifying the trusted authority using the verification information and the signed message; receiving, from the trusted authority, obscured measuring bases used in a quantum communication session between the user device and the trusted authority, the obscured measuring bases being generated by the trusted authority using measuring bases it used for measuring the photons of the pulses, device factor information associated with the user device and user factor information associated with a user, wherein the device factor information comprises information for a hash function and the user factor information associated with a user comprises a user password, and wherein the measuring bases are obscured by the trusted authority using results of applying the hash function to the user password; recovering measuring bases, corresponding to the obscured measuring bases, using the hash function and the user password; and deriving secret bits that are shared between the user device and the trusted authority using the measuring bases.
Secure electronic voting device, comprising means of reading electronic voting ballots carrying at least one item of voting information previously written by an elector using appropriate writing means not comprised in said electronic voting device, characterised in that it comprises: - means for inserting a voting ballot into said reading means, cooperating with means preventing the withdrawal of said ballot; - means for checking (620, 630) the validity of a vote, issuing a command for transferring said voting ballot to a ballot box, after the item or items of voting information it contains have been taken into account, when said voting ballot and/or the voting conditions are considered valid, said means for checking taking account of at least one item of information for identification and/or authentication of an elector and/or at least one assessor responsible for said vote; - means for processing the item or items of voting information read by said reading means; - means for automatically transferring said voting ballot, after receipt of a signal confirming it has been taken into account and without human intervention, to a secure ballot box, so as to allow double counting of said voting information, on the one hand using the data read by said reading means, and on the other hand in a deferred manner, by reprocessing the voting ballots kept in said ballot box. - means for inserting a voting ballot into said reading means, cooperating with means preventing the withdrawal of said ballot; - means for checking (620, 630) the validity of a vote, issuing a command for transferring said voting ballot to a ballot box, after the item or items of voting information it contains have been taken into account, when said voting ballot and/or the voting conditions are considered valid, said means for checking taking account of at least one item of information for identification and/or authentication of an elector and/or at least one assessor responsible for said vote; - means for processing the item or items of voting information read by said reading means; - means for automatically transferring said voting ballot, after receipt of a signal confirming it has been taken into account and without human intervention, to a secure ballot box,