mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method, the method comprising: receiving , by a ledger proxy , a first plurality of transaction requests, each of the first plurality of transaction requests comprising content information of a corresponding transaction and authentication information of the corresponding transaction; storing , by the ledger proxy, each of a second plurality of transaction requests among the first plurality of transaction requests in a respective request stream of a plurality of request streams , a number of the second plurality of transaction requests being no larger than a number of the first plurality of transaction requests; transmitting , by the ledger proxy and to a ledger server , a storage request for a transaction request stored in a request stream of the plurality of request streams, the storage request comprising i) storage information of the transaction request in the request stream, the storage information comprising a location of the transaction request in the request stream, and ii) authentication information of a transaction corresponding to the transaction request; receiving , by the ledger proxy and from the ledger server, index information corresponding to the storage request for the transaction request, the index information indicating a location of the storage information stored by the ledger server; and transmitting , by the ledger proxy and to a client device, a response for the transaction request, the response comprising the index information corresponding to the transaction request. receiving , by a ledger proxy , a first plurality of transaction requests, each of the first plurality of transaction requests comprising content information of a corresponding transaction and authentication information of the corresponding transaction; storing , by the ledger proxy, each of a second plurality of transaction requests among the first plurality of transaction requests in a respective request stream of a plurality of request streams , a number of the second plurality of transaction requests being no larger than a number of the first plurality of transaction requests; transmitting , by the ledger proxy and to a ledger server , a storage request for a transaction request stored in a request stream of the plurality of request streams, the storage request comprising i) storage information of the transaction request in the request stream, the storage information comprising a location of the transaction request in the request stream, and ii) authentication information of a transaction corresponding to the transaction request; receiving , by the ledger proxy and from the ledger server, index information corresponding to the storage request for the transaction request, the index information indicating a location of the storage information stored by the ledger server; and transmitting , by the ledger proxy and to a client device, a response for the transaction request, the response comprising the index information corresponding to the transaction request.
A PEG-IL-10 agent comprising at least one PEG molecule covalently attached to at least one amino acid residue of at least one subunit of IL-10 for use in the treatment of a proliferative condition in a mammalian subject, wherein the PEG-IL-10 agent is administered to said subject such that a mean IL-10 serum trough concentration of at least 1 ng/ml is maintained over 90% of the period of time of administration and wherein the subject is also treated with a biologically effective amount of at least one immune checkpoint inhibitor, wherein the immune checkpoint inhibitor targets an immune checkpoint selected from the group consisting of CTLA4, PD1, PDL1, LAG3, and BTLA.
Apparatus with a centrifugal pump and a comminuting assembly, which is arranged upstream of an impeller , wherein the comminuting assembly comprises a rotating element , which interacts with a stationary element for the comminution of solid admixtures in a conveying medium, wherein the stationary element has an outer part , which at least partially surrounds an inner part , wherein the stationary element is divided into an outer part and an inner part , wherein the outer part and the inner part consist of different materials, characterized in that the inner part has projections on its radial outer side for formation of a positively locking connection.
A device, comprising: first and second portions ; and a sequential multi-axis hinge assembly that rotatably couples the first and second portions, the sequential multi-axis hinge assembly including: hinge shafts that define hinge axes ; and a set of hinge frames , wherein individual hinge frames of the set of hinge frames include individual cams positioned over respective hinge shafts, and wherein each hinge shaft (208 ) is located in an enclosure (206 A, 206 B) formed by adjacent hinge frames to form a hinge that rotates around the hinge axis of the enclosed hinge shaft; and wherein the sequential multi-axis hinge assembly further comprises a sequencing assembly comprising a shuttle cam (220A ) on an individual hinge shaft that is configured to control a relative sequence of rotation of the individual hinge frames by moving orthogonally to the individual hinge shaft to engage with a recess (308 ) in a timing cam (218A ) on an adjacent hinge shaft (208 ) and thereby block rotation around the individual hinge shaft. first and second portions ; and a sequential multi-axis hinge assembly that rotatably couples the first and second portions, the sequential multi-axis hinge assembly including: hinge shafts that define hinge axes ; and a set of hinge frames , hinge shafts that define hinge axes ; and a set of hinge frames , wherein individual hinge frames of the set of hinge frames include individual cams positioned over respective hinge shafts, and wherein each hinge shaft (208 ) is located in an enclosure (206 A, 206 B) formed by adjacent hinge frames to form a hinge that rotates around the hinge axis of the enclosed hinge shaft; and wherein the sequential multi-axis hinge assembly further comprises a sequencing assembly comprising a shuttle cam (220A ) on an individual hinge shaft that is configured to control a relative sequence of rotation of the individual hinge frames by moving orthogonally to the individual hinge shaft to engage with a recess (308 ) in a timing cam (218A ) on an adjacent hinge shaft (208 ) and thereby block rotation around the individual hinge shaft.
A transmission comprising: a hydraulic unit which operates with a working fluid; an input shaft configured to transmit rotary power to the hydraulic unit; an output shaft configured to transmit rotary power from the hydraulic unit ; and a housing configured to accommodate the hydraulic unit , the input shaft and the output shaft , characterised in that the transmission is capable of selecting a continuously variable transmission or a connection/disconnection device as the hydraulic unit, wherein the input shaft and the output shaft are structured into a double-shaft structure, a unit holder fixed to the housing while holding the hydraulic unit is provided, and to the unit holder, a bearing for the input shaft or the output shaft is provided. a hydraulic unit which operates with a working fluid; an input shaft configured to transmit rotary power to the hydraulic unit; an output shaft configured to transmit rotary power from the hydraulic unit ; and a housing configured to accommodate the hydraulic unit , the input shaft and the output shaft , characterised in that the transmission is capable of selecting a continuously variable transmission or a connection/disconnection device as the hydraulic unit, wherein the input shaft and the output shaft are structured into a double-shaft structure, a unit holder fixed to the housing while holding the hydraulic unit is provided, and to the unit holder, a bearing for the input shaft or the output shaft is provided.
A silicone elastomer-hydrogel hybrid contact lens comprising: a) a silicone elastomer layer comprising an anterior side and a posterior side; and b) a hydrogel layer adhered to the posterior side of the silicone elastomer layer; and a delamination-resistant bond between the silicone elastomer layer and the hydrogel layer; wherein the hydrogel layer is formed by curing a polymerizable composition comprising an elastomer-swellable component that is a monomer having an HLB value of up to 4 and/or a molecular weight of up to 1,200 daltons, and wherein during the formation of the hydrogel layer, the elastomer-swellable component interpenetrates into the silicone elastomer and forms an interpenetrating polymer network providing the delamination-resistant bond. a) a silicone elastomer layer comprising an anterior side and a posterior side; and b) a hydrogel layer adhered to the posterior side of the silicone elastomer layer; and a delamination-resistant bond between the silicone elastomer layer and the hydrogel layer; wherein the hydrogel layer is formed by curing a polymerizable composition comprising an elastomer-swellable component that is a monomer having an HLB value of up to 4 and/or a molecular weight of up to 1,200 daltons, and wherein during the formation of the hydrogel layer, the elastomer-swellable component interpenetrates into the silicone elastomer and forms an interpenetrating polymer network providing the delamination-resistant bond.
An ambient condition detector 10 comprising: at least one sensor 28a; a plurality of substantially identical batteries 16; a plurality of voltage measurement circuits 18b; a plurality of battery switch management circuits 18a; wherein the plurality of voltage measurement circuits are coupled to the battery switch management circuits to provide electrical energy intermittently from the members of the plurality of batteries and where the batteries are switched such that all of the batteries are used to provide energy to control circuits on an intermittent basis, during a sequence of predetermined time intervals wherein during a predetermined time interval of the sequence a selected one battery of the plurality of batteries is used 100% of the time and the others are not used at all; and wherein the one battery is tested to determine when the battery has reached the end of its useful life, and in response thereto, an indicator is generated to provide an indicium of remaining life of all other members of the plurality. at least one sensor 28a; a plurality of substantially identical batteries 16; a plurality of voltage measurement circuits 18b; a plurality of battery switch management circuits 18a; wherein the plurality of voltage measurement circuits are coupled to the battery switch management circuits to provide electrical energy intermittently from the members of the plurality of batteries and where the batteries are switched such that all of the batteries are used to provide energy to control circuits on an intermittent basis, during a sequence of predetermined time intervals wherein during a predetermined time interval of the sequence a selected one battery of the plurality of batteries is used 100% of the time and the others are not used at all; and
A gear shift operation mechanism that rotates a shaft in a shift direction by a main lever , and moves the shaft in a select direction by the main lever , comprising: a screw shaft that configures a ball screw ; a motor that rotates the screw shaft ; a nut that is screwed onto the screw shaft ; a clutch that is disposed on the screw shaft ; and a select lever that is integrated with the screw shaft by switching on the clutch , and has restraint cancelled with respect to the screw shaft by switching off the clutch , wherein one end portion of the main lever is engaged with the nut , the other end is engaged with the shaft , and the select lever is engaged with the main lever , characterized in that the one end portion of the main lever includes a pair of one end arm portions which are formed into a bifurcated shape, and cutout portions of the one end arm portions are respectively engaged with a pair of protruded pins of the nut to be swingable, the select lever is inserted between the pair of one end arm portions to have substantially no clearance and to be relatively movable with respect to the one end arm portions , and the clutch includes an armature and one end portion of the select lever is attached to the armature . a screw shaft that configures a ball screw ; a motor that rotates the screw shaft ; a nut that is screwed onto the screw shaft ; a clutch that is disposed on the screw shaft ; and a select lever that is integrated with the screw shaft by switching on the clutch , and has restraint cancelled with respect to the screw shaft by switching off the clutch , wherein one end portion of the main lever is engaged with the nut , the other end is engaged with the shaft , and the select lever is engaged with the main lever , characterized in that the one end portion of the main lever includes a pair of one end arm portions which are formed into a bifurcated shape, and cutout portions of the one end arm portions are respectively engaged with a pair of protruded pins of the nut to be swingable, the select lever is inserted between the pair of one end arm portions to have substantially no clearance and to be relatively movable with respect to the one end arm portions , and the clutch includes an armature and one end portion of the select lever is attached to the armature .
A meter electronics having a notch filter configured to filter a sensor signal from a sensor assembly in a vibratory meter , the meter electronics comprising: the notch filter communicatively coupled to the sensor assembly and configured to: receive the sensor signal from the sensor assembly , the sensor signal being comprised of a first component at a resonant frequency of the sensor assembly and a second component at a non-resonant frequency; and pass the first component and substantially attenuate the second component with the notch filter, wherein the first component is passed with substantially zero phase shift, wherein the notch filter is adjusted such that the first component is passed by centering a passband of the notch filter at the resonant frequency of the sensor assembly. the notch filter communicatively coupled to the sensor assembly and configured to: receive the sensor signal from the sensor assembly , the sensor signal being comprised of a first component at a resonant frequency of the sensor assembly and a second component at a non-resonant frequency; and pass the first component and substantially attenuate the second component with the notch filter, wherein the first component is passed with substantially zero phase shift, receive the sensor signal from the sensor assembly , the sensor signal being comprised of a first component at a resonant frequency of the sensor assembly and a second component at a non-resonant frequency; and pass the first component and substantially attenuate the second component with the notch filter, wherein the first component is passed with substantially zero phase shift, wherein the notch filter is adjusted such that the first component is passed by centering a passband of the notch filter at the resonant frequency of the sensor assembly.
A system , comprising: a plurality of computing nodes that are coupled to each other over a network and that collectively provide virtual computing services to one or more clients, each of the computing nodes comprising at least one processor and a memory; two or more virtual compute instances, each executing on a respective one of two or more of the computing nodes, wherein each of the virtual compute instances is configured to implement an application component of a distributed application on behalf of a client, and wherein the virtual compute instances are configured to communicate with each other over a data plane network of a service provider computing environment; and a distributed lock manager comprising two or more components , each executing on a respective one of the two or more computing nodes, wherein the distributed lock manager components are configured to share state for one or more locks on respective shared resources, and wherein to share state for the one or more locks, the distributed lock manager components are configured to communicate with each other over a control plane network of the service provider computing environment; wherein one of the application components is configured to invoke a call to the distributed lock manager component that is executing on the computing node on which the virtual compute instance that implements the application component is executing to initiate performance of a lock management operation for a lock on a shared resource that is accessed by the distributed application. a plurality of computing nodes that are coupled to each other over a network and that collectively provide virtual computing services to one or more clients, each of the computing nodes comprising at least one processor and a memory; two or more virtual compute instances, each executing on a respective one of two or more of the computing nodes, wherein each of the virtual compute instances is configured to implement an application component of a distributed application on behalf of a client, and wherein the virtual compute instances are configured to communicate with each other over a data plane network of a service provider computing environment; and a distributed lock manager comprising two or more components , each executing on a respective one of the two or more computing nodes, wherein the distributed lock manager components are configured to share state for one or more locks on respective shared resources, and wherein to share state for the one or more locks, the distributed lock manager components are configured to communicate with each other over a control plane network of the service provider computing environment; wherein one of the application components is configured to invoke a call to the distributed lock manager component that is executing on the computing node on which the virtual compute instance that implements the application component is executing to initiate performance of a lock management operation for a lock on a shared resource that is accessed by the distributed application.
A method, comprising: accessing a request to rollback one or more changes made to parameters of managed objects associated with a communication network 102 within a given time period; retrieving information identifying the one or more changes made to the parameters of the managed objects within the given time period, wherein retrieving information identifying the one or more changes made to the parameters of the managed objects within the given time period includes calling an application programming interface of a differential service provided by the communication network 102 that maintains a record of changes made to parameters of managed objects associated with the communication network; and for each managed object: determining a cumulative changetype associated with the one or more changes made to the parameters of the managed object; and performing an action to apply the determined cumulative changetype to the managed object; wherein the cumulative changetype is determined by merging all changes made to the managed object within the given time period. accessing a request to rollback one or more changes made to parameters of managed objects associated with a communication network 102 within a given time period; retrieving information identifying the one or more changes made to the parameters of the managed objects within the given time period, wherein retrieving information identifying the one or more changes made to the parameters of the managed objects within the given time period includes calling an application programming interface of a differential service provided by the communication network 102 that maintains a record of changes made to parameters of managed objects associated with the communication network; and for each managed object: determining a cumulative changetype associated with the one or more changes made to the parameters of the managed object; and performing an action to apply the determined cumulative changetype to the managed object; wherein the cumulative changetype is determined by merging all changes made to the managed object within the given time period. determining a cumulative changetype associated with the one or more changes made to the parameters of the managed object; and performing an action to apply the determined cumulative changetype to the managed object; wherein the cumulative changetype is determined by merging all changes made to the managed object within the given time period.
A computer-implemented method of facilitating processing within a computing environment, the computer-implemented method characterised as comprising: obtaining an instruction to provide an output to be used in a cryptographic operation, the instruction being a single architected instruction , the single architected instruction using a register to provide a function code of a scalar multiply function to be performed by the instruction of a plurality of scalar multiply functions supported by the instruction, each scalar multiply function of the plurality of scalar multiply functions supported by the instruction having a corresponding function code, and the plurality of scalar multiply functions supported by the instruction including a plurality of elliptic-curve digital signature algorithm functions for a plurality of primes, and a plurality of Edwards-curve digital signature algorithm functions for a plurality of primes; and executing the instruction , the executing comprising: determining , using the function code provided in the register, the scalar multiply function to be performed of the plurality of scalar multiply functions supported by the instruction; obtaining input for the scalar multiply function to be performed, the input comprising at least one source component and a scalar value; and performing the scalar multiply function using the input to provide an output to be used in a cryptographic operation. obtaining an instruction to provide an output to be used in a cryptographic operation, the instruction being a single architected instruction , the single architected instruction using a register to provide a function code of a scalar multiply function to be performed by the instruction of a plurality of scalar multiply functions supported by the instruction, each scalar multiply function of the plurality of scalar multiply functions supported by the instruction having a corresponding function code, and the plurality of scalar multiply functions supported by the instruction including a plurality of elliptic-curve digital signature algorithm functions for a plurality of primes, and a plurality of Edwards-curve digital signature algorithm functions for a plurality of primes; and executing the instruction , the executing comprising: determining , using the function code provided in the register, the scalar multiply function to be performed of the plurality of scalar multiply functions supported by the instruction; obtaining input for the scalar multiply function to be performed, the input comprising at least one source component and a scalar value; and performing the scalar multiply function using the input to provide an output to be used in a cryptographic operation. determining , using the function code provided in the register, the scalar multiply function to be performed of the plurality of scalar multiply functions supported by the instruction; obtaining input for the scalar multiply function to be performed, the input comprising at least one source component and a scalar value; and performing the scalar multiply function using the input to provide an output to be used in a cryptographic operation.
Use of a plasma-polymeric layer as release layer for the release between mould and casting in the casting of non-ferrous metals, wherein the plasma-polymeric layer comprises silicon, hydrogen and carbon, and wherein the coating of the mould with the plasma-polymeric layer is included.