mhurhangee/patent-ind-claim-en huggingface dataset:
A bioreactor arrangement for producing a biopolymer expressed by a cell, wherein the bioreactor arrangement comprises a bioreactor system and a chromatography system wherein the bioreactor system comprises: a cell culture vessel for holding a medium comprising the biopolymer and waste products wherein the cell culture vessel comprises a product harvest module , wherein the product harvest module has an outlet , and wherein the chromatography system comprises: a first chromatography unit and a second chromatography unit both comprising material having affinity for the biopolymer, wherein the first chromatography unit has an inlet and an outlet and the second chromatography unit has an inlet and an outlet , wherein the outlet of the product harvest module is in fluid connection with the inlet of the first chromatography unit and in fluid connection with the inlet of the second chromatography unit , wherein a first valve means is located between the outlet of the product harvest module and the inlet of the first chromatography unit , and a second valve means is located between the outlet of the product harvest module and the inlet of the second chromatography unit , wherein the outlet of the first chromatography unit is in fluid connection with the inlet of the second chromatography unit , and a third valve means is located between the outlet of the first chromatography unit and the inlet of the second chromatography unit , and the outlet of the second chromatography unit is in fluid connection with the inlet of the first chromatography unit , and a fourth valve means is located between the outlet of the second chromatography unit and the inlet of the first chromatography unit , and wherein the chromatography system is kept at a temperature of 28-38°C for enhancing removal of residual DNA or host cell protein or both. a cell culture vessel for holding a medium comprising the biopolymer and waste products wherein the cell culture vessel comprises a product harvest module , wherein the product harvest module has an outlet , and wherein the chromatography system comprises: a first chromatography unit and a second chromatography unit both comprising material having affinity for the biopolymer, wherein the first chromatography unit has an inlet and an outlet and the second chromatography unit has an inlet and an outlet ,
A System on Chip comprising: - at least two hardware masters ; - a security circuit ; - a communication infrastructure for communication between the at least two hardware masters and the security circuit , the communication infrastructure being based on a given interface communication protocol; each hardware master being configured to send a request to the security circuit for execution of the request by the security circuit through the communication infrastructure , each request comprising at least one service identifier identifying a service, wherein the security circuit comprises a Secure Mailbox , the Secure Mailbox comprising: - a filter configured to filter the requests received from the hardware masters, said filter being configured to determine at least one indicator bit, in response to the receipt of a request from a hardware master, using at least a part of an identifier associated with said hardware master, said indicator bit indicating whether said hardware master is allowed access to the Security circuit, said identifier being an hardware identifier received with the request through the communication protocol, said filter being configured to filter the requests based on the bit indicators determined for each request; the security circuit being further configured to execute the filtered requests. - at least two hardware masters ; - a security circuit ; - a communication infrastructure for communication between the at least two hardware masters and the security circuit , the communication infrastructure being based on a given interface communication protocol; each hardware master being configured to send a request to the security circuit for execution of the request by the security circuit through the communication infrastructure , each request comprising at least one service identifier identifying a service, wherein the security circuit comprises a Secure Mailbox , the Secure Mailbox comprising: - a filter configured to filter the requests received from the hardware masters, said filter being configured to determine at least one indicator bit, in response to the receipt of a request from a hardware master, using at least a part of an identifier associated with said hardware master, said indicator bit indicating whether said hardware master is allowed access to the Security circuit, said identifier being an hardware identifier received with the request through the communication protocol, said filter being configured to filter the requests based on the bit indicators determined for each request;
A method of preparing a high-conductivity pantograph carbon contact strip, comprising steps of: preparing a preform: obtaining a pantograph carbon contact strip preform with communication pores; sintering: under the condition of air isolation, sintering the pantograph carbon contact strip preform at a temperature of 1000-1200°C for a sintering time of 15-20h so as to obtain a semi-finished carbon contact strip; and graphitization: placing the semi-finished carbon contact strip into a graphitization furnace, heating to 2300-2500°C and holding for 2-4h; immersing: placing the semi-finished carbon contact strip into a calcinator, heating to 800-1300°C after vacuumization, heating a copper alloy and a brazing filler metal to a molten state at the same time, then pouring the molten copper alloy liquid into the calcinator to immerse the semi-finished carbon contact strip, next introducing a protective gas into the calcinator to a pressure of 3-8MPa, and applying a magnetic field of 3-14T at the same time and holding for 1-2h so as to complete immersion to obtain the high-conductivity pantograph carbon contact strip; wherein the copper alloy liquid contains the brazing filler metal with a mass fraction of 1%-10%, wherein at the step of preparing the preform, a given amount of graphene and fiber is added into water to prepare a homogeneous and stable aqueous solution, then a metal base is pre-cooled in liquid nitrogen for a period of time, a container holding the aqueous solution is placed on the metal base for a period of time, the aqueous solution in the container performs ice crystal growth along a temperature gradient to force graphene and fiber to be arranged at a given orientation, embedded between ice crystal columns and gradually cured so as to obtain a carbon framework with a given shape, and then the carbon framework is lyophilized using a lyophilizer for a period of time to realize ice crystal sublimation so as to obtain the pantograph carbon contact strip preform with communication pores. preparing a preform: obtaining a pantograph carbon contact strip preform with communication pores; sintering: under the condition of air isolation, sintering the pantograph carbon contact strip preform at a temperature of 1000-1200°C for a sintering time of 15-20h so as to obtain a semi-finished carbon contact strip; and graphitization: placing the semi-finished carbon contact strip into a graphitization furnace, heating to 2300-2500°C and holding for 2-4h; immersing: placing the semi-finished carbon contact strip into a calcinator, heating to 800-1300°C after vacuumization, heating a copper alloy and a brazing filler metal to a molten state at the same time, then pouring the molten copper alloy liquid into the calcinator to immerse the semi-finished carbon contact strip, next introducing a protective gas into the calcinator to a pressure of 3-8MPa, and applying a magnetic field of 3-14T at the same time and holding for 1-2h so as to complete immersion to obtain the high-conductivity pantograph carbon contact strip; wherein the copper alloy liquid contains the brazing filler metal with a mass fraction of 1%-10%,
A process for preparing a sulfurized non-overbased calcium phenate detergent having a reduced content of un-sulfurized alkyl-substituted phenol and the salt thereof, the process comprising the steps of: (a) adding an organic solvent to the detergent, wherein the organic solvent has a boiling point of equal or above the boiling point of the un-sulfurized alkyl-substituted phenol; and (b) distilling the organic solvent from the detergent thereby reducing the content of the un-sulfurized alkyl-substituted phenol, wherein the sulfurized non-overbased calcium phenate detergent is an alkyl-substituted phenate, wherein the alkyl-substituted phenate has been alkylated by a propylene tetramer, and wherein "non-overbased" refers to a TBN ranging from 10 to 250 in oil-free basis. (a) adding an organic solvent to the detergent, wherein the organic solvent has a boiling point of equal or above the boiling point of the un-sulfurized alkyl-substituted phenol; and (b) distilling the organic solvent from the detergent thereby reducing the content of the un-sulfurized alkyl-substituted phenol, wherein the sulfurized non-overbased calcium phenate detergent is an alkyl-substituted phenate, wherein the alkyl-substituted phenate has been alkylated by a propylene tetramer, and wherein "non-overbased" refers to a TBN ranging from 10 to 250 in oil-free basis.
A rodent whose genome comprises: (a) a lambda light chain comprising only one human Ig light chain lambda V region and one or more human Ig light chain lambda J regions upstream of a host rodent lambda constant region; and (b) a plurality of human IgH V regions, one or more human D regions and one or more human J regions upstream of the host rodent constant region, wherein the rodent is able to produce a repertoire of chimaeric antibodies, or chimaeric lambda light chains or chimaeric heavy chains, having a rodent constant region and a human variable region; and the host rodent lambda light chain constant region is an endogenous host wild-type lambda light chain constant region located at the wild type lambda light chain locus. (a) a lambda light chain comprising only one human Ig light chain lambda V region and one or more human Ig light chain lambda J regions upstream of a host rodent lambda constant region; and (b) a plurality of human IgH V regions, one or more human D regions and one or more human J regions upstream of the host rodent constant region, wherein the rodent is able to produce a repertoire of chimaeric antibodies, or chimaeric lambda light chains or chimaeric heavy chains, having a rodent constant region and a human variable region; and the host rodent lambda light chain constant region is an endogenous host wild-type lambda light chain constant region located at the wild type lambda light chain locus.
A method performed by a first communication device for performing a radio transmission to a second communication device, the method comprising: - receiving , from the second communication device, a Sequence Rotation Hopping, SRH, pattern index, - generating a base sequence, - replicating the base sequence per each Reference Signal, RS, of RSs spanned by an Orthogonal Cover Code, OCC, - generating , based on the received SRH pattern index, an SRH pattern having a length equal to a number of the RSs spanned by the OCC, - applying , to each replicated base sequence, an individual RS-specific circular rotation in the frequency domain according to the generated SRH pattern, wherein each rotated base sequence corresponds to an RS from the RSs spanned by the OCC, - multiplying each RS with a respective value of the OCC, - mapping each frequency domain RS to a subframe, - converting the subframe to a time domain, and - transmitting the subframe to the second communication device. - receiving , from the second communication device, a Sequence Rotation Hopping, SRH, pattern index, - generating a base sequence, - replicating the base sequence per each Reference Signal, RS, of RSs spanned by an Orthogonal Cover Code, OCC, - generating , based on the received SRH pattern index, an SRH pattern having a length equal to a number of the RSs spanned by the OCC, - applying , to each replicated base sequence, an individual RS-specific circular rotation in the frequency domain according to the generated SRH pattern, wherein each rotated base sequence corresponds to an RS from the RSs spanned by the OCC, - multiplying each RS with a respective value of the OCC, - mapping each frequency domain RS to a subframe, - converting the subframe to a time domain, and - transmitting the subframe to the second communication device.
A method for alignment of a pattern printed on a material for an absorbent article by a rotary printing device , comprising: a. providing a first composition from a first chamber ; b. providing a second composition comprising a detectable agent from a second chamber ; c. wherein the first composition from the first chamber and the second composition from the second chamber are supplied to the same anilox roller or directly to the same rotary printing cylinder; d. and printing the first and second composition on the material for an absorbent article by a rotary printing cylinder, characterized in that the first composition comprises a functional agent selected from a skin beneficial agent, an adhesive, a cooling or heat generating agent, or an antimicrobial agent; and wherein the second composition comprises a detectable agent that emits light in the UV fluorescent or visible light spectra; and wherein the second composition also comprises the first composition. a. providing a first composition from a first chamber ; b. providing a second composition comprising a detectable agent from a second chamber ; c. wherein the first composition from the first chamber and the second composition from the second chamber are supplied to the same anilox roller or directly to the same rotary printing cylinder; d. and printing the first and second composition on the material for an absorbent article by a rotary printing cylinder,
A system for decryption of one or more payloads, the system comprising: a hardware security module implemented by at least one processor for decrypting encrypted elements of received payloads, the hardware security module operatively connected to at least one decryption server; wherein the at least one decryption server is configured to receive a particular payload, the particular payload comprising at least one encrypted element; and transmit the particular payload to the hardware security module for decryption of the at least one encrypted element; at least one read-only database, the at least one read-only database configured to store data for authenticating the payloads and requests for decrypting encrypted elements of the received payloads; a frontend server operatively connected to the at least one ready-only database, the frontend server configured to: 1) retrieve authentication data associated with a particular received payload; and 2) compare the authentication data to the particular received payload to authenticate the particular received payload before the particular received payload is transmitted to the hardware security module; and a master read-only database operatively connected to the at least one read-only database, the master read-only database configured for refreshing the authentication data stored at the at least one read-only database. a hardware security module implemented by at least one processor for decrypting encrypted elements of received payloads, the hardware security module operatively connected to at least one decryption server; wherein the at least one decryption server is configured to receive a particular payload, the particular payload comprising at least one encrypted element; and transmit the particular payload to the hardware security module for decryption of the at least one encrypted element; at least one read-only database, the at least one read-only database configured to store data for authenticating the payloads and requests for decrypting encrypted elements of the received payloads; a frontend server operatively connected to the at least one ready-only database, the frontend server configured to: 1) retrieve authentication data associated with a particular received payload; and 2) compare the authentication data to the particular received payload to authenticate the particular received payload before the particular received payload is transmitted to the hardware security module; and a master read-only database operatively connected to the at least one read-only database, the master read-only database configured for refreshing the authentication data stored at the at least one read-only database.
A method of manufacturing a 25-Hydroxy Vitamin D3 and β-cyclodextrin complex, the method being characterized by the following steps: 1) Adding β-cyclodextrin into deionized (DI) water, heating to 45 - 65 °C while stirring, until dissolved, keeping stirring and holding the temperature until next step; 2) Dissolving 25-Hydroxy Vitamin D3 crystals into an ethanol solution, stirring until dissolved; wherein the mass ratio of 25-Hydroxy Vitamin D3 to the volume of ethanol is 1:4 ∼ 1:8; 3) Taking the solution from step 2, adding it into the aqueous solution from step 1, slowly and stirring while adding, thereby forming white particles which precipitate out of the solution; continuing to stir while starting to cool the contents to 15-25 °C; then filtering out the precipitate; rinsing and drying to obtain the 25-Hydroxy Vitamin D3 and β-cyclodextrin complex. 1) Adding β-cyclodextrin into deionized (DI) water, heating to 45 - 65 °C while stirring, until dissolved, keeping stirring and holding the temperature until next step; 2) Dissolving 25-Hydroxy Vitamin D3 crystals into an ethanol solution, stirring until dissolved; wherein the mass ratio of 25-Hydroxy Vitamin D3 to the volume of ethanol is 1:4 ∼ 1:8; 3) Taking the solution from step 2, adding it into the aqueous solution from step 1, slowly and stirring while adding, thereby forming white particles which precipitate out of the solution; continuing to stir while starting to cool the contents to 15-25 °C; then filtering out the precipitate; rinsing and drying to obtain the 25-Hydroxy Vitamin D3 and β-cyclodextrin complex.
An air conditioner, comprising: a plurality of indoor units configured to perform air conditioning; and one or more outdoor units connected to the plurality of indoor units to drive the indoor units, wherein each of the one or more outdoor units comprises a control unit having a controller configured to determine a reception error of an upgrade data to drive the indoor units using an outdoor unit program from a central control server and a storage unit configured to store the outdoor unit program and the upgrade data for the outdoor unit program, wherein the controller is configured to determine an error occurred while receiving the upgrade data for the outdoor unit program for driving the indoor units and the outdoor unit, and is configured to request retransmission of the upgrade data when the error has occurred, characterized in that the central control server is configured to transmit upgrade data to all of the one or more outdoor units or to selectively specified outdoor units at the same time, and in that the controller is configured to perform an upgrade when the upgrade data is collectively transmitted to all of the one or more outdoor units without specifying the address, and to perform an upgrade if an address is identical thereto when the upgrade data is transmitted subsequent to specifying the address. a plurality of indoor units configured to perform air conditioning; and one or more outdoor units connected to the plurality of indoor units to drive the indoor units, wherein each of the one or more outdoor units comprises a control unit having a controller configured to determine a reception error of an upgrade data to drive the indoor units using an outdoor unit program from a central control server and a storage unit configured to store the outdoor unit program and the upgrade data for the outdoor unit program, wherein the controller is configured to determine an error occurred while receiving the upgrade data for the outdoor unit program for driving the indoor units and the outdoor unit, and is configured to request retransmission of the upgrade data when the error has occurred, the central control server is configured to transmit upgrade data to all of the one or more outdoor units or to selectively specified outdoor units at the same time, and in that the controller is configured to perform an upgrade when the upgrade data is collectively transmitted to all of the one or more outdoor units without specifying the address, and to perform an upgrade if an address is identical thereto when the upgrade data is transmitted subsequent to specifying the address.
A method in a first network peer node for determining a Proxy Mobile Internet Protocol version 6, PMIPv6, control plane used by a second network peer node, the first and second network peer nodes being in an Internet Protocol version 4, IPv4, transport network, the method comprising: sending , to the second network peer node, a first Proxy Mobile IP, PMIP, message in a first control plane format, and a second PMIP message in a second control plane format; receiving only one communication response with respect to the first PMIP message or the second PMIP message; and determining a version of the PMIPv6 control plane which is utilized by the second network peer node based on the only one communication response received with respect to one of the first PMIP message or the second PMIP message, such that the PIMPv6 control plane version is the control plane format associated with the received communication response. sending , to the second network peer node, a first Proxy Mobile IP, PMIP, message in a first control plane format, and a second PMIP message in a second control plane format; receiving only one communication response with respect to the first PMIP message or the second PMIP message; and determining a version of the PMIPv6 control plane which is utilized by the second network peer node based on the only one communication response received with respect to one of the first PMIP message or the second PMIP message, such that the PIMPv6 control plane version is the control plane format associated with the received communication response.