mhurhangee/patent-ind-claim-en huggingface dataset:
A method for use in a host computer having a virtualization software that supports execution of a plurality of virtual machines , the virtualization software including a virtual machine monitor for each of the virtual machines , wherein each virtual machine monitor emulates a virtual central processing unit, CPU, for a corresponding virtual machine , the method of halting execution of a virtual CPU of a virtual machine , the method comprising: receiving a first halt instruction at a virtual machine monitor from a corresponding virtual machine ; in response to receiving the first halt instruction , determining by the virtual machine monitor whether the virtual machine is latency sensitive; if the virtual machine is determined to be latency sensitive and to have exclusive affinity with a physical CPU on which the virtual CPU executes, then issuing directly, without executing a system call to a kernel , a second halt instruction from the virtual machine monitor to the physical CPU to halt the physical CPU on which the virtual CPU executes without deallocating the physical CPU from execution of the virtual CPU . receiving a first halt instruction at a virtual machine monitor from a corresponding virtual machine ; in response to receiving the first halt instruction , determining by the virtual machine monitor whether the virtual machine is latency sensitive; if the virtual machine is determined to be latency sensitive and to have exclusive affinity with a physical CPU on which the virtual CPU executes, then issuing directly, without executing a system call to a kernel , a second halt instruction from the virtual machine monitor to the physical CPU to halt the physical CPU on which the virtual CPU executes without deallocating the physical CPU from execution of the virtual CPU .
A presetting device of forming rollers for rolling machines for making external threads on cylindrical bodies or pieces to be formed (C) of mechanical parts, such as shafts, bars, rods, etc., for various applications, said presetting device being external, independent and autonomous with respect to a rolling machine, characterised in that it comprises a support frame, consisting of a ground support plane and vertical support elements , respectively supporting a sliding guide of a measuring instrument of the laser type and a tool -holder support or shaft , predisposed to fit into a coupling with a threading roller at a through hole made on the exposed face thereof; further characterised in that the laser , when in use being moved along the sliding guide , measures the angular position ( φ) of the beginning of the thread by determining the characteristic points of a thread arranged axially along a roller generatrix with respect to a predetermined reference plane depending on the coupling of the tab of the tool-holder shaft with a slot of the threading roller , the sliding guide , parallel to the ground support plane , axially defines the movement, powered by a motor means , of the laser and in that the tool-holder shaft , with longitudinal axis (X) parallel to the sliding guide , is provided along the external surface with a longitudinally extending tab , predisposed to couple with a slot that extends throughout the entire internal surface of the threading roller , said presetting device having a calculation unit , equipped with dedicated software, for processing the data detected by the laser and determining the angular position (φ)of the beginning of the thread of the forming roller with respect to the predetermined reference plane.
In a service layer of a Machine-to-Machine, M2M, or Internet of Things, IoT, network, a method comprising: receiving instructions at the service layer from a 3GPP network function , wherein the instructions are used by the service layer to configure charging policies within a Service Domain Charging Function, the charging policies containing charging rules; receiving charging information from an underlying 3GPP network function , wherein the charging information includes one or more of a 3GPP external identifier, 3GPP subscriber information and a 3GPP session status; correlating, based on the configured charging policies and the charging information, the 3GPP external identifier with a service layer identifier; and creating, based on the correlating, a charging data record including the 3GPP external identifier and the service layer identifier. receiving instructions at the service layer from a 3GPP network function , wherein the instructions are used by the service layer to configure charging policies within a Service Domain Charging Function, the charging policies containing charging rules; receiving charging information from an underlying 3GPP network function , wherein the charging information includes one or more of a 3GPP external identifier, 3GPP subscriber information and a 3GPP session status; correlating, based on the configured charging policies and the charging information, the 3GPP external identifier with a service layer identifier; and creating, based on the correlating, a charging data record including the 3GPP external identifier and the service layer identifier.
A process comprising: forming a conductive film comprising a plurality of interconnecting anisotropically shaped nanostructures; and etching the conductive film according to a pattern to provide an unetched region having a first resistivity, a first transmission and a first haze and an etched region having a second resistivity, a second transmission and a second haze; wherein the etching comprises contacting the conductive film with an etchant solution, wherein the etchant solution includes an oxidizer and a halide, and severing at least some nanostructures of the etched region, and wherein said second resistivity of said etched region is higher than said first resistivity of said unetched region, a ratio of the second resistivity over the first resistivity is at least 1000; the first transmission differs from the second transmission by less than 5%, and the first haze differs from the second haze by less than 0.5%. forming a conductive film comprising a plurality of interconnecting anisotropically shaped nanostructures; and etching the conductive film according to a pattern to provide an unetched region having a first resistivity, a first transmission and a first haze and an etched region having a second resistivity, a second transmission and a second haze; wherein the etching comprises contacting the conductive film with an etchant solution, wherein the etchant solution includes an oxidizer and a halide, and severing at least some nanostructures of the etched region, and wherein said second resistivity of said etched region is higher than said first resistivity of said unetched region, a ratio of the second resistivity over the first resistivity is at least 1000; the first transmission differs from the second transmission by less than 5%, and the first haze differs from the second haze by less than 0.5%.
A method to accelerate electrons to relativistic energies, comprising the steps of generating, by an electron source provided as one of a gas jet, an electron gun and emission from a metal layer, electrons with an initial energy, said initial energy depending on the type of electron source used and ranging from essentially zero to at most 100 keV; providing, at the location of the electrons, at least two THz pulses (10, 20; 60, 70) synchronized to an instant of time of the electron generation; generating, at the location of the electrons, a non-steady resultant electric field by superimposing electric fields of the at least two THz pulses; making the electrons to interact with the resultant electric field accordant to a temporal evolution of the electric field strengths of the THz pulses, thereby increasing electron energy, and thus, accelerating the electrons along a propagation path , wherein synchronizing the provision of the THz pulses and the instant of time of the electron generation to one another takes place by providing, at the location of the electrons at the instant of time of the electron generation, each of the THz pulses as a THz pulse with an electric field of predetermined phase, said phase being the same for each THz pulse, and by generating the non-steady resultant electric field as an electric field with an electric field strength having a direction that represents an accelerating influence on the electrons, the method characterized by the application of no waveguides providing, at the location of the electrons, at least two THz pulses (10, 20; 60, 70) synchronized to an instant of time of the electron generation; generating, at the location of the electrons, a non-steady resultant electric field by superimposing electric fields of the at least two THz pulses; making the electrons to interact with the resultant electric field accordant to a temporal evolution of the electric field strengths of the THz pulses, thereby increasing electron energy, and thus, accelerating the electrons along a propagation path , wherein synchronizing the provision of the THz pulses and the instant of time of the electron generation to one another takes place by providing, at the location of the electrons at the instant of time of the electron generation, each of the THz pulses as a THz pulse with an electric field of predetermined phase, said phase being the same for each THz pulse, and by generating the non-steady resultant electric field as an electric field with an electric field strength having a direction that represents an accelerating influence on the electrons, the method characterized by the application of no waveguides
Method for detecting losses of working fluid in a closed thermodynamic cycle , in which there is a two-phase state, wherein • vibrations are measured in at least two dimensions by means of a plurality of acceleration sensors , the vibrations of at least one component of the system in which the working fluid is present in two phases, • said measured data are recorded, • time series are formed from the latter, • said time series are transformed into the frequency domain, wherein frequency spectra are generated , • the frequency spectra are listed according to time and recorded in different operating states , • the frequency spectra are correlated with one another according to different operating times , • differences of the frequency spectra are detected with the same operating states, • and with a shift of the frequency spectra a warning signal is output, • acceleration sensors detect vibrations excited by the system and characterised in that at least one oscillation generator dampens said vibrations excited by the system by means of opposite phase vibrations. • vibrations are measured in at least two dimensions by means of a plurality of acceleration sensors , the vibrations of at least one component of the system in which the working fluid is present in two phases, • said measured data are recorded, • time series are formed from the latter, • said time series are transformed into the frequency domain, wherein frequency spectra are generated , • the frequency spectra are listed according to time and recorded in different operating states , • the frequency spectra are correlated with one another according to different operating times , • differences of the frequency spectra are detected with the same operating states, • and with a shift of the frequency spectra a warning signal is output, • acceleration sensors detect vibrations excited by the system and
An inhaler article comprising: a body extending along a longitudinal axis from a mouthpiece end to a distal end ; a mouthpiece air outlet and a distal air inlet ; a capsule cavity within the body and bounded downstream by a mouthpiece ; a separator between the capsule cavity and the mouthpiece comprising at least one aperture to form an air flow path from the distal air inlet through the capsule cavity , through the mouthpiece to the mouthpiece air outlet ; characterized in that the inhaler article further comprises a coating layer of flavour disposed on an interior surface of the mouthpiece and a protective layer disposed on the coating layer of flavour . a body extending along a longitudinal axis from a mouthpiece end to a distal end ; a mouthpiece air outlet and a distal air inlet ; a capsule cavity within the body and bounded downstream by a mouthpiece ; a separator between the capsule cavity and the mouthpiece comprising at least one aperture to form an air flow path from the distal air inlet through the capsule cavity , through the mouthpiece to the mouthpiece air outlet ; characterized in that the inhaler article further comprises a coating layer of flavour disposed on an interior surface of the mouthpiece and a protective layer disposed on the coating layer of flavour .
An imaging lens consisting of: a negative first lens (L1) having a concave image-side surface; a positive second lens (L2); a negative third lens (L3); a positive fourth lens (L4); a positive fifth lens (L5) having a convex image-side surface; and a negative sixth lens (L6), which are in this order from an object side, wherein all of the lenses constituting the lens system are single lenses, which are not cemented lenses, and wherein a stop (St) is arranged closer to the object side than an image-side surface of the fourth lens is arranged, and characterized in that when a refractive index of a material of the third lens for d-line is Nd3, the following formula (1-1) is satisfied: 1.55 < Nd 3 < 1.65 a negative first lens (L1) having a concave image-side surface; a positive second lens (L2); a negative third lens (L3); a positive fourth lens (L4); a positive fifth lens (L5) having a convex image-side surface; and a negative sixth lens (L6), which are in this order from an object side,
A composition preferably in the form of a biodegradable hydrogel comprising a cross-linking agent having crosslinking functional groups able to form cross-links with a primary amine and selected from carbonates, N-hydroxysuccinimide (NHS), imidazole activated acid and ionic cross-linking using carboxyl groups; wherein said composition comprises more than one individual co-polymer(s) wherein the co-polymer comprises a water soluble backbone polymer having in at least one end a dendritic or hyperbranched polymer, wherein said dendritic or hyperbranched polymer is of generation 4, 5, 6 or 7 (G4, G5, G6 or G7) and wherein at least one functional group comprising a carboxylic amine is covalently attached to the periphery of the dendritic or hyperbranched polymer, wherein said dendritic or hyperbranched polymer comprises the monomer 2, 2-Bis(hydroxymethyl)propionic acid (bis-MPA); wherein the molar ratio between crosslinking functional groups on the cross-linking agent and the carboxylic amines of the co-polymer are in the range of 1:4 to 1:64, such as 1:4 to 1:32, such as 1:64, 1:32, 1:16; 1:8, or 1:4, preferably about 1:16 to 1:32 for use as a medicament for treating and/or preventing bacterial infections. wherein the molar ratio between crosslinking functional groups on the cross-linking agent and the carboxylic amines of the co-polymer are in the range of 1:4 to 1:64, such as 1:4 to 1:32, such as 1:64, 1:32, 1:16; 1:8, or 1:4, preferably about 1:16 to 1:32 for use as a medicament for treating and/or preventing bacterial infections.
Method for user-specific acquisition of information (IN) which is stored on a cloud-capable database (DB), the information (IN) being present on the database (DB) as different types of information and/or in different data formats, the user having an OPC UA client (CL) which is in a communication link with an OPC UA server (SE), the OPC UA server (SE) has a configuration module (KM), which configuration module (KM) is designed to create, aggregate and adapt information models, the OPC UA server (SE) interacting with an application programming interface (API) of the database (DB), which application programming interface (API) defines requests and commands for accessing the database (DB), comprising: - creating and loading a user-specific information model (IM) onto the OPC UA server (SE) by means of the configuration module (KM), the user-specific information model (IM) defining at least one information item (IN) or a plurality of information items (IN) which are to be queried from the database (DB); - Querying the information (IN) defined in the user-specific information model (IM) from the database (DB) by means of the application programming interface (API) and passing the information (IN) from the application programming interface (API) to the OPC UA server (SE); - Converting the queried information (IN) into OPC UA-compliant structural data; and - transmitting the structure data from the OPC UA server (SE) to the OPC UA client (CL), characterized in that , in the course of creating the user-specific information module (IM), the availability of at least one of the items of information (IN) to be queried on the database (DB) is checked by means of a request telegram sent to the database (DB) via the application programming interface (API). - creating and loading a user-specific information model (IM) onto the OPC UA server (SE) by means of the configuration module (KM), the user-specific information model (IM) defining at least one information item (IN) or a plurality of information items (IN) which are to be queried from the database (DB); - Querying the information (IN) defined in the user-specific information model (IM) from the database (DB) by means of the application programming interface (API) and passing the information (IN) from the application programming interface (API) to the OPC UA server (SE); - Converting the queried information (IN) into OPC UA-compliant structural data; and - transmitting the structure data from the OPC UA server (SE) to the OPC UA client (CL),
An information processing apparatus, comprising: a recognizing portion configured to perform image recognition processing with respect to an image photographed by a photographing portion and calculate, for each recognized area, the recognized area corresponding to an object recognized, a reliability of the recognition result; and an irradiation control portion configured to control an irradiation pattern of visible light in a photographing direction of the photographing portion based on the reliability, wherein the irradiation control portion is configured to control light intensity of visible light with respect to a low-reliability area, that is the recognized area of which the reliability is lower than a prescribed threshold. a recognizing portion configured to perform image recognition processing with respect to an image photographed by a photographing portion and calculate, for each recognized area, the recognized area corresponding to an object recognized, a reliability of the recognition result; and an irradiation control portion configured to control an irradiation pattern of visible light in a photographing direction of the photographing portion based on the reliability, wherein the irradiation control portion is configured to control light intensity of visible light with respect to a low-reliability area, that is the recognized area of which the reliability is lower than a prescribed threshold.
A double stranded RNAi agent for inhibiting expression of hepatitis D virus (HDV) in a cell, wherein said double stranded RNAi agent comprises a sense strand and an antisense strand forming a double-stranded region, wherein said sense strand and said antisense strand comprise a region of complementarity which comprises at least 15 contiguous nucleotides differing by no more than 3 nucleotides from any one of the sense and antisense strands of SEQ ID NO: 1963, SEQ ID NO: 2141, SEQ ID NO: 1935, SEQ ID NO: 2113, SEQ ID NO: 1952, SEQ ID NO: 2130, SEQ ID NO: 1947, SEQ ID NO: 2125, SEQ ID NO: 1975, SEQ ID NO: 2153, SEQ ID NO: 1931, SEQ ID NO: 2109, SEQ ID NO: 1958, SEQ ID NO: 2136, SEQ ID NO: 1981, SEQ ID NO: 2159, SEQ ID NO: 1998, SEQ ID NO: 2176, SEQ ID NO: 1863, SEQ ID NO: 2041, SEQ ID NO: 1874, SEQ ID NO: 2052, SEQ ID NO: 1862, SEQ ID NO: 2040, SEQ ID NO: 1865, SEQ ID NO: 2043, SEQ ID NO: 1871, SEQ ID NO: 2049, SEQ ID NO: 1873, SEQ ID NO: 2051, SEQ ID NO: 1962, SEQ ID NO: 2140, SEQ ID NO: 1970, SEQ ID NO: 2148, SEQ ID NO: 1974, SEQ ID NO: 2152, SEQ ID NO: 1971, SEQ ID NO: 2149, SEQ ID NO: 1972, SEQ ID NO: 2150, SEQ ID NO: 1959, SEQ ID NO: 2137, SEQ ID NO: 1960, SEQ ID NO: 2138, SEQ ID NO: 1978, and SEQ ID NO: 2156, wherein substantially all of the nucleotides of said sense strand and substantially all of the nucleotides of said antisense strand are modified nucleotides, wherein said sense strand is conjugated to a ligand attached at the 3'-terminus, and wherein the ligand is one or more GalNAc derivatives attached through a bivalent or trivalent branched linker.
A method for preparing and controlling print jobs in a printing press by means of a printing unit, which is provided with an inking unit having a ink fountain, ink metering devices, an ink ductor, and a ductor roller, inking unit, distributor and inking rollers, a dampening unit having a dampening ductor roller, a metering roller, and dampening rollers, a plate cylinder supporting a printing plate, a blanket/impression cylinder, and register setting devices, characterized in that quality measuring values of printed sheets are measured by means of an optical detection unit, and dimensions and/or force effects of machine elements determining the print quality are measured by means of one or several further detection units, that the data of the measurements is supplied to one or several evaluation and regulation devices, and that settings of operating states or motion sequences of inking unit and/or dampening unit rollers and/or of a blanket/impression cylinder can be changed by means of the evaluation and regulating devices as a function of the detection of quality measuring values at a printed sheet and of measuring values of dimensions or force effects at machine elements, and that combined setting and/or regulating strategies are stored in the control and regulating device for the correction of errors with regard to the print quality, - in such a way that, if a proposed setting/regulating strategy from the image evaluation and a proposed setting/regulating strategy from the measuring of machine elements are consistent, the proposed adjustment is carried out, - and if the setting/regulating strategies have the same tendency, but lead to different setting values, an average value is formed from both setting signals, - and if the setting/regulating strategies are inconsistent with one another, a preferred strategy is selected or an alternative strategy is sought for the strategy found from the print image evaluation, - and if the setting/regulating strategies result in setting signals outside of a setting range or if no sufficient setting strategy can be determined, warning messages are issued for checking the machine and the settings thereof. - in such a way that, if a proposed setting/regulating strategy from the image evaluation and a proposed setting/regulating strategy from the measuring of machine elements are consistent, the proposed adjustment is carried out, - and if the setting/regulating strategies have the same tendency, but lead to different setting values, an average value is formed from both setting signals, - and if the setting/regulating strategies are inconsistent with one another, a preferred strategy is selected or an alternative strategy is sought for the strategy found from the print image evaluation, - and if the setting/regulating strategies result in setting signals outside of a setting range or if no sufficient setting strategy can be determined, warning messages are issued for checking the machine and the settings thereof.