mhurhangee/patent-ind-claim-en huggingface dataset:
A kit for full-range detection of C-reactive protein, which comprises: an M reagent, comprising 0.5~1mg/mL magnetic particles coated with a first antibody, 0.04~0.06% (w/v) surfactant, wherein the surfactant is optionally Tween-20, and 8~12% (w/v) sucrose, its solvent is a phosphate buffer with pH=7.0~8.0; wherein the coating amount of the first antibody is 5~20μg/mg magnetic particles; an R1 reagent, that is a sample treatment solution, which is a citric acid solution with a concentration of 0.1~1M, pH=3.0~4.0; an R2 reagent, comprising acridinium ester coated with a secondary antibody, 0.5-1% casein and 0.5-1% bovine serum albumin, its solvent is a phosphate buffer with pH=7.0-8.0, wherein the coating amount of the secondary antibody is 0.3-0.9μg/μg acridinium ester; a pre-excitation solution and an excitation solution, wherein the pre-excitation solution is 1% (w/v) hydrogen peroxide solution, and the excitation solution is 1 mol/L sodium hydroxide solution; wherein the first antibody and the second antibody are both monoclonal antibodies that can specifically react with C-reactive protein, and the first antibody and the second antibody are directed to different epitopes; wherein the first antibody is 10C11 and the second antibody is 14D9-2. an M reagent, comprising 0.5~1mg/mL magnetic particles coated with a first antibody, 0.04~0.06% (w/v) surfactant, wherein the surfactant is optionally Tween-20, and 8~12% (w/v) sucrose, its solvent is a phosphate buffer with pH=7.0~8.0; wherein the coating amount of the first antibody is 5~20μg/mg magnetic particles; an R1 reagent, that is a sample treatment solution, which is a citric acid solution with a concentration of 0.1~1M, pH=3.0~4.0; an R2 reagent, comprising acridinium ester coated with a secondary antibody, 0.5-1% casein and 0.5-1% bovine serum albumin, its solvent is a phosphate buffer with pH=7.0-8.0, wherein the coating amount of the secondary antibody is 0.3-0.9μg/μg acridinium ester; a pre-excitation solution and an excitation solution, wherein the pre-excitation solution is 1% (w/v) hydrogen peroxide solution, and the excitation solution is 1 mol/L sodium hydroxide solution; wherein the first antibody and the second antibody are both monoclonal antibodies that can specifically react with C-reactive protein, and the first antibody and the second antibody are directed to different epitopes; wherein the first antibody is 10C11 and the second antibody is 14D9-2.
A method for performing wireless communication by a first device , the method comprising: determining (S1310, S1610) a channel occupancy time, COT, based on sensing for channel access; transmitting (S 1320, S1620), to a second device , information related to the COT; transmitting (S610, S1630), within the COT, first sidelink control information, SCI, for scheduling of a physical sidelink shared channel, PSSCH, and second SCI through a physical sidelink control channel, PSCCH; transmitting (S620, S1640), within the COT, the second SCI and a medium access control, MAC, protocol data unit, PDU, through the PSSCH; characterized by determining (S1650) to terminate the COT; and transmitting (S1330, S1660), to the second device , information related to COT termination based on the determination. determining (S1310, S1610) a channel occupancy time, COT, based on sensing for channel access; transmitting (S 1320, S1620), to a second device , information related to the COT; transmitting (S610, S1630), within the COT, first sidelink control information, SCI, for scheduling of a physical sidelink shared channel, PSSCH, and second SCI through a physical sidelink control channel, PSCCH; transmitting (S620, S1640), within the COT, the second SCI and a medium access control, MAC, protocol data unit, PDU, through the PSSCH; characterized by determining (S1650) to terminate the COT; and transmitting (S1330, S1660), to the second device , information related to COT termination based on the determination.
A method comprising: receiving, by a wireless device , one or more radio resource control, RRC, messages comprising configuration parameters indicating: a first downlink bandwidth part, BWP, for activation of a secondary cell; and a second downlink BWP for transitioning from a dormant state to a non-dormant state of the secondary cell; activating the first downlink BWP as an active BWP in response to receiving a medium access control activation command indicating activation of the secondary cell; receiving downlink control information, DCI, comprising a field indicating transitioning the secondary cell from a dormant state to a non-dormant state; and activating the second downlink BWP as the active downlink BWP in response to transitioning the secondary cell to the non-dormant state. receiving, by a wireless device , one or more radio resource control, RRC, messages comprising configuration parameters indicating: a first downlink bandwidth part, BWP, for activation of a secondary cell; and a second downlink BWP for transitioning from a dormant state to a non-dormant state of the secondary cell; a first downlink bandwidth part, BWP, for activation of a secondary cell; and a second downlink BWP for transitioning from a dormant state to a non-dormant state of the secondary cell; activating the first downlink BWP as an active BWP in response to receiving a medium access control activation command indicating activation of the secondary cell; receiving downlink control information, DCI, comprising a field indicating transitioning the secondary cell from a dormant state to a non-dormant state; and activating the second downlink BWP as the active downlink BWP in response to transitioning the secondary cell to the non-dormant state.
A synergistic fungicidal mixture, comprising: a fungicidally effective amount of tricyclazole: and benzovindiflupyr.
A method for selecting a wireless access point, comprising: receiving, by a server, a query request sent by a terminal, wherein the query request carries a query condition; wherein the query condition comprises an estimated position of the terminal and a scanning range set by the terminal; determining, by the server, in multiple wireless access points, APs, that support a fine time measurement FTM mechanism, at least one target AP according to stored service capability information of each of the multiple APs and the query condition; and sending, by the server, to the terminal, a stored MAC address of the at least one target AP and stored information of a frequency band and a channel that are used by the target AP, so that the terminal scans for, according to the MAC address of the at least one target AP, the at least one target AP in the frequency band and on the channel used by the at least one target AP, and performs FTM session negotiation with the at least one target AP. receiving, by a server, a query request sent by a terminal, wherein the query request carries a query condition; wherein the query condition comprises an estimated position of the terminal and a scanning range set by the terminal; determining, by the server, in multiple wireless access points, APs, that support a fine time measurement FTM mechanism, at least one target AP according to stored service capability information of each of the multiple APs and the query condition; and sending, by the server, to the terminal, a stored MAC address of the at least one target AP and stored information of a frequency band and a channel that are used by the target AP, so that the terminal scans for, according to the MAC address of the at least one target AP, the at least one target AP in the frequency band and on the channel used by the at least one target AP, and performs FTM session negotiation with the at least one target AP.
A method of transmitting a device-to-device, D2D, signal, which is transmitted by a user equipment in a wireless communication system, comprising the steps of: mapping a physical sidelink control channel, PSCCH, including D2D control information to first resource blocks, RBs, consecutive in a frequency domain; mapping a Physical sidelink shared channel, PSSCH including D2D data to second RBs consecutive in the frequency domain, and transmitting the PSCCH and the PSSCH in a subframe, wherein the PSSCH is mapped to second RBs consecutive at one end of the first RBs in the frequency domain when one resource pool is configured for the PSCCH and the PSSCH, wherein the PSSCH is mapped to the second RBs that is not consecutive to the first RBs in the frequency domain when each of a resource pool for the PSCCH and a resource pool for the PSSCH is configured, and wherein the D2D control information includes resource allocation information of the D2D data. mapping a physical sidelink control channel, PSCCH, including D2D control information to first resource blocks, RBs, consecutive in a frequency domain; mapping a Physical sidelink shared channel, PSSCH including D2D data to second RBs consecutive in the frequency domain, and transmitting the PSCCH and the PSSCH in a subframe, wherein the PSSCH is mapped to second RBs consecutive at one end of the first RBs in the frequency domain when one resource pool is configured for the PSCCH and the PSSCH, wherein the PSSCH is mapped to the second RBs that is not consecutive to the first RBs in the frequency domain when each of a resource pool for the PSCCH and a resource pool for the PSSCH is configured, and wherein the D2D control information includes resource allocation information of the D2D data.
A composite tapered tubular assembly comprising: a composite tapered tube extending between a first end and a second end , said tube being tapered so as to have a smaller radius R1 at the first end than a radius R2 at the second end ; and a first internal annular wedge provided to be in contact with an inner surface of the tube at said first end and a first external annular wedge provided to be in contact with an outer surface of the tube at said first end and a first nut provided at said first end , said first nut being configured to be connected to said first internal wedge ; and said assembly further comprising: a second external annular wedge provided on the outer surface of the tube and a second internal annular wedge provided to be in contact with the inner surface of said composite tube at said second end , and a second nut connected to an internal surface of the second external annular wedge . a composite tapered tube extending between a first end and a second end , said tube being tapered so as to have a smaller radius R1 at the first end than a radius R2 at the second end ; and a first internal annular wedge provided to be in contact with an inner surface of the tube at said first end and a first external annular wedge provided to be in contact with an outer surface of the tube at said first end and a first nut provided at said first end , said first nut being configured to be connected to said first internal wedge ; and said assembly further comprising: a second external annular wedge provided on the outer surface of the tube and a second internal annular wedge provided to be in contact with the inner surface of said composite tube at said second end , and a second nut connected to an internal surface of the second external annular wedge .
A computer system including instructions stored on a non-transitory computer-readable storage medium, the computer system comprising: a logging table generator configured to generate a logging table corresponding with an original table of an original system targeted for an upgrade to a target table of a target system ; a control table generator configured to generate a control table configured to store a first version identifier associated with a first batch of changes to records of the original table during a first time period of the upgrade of the original table and a second version identifier associated with a second batch of changes to records of the original table during a second time period of the upgrade of the original table ; a change recorder configured to receive an indicator of a change to a record of the original table during execution of at least a portion of the upgrade of the original table in the first time period; and a key recorder configured to store in the logging table a primary key identifying the record of the original table and the version identifier associated with the first time period stored in the control table ; and a change transfer module configured to transfer the first batch of changes identified within the logging table and associated with the first version identifier in the control table to the target table during a first portion of the upgrade process and to transfer the second batch of changes identified within the logging table and associated with the second version identifier in the control table to the target table during a second portion of the upgrade process. a logging table generator configured to generate a logging table corresponding with an original table of an original system targeted for an upgrade to a target table of a target system ; a control table generator configured to generate a control table configured to store a first version identifier associated with a first batch of changes to records of the original table during a first time period of the upgrade of the original table and a second version identifier associated with a second batch of changes to records of the original table during a second time period of the upgrade of the original table ; a change recorder configured to receive an indicator of a change to a record of the original table during execution of at least a portion of the upgrade of the original table in the first time period; and a key recorder configured to store in the logging table a primary key identifying the record of the original table and the version identifier associated with the first time period stored in the control table ; and a change transfer module configured to transfer the first batch of changes identified within the logging table and associated with the first version identifier in the control table to the target table during a first portion of the upgrade process and to transfer the second batch of changes identified within the logging table and associated with the second version identifier in the control table to the target table during a second portion of the upgrade process.
A mobile air-conditioning apparatus containing a composition comprising HFC-1234yf and at least one compound selected from the group consisting of: propane, n-butane, isobutane, 2-methylbutane, n-pentane, and cyclopentane.
A compound or a polymer comprising thereof, the compound comprising formula II: Wherein X is H, CH 3 , or phenyl; and n equals 1 -50. X is H, CH 3 , or phenyl; and n equals 1 -50.
Electrical battery comprising: - at least a battery cell comprising: • a separator , • an anode having an electrolytic face in contact with the separator and a collecting face opposite its electrolytic face , • a cathode having an electrolytic face in contact with the separator and a collecting face opposite its electrolytic face , • said separator being arranged between the anode and the cathode such that the collecting face of the anode and the collecting face of the cathode are arranged on opposite sides of the separator , - a thin film comprising: • at least one electrically isolating layer, • at least one anode contact adapted to electrically contact the anode , • at least one cathode contact adapted to electrically contact the cathode , characterized in that the thin film is: - at least partially flexible, - bent between the anode contact and the cathode contact so as to ensure an electrical contact simultaneously: • between the anode contact and the collecting face of the anode , and • between the cathode contact and the collecting face of the cathode . - at least a battery cell comprising: • a separator , • an anode having an electrolytic face in contact with the separator and a collecting face opposite its electrolytic face , • a cathode having an electrolytic face in contact with the separator and a collecting face opposite its electrolytic face , • said separator being arranged between the anode and the cathode such that the collecting face of the anode and the collecting face of the cathode are arranged on opposite sides of the separator , • a separator , • an anode having an electrolytic face in contact with the separator and a collecting face opposite its electrolytic face , • a cathode having an electrolytic face in contact with the separator and a collecting face opposite its electrolytic face , • said separator being arranged between the anode and the cathode such that the collecting face of the anode and the collecting face of the cathode are arranged on opposite sides of the separator , - a thin film comprising: • at least one electrically isolating layer, • at least one anode contact adapted to electrically contact the anode , • at least one cathode contact adapted to electrically contact the cathode , • at least one electrically isolating layer, • at least one anode contact adapted to electrically contact the anode , • at least one cathode contact adapted to electrically contact the cathode , - at least partially flexible, - bent between the anode contact and the cathode contact so as to ensure an electrical contact simultaneously: • between the anode contact and the collecting face of the anode , and • between the cathode contact and the collecting face of the cathode . • between the anode contact and the collecting face of the anode , and • between the cathode contact and the collecting face of the cathode .
A fuel cell system for supplying anode gas and cathode gas to a fuel cell and causing the fuel cell to generate power according to a load , comprising: a gas supply passage configured to supply one of the anode gas and the cathode gas to the fuel cell ; a refrigerant supply apparatus configured to supply refrigerant for cooling the fuel cell to the fuel cell ; a heat exchanger configured to exchange heat between the refrigerant increased in temperature by the fuel cell and the gas supplied to the gas supply passage ; a component provided in the gas supply passage and configured to circulate the one of the anode gas and the cathode gas discharged from the fuel cell to the fuel cell ; a warm-up control unit configured to control a flow rate of the refrigerant to a predetermined flow rate for warming up the fuel cell when the fuel cell is warmed up; and a gas temperature increase control unit configured to increase the flow rate of the refrigerant to be supplied to the heat exchanger before the amount of steam in the circulating gas increases if predicting the component will be frozen on the basis of the temperature of circulation gas circulated by the component or a parameter correlated with the temperature, and a temperature of supplied gas before joining with the circulation gas when the flow rate of the refrigerant is controlled by the warm-up control unit . a gas supply passage configured to supply one of the anode gas and the cathode gas to the fuel cell ; a refrigerant supply apparatus configured to supply refrigerant for cooling the fuel cell to the fuel cell ; a heat exchanger configured to exchange heat between the refrigerant increased in temperature by the fuel cell and the gas supplied to the gas supply passage ; a component provided in the gas supply passage and configured to circulate the one of the anode gas and the cathode gas discharged from the fuel cell to the fuel cell ; a warm-up control unit configured to control a flow rate of the refrigerant to a predetermined flow rate for warming up the fuel cell when the fuel cell is warmed up; and a gas temperature increase control unit configured to increase the flow rate of the refrigerant to be supplied to the heat exchanger before the amount of steam in the circulating gas increases if predicting the component will be frozen on the basis of the temperature of circulation gas circulated by the component or a parameter correlated with the temperature, and a temperature of supplied gas before joining with the circulation gas when the flow rate of the refrigerant is controlled by the warm-up control unit .
An air conditioning device for controlling humidity and temperature of supply air drawn from an outdoor space into an indoor space, the air conditioning device comprising: - a supply channel having a first blower for conducting supply air from an outdoor space into an indoor space , - an exhaust channel having a second blower for conducting exhaust air from the indoor space into the outdoor space , - a rotating energy exchanger arranged between the supply channel and the exhaust channel, - in the supply channel, a cooler downstream of the energy exchanger for lowering the temperature of the supplied supply air below the dew point, characterized in that the exhaust channel comprises, before the energy exchanger, an additional cooler for lowering the temperature of the exhaust air stream before the energy exchanger. - a supply channel having a first blower for conducting supply air from an outdoor space into an indoor space , - an exhaust channel having a second blower for conducting exhaust air from the indoor space into the outdoor space , - a rotating energy exchanger arranged between the supply channel and the exhaust channel, - in the supply channel, a cooler downstream of the energy exchanger for lowering the temperature of the supplied supply air below the dew point, characterized in that the exhaust channel comprises, before the energy exchanger, an additional cooler for lowering the temperature of the exhaust air stream before the energy exchanger.
A discontinuous fiber-reinforced composite material comprising a discontinuous reinforcing fiber aggregate of discontinuous reinforcing fibers having a number average fiber length of 3 to 100 mm and a matrix resin, the discontinuous reinforcing fiber aggregate including a plurality of discontinuous reinforcing fiber bundles having a predetermined number of unidirectionally-bundled single yarns of the discontinuous reinforcing fiber, wherein each of the discontinuous reinforcing fiber bundles has a cut surface inclined at a predetermined angle with respect to an orientation direction of the single yarns and the discontinuous reinforcing fiber bundles have different fiber bundle lengths, characterized in that the shorter a discontinuous fiber bundle length, which is defined as a distance between both ends along the orientation direction of the single yarns is, the smaller a tip angle defined as an acute angle at an end of a two-dimensional plane projection of the discontinuous reinforcing fiber bundle is.
A method for producing a seat core material that has a foamed molded substrate and a frame member embedded in a periphery thereof, said method comprising the steps of: (a) heating thermoplastic resin expanded beads in a mold cavity , in which the frame member has been disposed, to fusion-bond the expanded beads to each other and to obtain the foamed molded substrate with the frame member being embedded in the periphery thereof; and (b) simultaneously with step (a) or after step (a), forming a void cavity (S, S') in the foamed molded substrate at a position along and adjacent to the frame member , wherein said void cavity (S, S') has a size and shape that allows a relative displacement between the frame member and the foamed molded substrate when the foamed molded substrate shrinks after step (b). (a) heating thermoplastic resin expanded beads in a mold cavity , in which the frame member has been disposed, to fusion-bond the expanded beads to each other and to obtain the foamed molded substrate with the frame member being embedded in the periphery thereof; and (b) simultaneously with step (a) or after step (a), forming a void cavity (S, S') in the foamed molded substrate at a position along and adjacent to the frame member ,