mhurhangee/patent-ind-claim-en huggingface dataset:
A loop diuretic for use in a method of further evaluating a patient for acute kidney injury progression, wherein the patient has an acute kidney injury and has been classified as suitable for receiving a diuresis stress evaluation by: performing a biomarker assay on a body fluid sample obtained from the patient to provide an assay result, wherein the biomarker(s) in the biomarker assay are correlated to a risk of acute kidney injury progression; correlating the assay result to the patient's risk of acute kidney injury progression relative to a risk of acute kidney injury progression in a predetermined population of individuals; and classifying the patient as suitable for receiving the diuresis stress evaluation using the patient's risk of acute kidney injury progression; the method comprising performing the diuresis stress evaluation on the patient to provide a diuresis-induced urine output value, wherein performing the diuresis stress evaluation comprises: (i) administering a loop diuretic to the patient; (ii) measuring the diuresis-induced urine output value; and (iii) correlating the diuresis-induced urine output value to a risk of acute kidney injury progression. performing a biomarker assay on a body fluid sample obtained from the patient to provide an assay result, wherein the biomarker(s) in the biomarker assay are correlated to a risk of acute kidney injury progression; correlating the assay result to the patient's risk of acute kidney injury progression relative to a risk of acute kidney injury progression in a predetermined population of individuals; and classifying the patient as suitable for receiving the diuresis stress evaluation using the patient's risk of acute kidney injury progression; the method comprising performing the diuresis stress evaluation on the patient to provide a diuresis-induced urine output value, wherein performing the diuresis stress evaluation comprises: (i) administering a loop diuretic to the patient; (ii) measuring the diuresis-induced urine output value; and (iii) correlating the diuresis-induced urine output value to a risk of acute kidney injury progression. (i) administering a loop diuretic to the patient; (ii) measuring the diuresis-induced urine output value; and (iii) correlating the diuresis-induced urine output value to a risk of acute kidney injury progression.
Method for producing a structure on a surface of a flat workpiece, comprising the following steps: (a) a transfer film having a fine structure is produced by embossing a fine structure having a profile depth of 100 nm to 150 μm into the transfer film by means of a structured cylinder or a structured sleeve, the fine structure being embossed into the transfer film thermally or by means of ultrasound, wherein the surface of the transfer film is free from a curable coating of lacquer into which the fine structure would be embossed, (b) a surface of the flat workpiece is coated with a curable coating, (c) a textured transfer film is applied to the surface coated in (b) prior to curing of the coating so that the texture is in contact with the coated surface of the flat workpiece, (d) the coating of the coated surface is cured or allowed to cure in contact with the transfer film, (e) the transfer film is removed from the cured coated surface so as to leave a copied structure on the target surface. (a) a transfer film having a fine structure is produced by embossing a fine structure having a profile depth of 100 nm to 150 μm into the transfer film by means of a structured cylinder or a structured sleeve, the fine structure being embossed into the transfer film thermally or by means of ultrasound, wherein the surface of the transfer film is free from a curable coating of lacquer into which the fine structure would be embossed, (b) a surface of the flat workpiece is coated with a curable coating, (c) a textured transfer film is applied to the surface coated in (b) prior to curing of the coating so that the texture is in contact with the coated surface of the flat workpiece, (d) the coating of the coated surface is cured or allowed to cure in contact with the transfer film, (e) the transfer film is removed from the cured coated surface so as to leave a copied structure on the target surface.
A virtual trusted platform module, vTPM, - based virtual machine security protection method, wherein the method comprises: • receiving, by a physical host, a primary seed acquisition request sent by a virtual machine, wherein the primary seed acquisition request carries at least a universally unique identifier, UUID, of the virtual machine (step 201); • sending, by the physical host, the UUID to a key management center, KMC (step 202); • generating, by the KMC, a primary seed according to the UUID (step 203); • receiving, by the physical host, the primary seed fed back by the KMC (step 204); • sending, by the physical host, the primary seed to the virtual machine (step 205); • creating, by the virtual machine, a root key of a virtual trusted platform nodule, vTPM according to the primary seed (step 206), wherein the root key is used by the vTPM to create a key for the virtual machine, to protect security of the virtual machine. • receiving, by a physical host, a primary seed acquisition request sent by a virtual machine, wherein the primary seed acquisition request carries at least a universally unique identifier, UUID, of the virtual machine (step 201); • sending, by the physical host, the UUID to a key management center, KMC (step 202); • generating, by the KMC, a primary seed according to the UUID (step 203); • receiving, by the physical host, the primary seed fed back by the KMC (step 204); • sending, by the physical host, the primary seed to the virtual machine (step 205); • creating, by the virtual machine, a root key of a virtual trusted platform nodule, vTPM according to the primary seed (step 206), wherein the root key is used by the vTPM to create a key for the virtual machine, to protect security of the virtual machine.
A method of operating a managing component of a virtualized application cluster , wherein the cluster is to comprise a system controller and at least one virtual machine with a dedicated function, the method comprising: deploying the system controller and providing the system controller with access to an association between virtual machine identifiers and virtual machine functions, wherein each virtual machine identifier is locally unique within the virtualized cluster; determining a virtual machine identifier that is associated with the dedicated function of the virtual machine to be deployed, wherein the dedicated function defines booting information dedicated to the virtual machine, wherein the booting information defines at least one of an address of a boot server configured to provide one or more boot files to the virtual machine and a file path to the one or more boot files, and wherein the virtual machine identifier is determined from an Open Virtualization Format (OVF) file , wherein the OVF file contains a descriptor for each virtual machine; and deploying the virtual machine and statically configuring the virtual machine, at deployment, with the determined virtual machine identifier. deploying the system controller and providing the system controller with access to an association between virtual machine identifiers and virtual machine functions, wherein each virtual machine identifier is locally unique within the virtualized cluster; determining a virtual machine identifier that is associated with the dedicated function of the virtual machine to be deployed, wherein the dedicated function defines booting information dedicated to the virtual machine, wherein the booting information defines at least one of an address of a boot server configured to provide one or more boot files to the virtual machine and a file path to the one or more boot files, and wherein the virtual machine identifier is determined from an Open Virtualization Format (OVF) file , wherein the OVF file contains a descriptor for each virtual machine; and deploying the virtual machine and statically configuring the virtual machine, at deployment, with the determined virtual machine identifier.
A method of decoding video data, the method comprising: determining a set of scaling lists for the video data, wherein each scaling list of the set of scaling lists is used to determine an associated scaling matrix in a set of scaling matrices, and wherein each scaling list and each associated scaling matrix has an associated identification (ID) number ; determining that a new scaling list for the set of scaling lists is to be predicted from a reference scaling list, wherein the new scaling list corresponds to a new scaling matrix ; receiving a syntax element ; determining an ID number based on the syntax element ; determining that the set of scaling lists does not include a scaling list with the ID number, wherein determining that the set of scaling lists does not include the scaling list with the ID number comprises determining that the ID number divided by 3 has a remainder of 0 or 1; in response to determining that the set of scaling lists does not include a scaling list with the ID number, determining the new scaling matrix based on a set of default values ; decoding the video data based on the new scaling matrix ; and outputting the decoded video data . determining a set of scaling lists for the video data, wherein each scaling list of the set of scaling lists is used to determine an associated scaling matrix in a set of scaling matrices, and wherein each scaling list and each associated scaling matrix has an associated identification (ID) number ; determining that a new scaling list for the set of scaling lists is to be predicted from a reference scaling list, wherein the new scaling list corresponds to a new scaling matrix ; receiving a syntax element ; determining an ID number based on the syntax element ; determining that the set of scaling lists does not include a scaling list with the ID number, wherein determining that the set of scaling lists does not include the scaling list with the ID number comprises determining that the ID number divided by 3 has a remainder of 0 or 1; in response to determining that the set of scaling lists does not include a scaling list with the ID number, determining the new scaling matrix based on a set of default values ; decoding the video data based on the new scaling matrix ; and outputting the decoded video data .
A beverage preparation machine for preparing a liquid beverage from a cartridge, the machine comprising: a first liquid supply circuit configured for selectively providing liquid of predefined temperature and/or volume from a liquid reservoir of the machine to a cartridge inserted into the machine, a second liquid supply circuit configured for selectively providing liquid of predefined temperature and/or volume from the liquid reservoir , or from another reservoir, of the machine to a liquid delivery outlet of the machine, a control unit for controlling the first and second liquid supply circuit , and a network unit comprising a network interface for communication with an external electronic device over a network, wherein the control unit is configured to individually control the selective provision of liquid from the first and the second liquid supply circuit in response to information obtained via the network unit , characterised in that the control unit is configured to individually control the temperature and volume of the respective liquid delivered from the first and second liquid supply circuit . a first liquid supply circuit configured for selectively providing liquid of predefined temperature and/or volume from a liquid reservoir of the machine to a cartridge inserted into the machine, a second liquid supply circuit configured for selectively providing liquid of predefined temperature and/or volume from the liquid reservoir , or from another reservoir, of the machine to a liquid delivery outlet of the machine, a control unit for controlling the first and second liquid supply circuit , and a network unit comprising a network interface for communication with an external electronic device over a network, wherein the control unit is configured to individually control the selective provision of liquid from the first and the second liquid supply circuit in response to information obtained via the network unit , characterised in that the control unit is configured to individually control the temperature and volume of the respective liquid delivered from the first and second liquid supply circuit .
A robotic cleaner system comprising a robotic vacuum cleaner configured for autonomous travel along a surface to be cleaned and a stationary base station , the robotic vacuum cleaner comprising a first brush arranged to rotate about a horizontal axis extending substantially perpendicularly to a main traveling direction of the robotic vacuum cleaner and having a first brush width (W) along the horizontal axis , a second brush arranged to rotate about a substantially vertical axis , and a control arrangement , wherein the second brush is detachably connected to a main body of the robotic vacuum cleaner , and wherein the stationary base station is configured for receiving the second brush , characterised in that the second brush is a side brush comprising bristles extending laterally outside the first brush width (W) seen along the main traveling direction, and the control arrangement is configured to disengage the second brush from the main body in the stationary base station when a surface portion of the surface to be cleaned is a carpeted surface portion . a first brush arranged to rotate about a horizontal axis extending substantially perpendicularly to a main traveling direction of the robotic vacuum cleaner and having a first brush width (W) along the horizontal axis , a second brush arranged to rotate about a substantially vertical axis , and a control arrangement , wherein the second brush is detachably connected to a main body of the robotic vacuum cleaner , and wherein the stationary base station is configured for receiving the second brush , characterised in that the second brush is a side brush comprising bristles extending laterally outside the first brush width (W) seen along the main traveling direction, and the control arrangement is configured to disengage the second brush from the main body in the stationary base station when a surface portion of the surface to be cleaned is a carpeted surface portion .
A seat provided with a microphone for a vehicle , the seat comprises: a frame ; a bearing structure which is mounted on the frame , is elastically deformable, and is divided into a seat , a backrest and a headrest ; a cover , which covers the bearing structure ; and a microphone ; the seat is characterized in that it comprises a support element , which is "U"-shaped, embraces the upper part of the frame , is covered by the bearing structure , and has, at its top, a housing accommodating, on the inside, the microphone . a frame ; a bearing structure which is mounted on the frame , is elastically deformable, and is divided into a seat , a backrest and a headrest ; a cover , which covers the bearing structure ; and a microphone ; the seat is characterized in that it comprises a support element , which is "U"-shaped, embraces the upper part of the frame , is covered by the bearing structure , and has, at its top, a housing accommodating, on the inside, the microphone .
A tool for scarfing a rotor blade segment , the rotor blade segment comprising a pressure side , a suction side , a leading edge , and a trailing edge each extending between a first end and a second end, the tool comprising: a first guide configured for mounting on one of the pressure side or the suction side , the first guide comprising a first curved rail and a second curved rail spaced from the first curved rail , the first curved rail and the second curved rail each having a curvature that generally corresponds to a curvature of the one of the pressure side or the suction side ; a second guide movably coupled to the first guide at a scarf angle , the second guide comprising a guide rail extending between and movable along the first curved rail and the second curved rail , and a cutting device movably coupled to the second guide , the cutting device movable along the guide rail and operable to remove material from the one of the pressure side or the suction side characterized in that the second curved rail is offset from the first curved rail such that a distance between the rails and a height difference between a top surface of the second curve rail and a top surface of the first curve rail defines the scarf angle . a first guide configured for mounting on one of the pressure side or the suction side , the first guide comprising a first curved rail and a second curved rail spaced from the first curved rail , the first curved rail and the second curved rail each having a curvature that generally corresponds to a curvature of the one of the pressure side or the suction side ; a second guide movably coupled to the first guide at a scarf angle , the second guide comprising a guide rail extending between and movable along the first curved rail and the second curved rail , and a cutting device movably coupled to the second guide , the cutting device movable along the guide rail and operable to remove material from the one of the pressure side or the suction side characterized in that the second curved rail is offset from the first curved rail such that a distance between the rails and a height difference between a top surface of the second curve rail and a top surface of the first curve rail defines the scarf angle .
A measurement method of a user equipment, UE, wherein the method comprises: determining (S210), by the UE, according to measurement gap configuration information, a UE capability without a measurement gap and a time-frequency position condition, that a measurement gap is not needed to be configured for a measurement corresponding to a frequency point or a cell in a designated list, wherein the time-frequency position condition comprises a position relationship between a neighbor cell synchronization signal block, SSB, and an UE serving cell active bandwidth part, BWP; and performing (S220), by the UE, the measurement without the measurement gap, wherein the measurement gap configuration information comprises measurement gap indication information, and the measurement gap indication information indicates that there is no measurement gap, wherein the measurement is an inter-frequency measurement. determining (S210), by the UE, according to measurement gap configuration information, a UE capability without a measurement gap and a time-frequency position condition, that a measurement gap is not needed to be configured for a measurement corresponding to a frequency point or a cell in a designated list, wherein the time-frequency position condition comprises a position relationship between a neighbor cell synchronization signal block, SSB, and an UE serving cell active bandwidth part, BWP; and performing (S220), by the UE, the measurement without the measurement gap, wherein the measurement gap configuration information comprises measurement gap indication information, and the measurement gap indication information indicates that there is no measurement gap, wherein the measurement is an inter-frequency measurement.
An apparatus for collecting drilling fluid returns from a drill collar/casing for sampling purposes, the apparatus comprising a body having a collecting portion and a sump portion ; • the collecting portion defining a reservoir for receiving drilling fluid returns, the collecting portion being adapted for sealing engagement about the drill collar/casing so that the reservoir forms a moat around the drill collar/ casing ; • the sump portion being disposed substantially below and to a side of the collecting portion via a sloping bottom portion of the body, so that collected drilling fluid returns are able to continuously flow down from the collecting portion to the sump portion within the body to maintain particulate material therein in suspension; and characterised by a resilient sealing collar in a bottom of the collecting portion , • the sealing collar enables accommodation of multiple angular orientations of the apparatus with respect to the drill collar/casing according to the drilling requirements. • the collecting portion defining a reservoir for receiving drilling fluid returns, the collecting portion being adapted for sealing engagement about the drill collar/casing so that the reservoir forms a moat around the drill collar/ casing ; • the sump portion being disposed substantially below and to a side of the collecting portion via a sloping bottom portion of the body, so that collected drilling fluid returns are able to continuously flow down from the collecting portion to the sump portion within the body to maintain particulate material therein in suspension; and characterised by a resilient sealing collar in a bottom of the collecting portion , • the sealing collar enables accommodation of multiple angular orientations of the apparatus with respect to the drill collar/casing according to the drilling requirements.
A control process for controlling a production process for calcined clays with a calciner , the control process comprising the following steps: a) capture of at least one temperature in the calciner and optionally of a first mean residence time of the clay in the calciner , b) taking of at least one sample of the calcined clay, c) production of a reproducible size distribution of the sample, d) adjustment of the sample mass to a predefined sample mass, e) conditioning of the sample to a first measuring temperature and of an alkali to a first measuring temperature, f) combining of the sample with an alkali, g) temporal capture of the energy generated by the sample-alkali mixture at constant first measuring temperature for a first period, h) quantitative evaluation of the time-energy profile captured in step g) for the first exothermic reaction and determination of the amount of energy released by the sample for the first exothermic reaction, i) correlation of the amount of energy captured in step h) with the temperature and residence time captured in step a), and comparison with previously captured combinations of amount of energy, temperature and residence time values, j) active control of the temperature and/or of the residence time in the calciner in the direction of increasing the amount of energy anticipated for a further sample, where the quantitative evaluation of the time-energy profile captured in step g) for the first exothermic reaction takes place for the period from the first minute to minute 120. a) capture of at least one temperature in the calciner and optionally of a first mean residence time of the clay in the calciner , b) taking of at least one sample of the calcined clay, c) production of a reproducible size distribution of the sample, d) adjustment of the sample mass to a predefined sample mass, e) conditioning of the sample to a first measuring temperature and of an alkali to a first measuring temperature, f) combining of the sample with an alkali, g) temporal capture of the energy generated by the sample-alkali mixture at constant first measuring temperature for a first period, h) quantitative evaluation of the time-energy profile captured in step g) for the first exothermic reaction and determination of the amount of energy released by the sample for the first exothermic reaction, i) correlation of the amount of energy captured in step h) with the temperature and residence time captured in step a), and comparison with previously captured combinations of amount of energy, temperature and residence time values, j) active control of the temperature and/or of the residence time in the calciner in the direction of increasing the amount of energy anticipated for a further sample,