mhurhangee/patent-ind-claim-en huggingface dataset:
A Method for producing a compound of Formula I comprising the steps of: Step 1: Radiolabeling compound of Formula II with a F-18 fluorinating agent, to obtain compound of Formula I , if R = H or to obtain compound of Formula III , if R = PG Step 2: If R = PG , cleavage of the protecting group PG to obtain a compound of Formula I Step 3: Purification and Formulation of a compound of Formula I wherein: n = 3, X is selected from the group consisting of a) CH, b) N, R is selected from the group consisting of a) H, b) PG , PG is an "Amine-protecting group", LG is a leaving group selected from the group consisting of: a) Halogen and b) Sulfonyloxy, Halogen is chloro, bromo or iodo, wherein LG contains 0-3 fluorine atoms wherein 10-50 μmol of a compound of formula II are used, wherein the radiofluorination of compound of formula II is carried out in acetonitrile, dimethylsulfoxide or dimethylformamide or a mixture thereof. n = 3, X is selected from the group consisting of a) CH, b) N, a) CH, b) N, R is selected from the group consisting of a) H, b) PG , a) H, b) PG , PG is an "Amine-protecting group", LG is a leaving group selected from the group consisting of: a) Halogen and b) Sulfonyloxy, a) Halogen and b) Sulfonyloxy, Halogen is chloro, bromo or iodo, wherein LG contains 0-3 fluorine atoms wherein 10-50 μmol of a compound of formula II are used, wherein the radiofluorination of compound of formula II is carried out in acetonitrile, dimethylsulfoxide or dimethylformamide or a mixture thereof.
Assembly for an automotive vehicle engine compartment , the automotive vehicle extending in a horizontal plane of the vehicle in a longitudinal direction (X) from front to rear and a transverse direction (Y), the assembly comprising: - an electronic control unit , - a scuttle panel comprising a scuttle panel sheet extending generally in the transverse direction (Y), the scuttle panel sheet being inclined from front to rear with respect to a plane that is parallel to the plane of the vehicle, a front end of the scuttle panel sheet corresponding to an upper end of said scuttle panel sheet, - an A-pillar lining comprising an A-pillar lining sheet extending generally in a vertical direction (Z), substantially perpendicular to the vehicle plane, the A-pillar lining sheet being connected to one end , in the transverse direction (Y), of the scuttle panel sheet, - a shock absorber mount coupled to a suspension strut for a front wheel, the shock absorber mount being adjacent to the A-pillar lining sheet, arranged facing and at a distance from a lower surface of the scuttle panel sheet, the assembly being characterized in that the scuttle panel sheet, the shock absorber mount and the A-pillar lining sheet together define a free space in which the electronic control unit is accommodated, the electronic control unit being arranged below the scuttle panel 14 sheet and above the shock absorber mount and the strut. - an electronic control unit , - a scuttle panel comprising a scuttle panel sheet extending generally in the transverse direction (Y), the scuttle panel sheet being inclined from front to rear with respect to a plane that is parallel to the plane of the vehicle, a front end of the scuttle panel sheet corresponding to an upper end of said scuttle panel sheet, - an A-pillar lining comprising an A-pillar lining sheet extending generally in a vertical direction (Z), substantially perpendicular to the vehicle plane, the A-pillar lining sheet being connected to one end , in the transverse direction (Y), of the scuttle panel sheet, - a shock absorber mount coupled to a suspension strut for a front wheel, the shock absorber mount being adjacent to the A-pillar lining sheet, arranged facing and at a distance from a lower surface of the scuttle panel sheet,
A vehicle comprising: input means for inputting a destination, determination means for determining whether or not a destination is a charging-available place, a power storage device (B) that can be charged and discharged; a vehicle driving unit (32, 36, MG1, MG2) for receiving electric power supply from said power storage device to drive the vehicle; a coupling unit for coupling the vehicle with an external power supply to charge said power storage device from the outside of the vehicle; and a control device configured to perform control related to said power storage device, characterized in that said control device is configured to determine whether or not a destination is a charging-available place where said power storage device can be charged from the outside of the vehicle and, if it is determined that said destination is a charging-available place, to perform control related to said power storage device so that a temperature of said power storage device falls within a temperature range (Tcl - Tcu) in the vicinity of the temperature (Tpeak) at which the charging efficiency of the power storage device (B) is the highest when the vehicle arrives at said destination, and said control device is further configured to predict the temperature of the power storage device (B) on arrival at the destination and to set an intermediate target temperature so that the predicted temperature of said power storage device (B) on arrival at said destination falls within said temperature range in which the charging efficiency of the power storage device (B) is the highest. a power storage device (B) that can be charged and discharged; a vehicle driving unit (32, 36, MG1, MG2) for receiving electric power supply from said power storage device to drive the vehicle; a coupling unit for coupling the vehicle with an external power supply to charge said power storage device from the outside of the vehicle; and a control device configured to perform control related to said power storage device, characterized in that said control device is configured to determine whether or not a destination is a charging-available place where said power storage device can be charged from the outside of the vehicle and, if it is determined that said destination is a charging-available place, to perform control related to said power storage device so that a temperature of said power storage device falls within a temperature range (Tcl - Tcu) in the vicinity of the temperature (Tpeak) at which the charging efficiency of the power storage device (B) is the highest when the vehicle arrives at said destination, and said control device is further configured to predict the temperature of the power storage device (B) on arrival at the destination and to set an intermediate target temperature so that the predicted temperature of said power storage device (B) on arrival at said destination falls within said temperature range in which the charging efficiency of the power storage device (B) is the highest.
A method for programming a mobile device with a software build supporting a selected service provider account comprising: receiving a service provider account selection; determining whether an account with the selected service provider is activated; retrieving software build parameters and settings from a non-volatile memory corresponding to the selected service provider account; and implementing the software build supporting the selected service provider account using the retrieved software build parameters and settings to re-program a programmable digital signal processor within a software defined radio based chipset of the mobile device to generate a data signal compatible with a selected service provider network; wherein implementing the software build comprises compiling the software build on the mobile device .
Optical system for a light sheet microscope , with transport optics which are configured to image a light sheet for illuminating a sample plane lying obliquely to the optical axis of the transport optics into a sample and to image the illuminated sample plane into an intermediate image space , and with detection optics of which the optical axis is tilted relative to the optical axis of the transport optics about a tilt axis which runs through the intermediate image space , characterized in that the transport optics comprise an interchanging system which has at least a first and a second light deflection element and are configured to switch an illumination direction along which the light sheet illuminates the sample by alternately introducing the first and the second light deflection element into a beam path of the transport optics , and wherein the first light deflecting element causes a partial image reversal in only one direction and the second light deflecting element causes a complete image reversal in two directions. with detection optics of which the optical axis is tilted relative to the optical axis of the transport optics about a tilt axis which runs through the intermediate image space , characterized in that the transport optics comprise an interchanging system which has at least a first and a second light deflection element and are configured to switch an illumination direction along which the light sheet illuminates the sample by alternately introducing the first and the second light deflection element into a beam path of the transport optics , and wherein the first light deflecting element causes a partial image reversal in only one direction and the second light deflecting element causes a complete image reversal in two directions.
An information processing device that includes: a first management unit configured to manage shutdown of a plurality of virtual machines that operate on a hypervisor ; and characterized in that the first management unit is configured to: a) start to execute shutdown of one of the plurality of virtual machines ; and b) upon acquiring information indicating that shutdown of the one of the plurality of virtual machines is completed, repeating sub-steps a) and b) for a virtual machine other than the one virtual machine until all of the plurality of virtual machines have been shut down. a first management unit configured to manage shutdown of a plurality of virtual machines that operate on a hypervisor ; and characterized in that the first management unit is configured to: a) start to execute shutdown of one of the plurality of virtual machines ; and b) upon acquiring information indicating that shutdown of the one of the plurality of virtual machines is completed, repeating sub-steps a) and b) for a virtual machine other than the one virtual machine until all of the plurality of virtual machines have been shut down. a) start to execute shutdown of one of the plurality of virtual machines ; and b) upon acquiring information indicating that shutdown of the one of the plurality of virtual machines is completed, repeating sub-steps a) and b) for a virtual machine other than the one virtual machine until all of the plurality of virtual machines have been shut down.
In a process of feeding an oxidizing biocide to process water, a method for monitoring potential degradation of said biocide thereby forming, as a result of such degradation, an active halogen compound, the method comprising: providing a dissolved oxygen sensor in the flow of said process water downstream from a biocide inlet; and employing said dissolved oxygen sensor for periodically measuring the level of dissolved oxygen in said process water; wherein the time for said process water to flow from said biocide inlet to said dissolved oxygen sensor is not more than 30 minutes. providing a dissolved oxygen sensor in the flow of said process water downstream from a biocide inlet; and employing said dissolved oxygen sensor for periodically measuring the level of dissolved oxygen in said process water; wherein the time for said process water to flow from said biocide inlet to said dissolved oxygen sensor is not more than 30 minutes.
A fuel cell system comprising: a fuel cell; a combustor configured to combust a fuel and an oxidizing gas to supply a combustion gas to a cathode inlet of the fuel cell; a combustion fuel supply device configured to supply a fuel to the combustor; a combustion oxidizing gas supply device configured to supply an oxidizing gas to the combustor; an anode-discharged-gas discharge passage configured to discharge an anode discharged gas from an anode outlet of the fuel cell; a cathode-discharged-gas discharge passage configured to discharge a cathode discharged gas from a cathode outlet of the fuel cell; and a controller configured to control a supply of the fuel to the combustor by the combustion fuel supply device and a supply of the oxidizing gas to the combustor by the combustion oxidizing gas supply device, wherein the controller includes a post-stop-request combustor-supply control unit configured to execute the supply of the fuel and the supply of the oxidizing gas to the combustor after a request for stopping the fuel cell system, wherein the post-stop-request combustor-supply control unit adjusts a supply amount of a fuel such that a heat generation amount of combustion by the combustor becomes equal to or less than a heat dissipation of the fuel cell. a fuel cell; a combustor configured to combust a fuel and an oxidizing gas to supply a combustion gas to a cathode inlet of the fuel cell; a combustion fuel supply device configured to supply a fuel to the combustor; a combustion oxidizing gas supply device configured to supply an oxidizing gas to the combustor; an anode-discharged-gas discharge passage configured to discharge an anode discharged gas from an anode outlet of the fuel cell; a cathode-discharged-gas discharge passage configured to discharge a cathode discharged gas from a cathode outlet of the fuel cell; and a controller configured to control a supply of the fuel to the combustor by the combustion fuel supply device and a supply of the oxidizing gas to the combustor by the combustion oxidizing gas supply device, wherein the controller includes a post-stop-request combustor-supply control unit configured to execute the supply of the fuel and the supply of the oxidizing gas to the combustor after a request for stopping the fuel cell system, wherein the post-stop-request combustor-supply control unit adjusts a supply amount of a fuel such that a heat generation amount of combustion by the combustor becomes equal to or less than a heat dissipation of the fuel cell.
A radial imaging system for capturing an image of an object which extends around an image sensor in an object plane, the system comprising: a laser light source adapted to emit laser light; a reflector for receiving incident generally radial light from the object which is derived from the laser light directed radially outwardly within the object plane and for reflecting said incident generally radial light to a generally axial direction; and an image sensor for receiving the generally axially directed reflected light, wherein the reflector comprises a stepped reflector surface having a series of reflecting linear facets in sequence between a radial innermost portion and a radial outermost portion of the reflector, the linear facets together forming a generally curved surface, characterized in that each facet is adapted to receive and reflect incident generally radial light from a particular range of radial distances from a central axis at which the image sensor is located to the image sensor, and each facet is adapted to map received light from said particular range of radial distances to a particular part of the field of view of the image sensor. a laser light source adapted to emit laser light; a reflector for receiving incident generally radial light from the object which is derived from the laser light directed radially outwardly within the object plane and for reflecting said incident generally radial light to a generally axial direction; and an image sensor for receiving the generally axially directed reflected light, wherein the reflector comprises a stepped reflector surface having a series of reflecting linear facets in sequence between a radial innermost portion and a radial outermost portion of the reflector, the linear facets together forming a generally curved surface, characterized in that each facet is adapted to receive and reflect incident generally radial light from a particular range of radial distances from a central axis at which the image sensor is located to the image sensor, and each facet is adapted to map received light from said particular range of radial distances to a particular part of the field of view of the image sensor. a reflector for receiving incident generally radial light from the object which is derived from the laser light directed radially outwardly within the object plane and for reflecting said incident generally radial light to a generally axial direction; and an image sensor for receiving the generally axially directed reflected light, wherein the reflector comprises a stepped reflector surface having a series of reflecting linear facets in sequence between a radial innermost portion and a radial outermost portion of the reflector, the linear facets together forming a generally curved surface,
A method for transmitting a data packet having a header and a payload, comprising steps of: configuring the payload to transport at least one full service data unit, one or two service data unit fragments, or at least one full service data unit and at least one service data unit fragment, where a service data unit fragment is only located (i) at the beginning of the payload or at the end of the payload or (ii) at the beginning of the payload and at the end of the payload; configuring an indicator in the header consisting of a first bit and a second bit, even when a number of full service data units and service data unit fragments in the payload is more than two, the indicator indicating whether (i) the payload begins with a fragment of a service data unit and (ii) the payload ends with a service data unit fragment; forming the data packet including the configured header and the configured payload; and transmitting the data packet. configuring the payload to transport at least one full service data unit, one or two service data unit fragments, or at least one full service data unit and at least one service data unit fragment, where a service data unit fragment is only located (i) at the beginning of the payload or at the end of the payload or (ii) at the beginning of the payload and at the end of the payload; configuring an indicator in the header consisting of a first bit and a second bit, even when a number of full service data units and service data unit fragments in the payload is more than two, the indicator indicating whether (i) the payload begins with a fragment of a service data unit and (ii) the payload ends with a service data unit fragment; forming the data packet including the configured header and the configured payload; and transmitting the data packet.
An induction heating device , comprising: a case comprising a lower plate (LPA) and a side plate (SPA) that extends upward along an edge of the lower plate (LPA); a cover plate coupled to the side plate (SPA) and being configured to allow an object to be disposed on an upper surface of the cover plate ; a working coil (WC) provided inside of the case to heat the object; an indicator substrate support coupled to the lower plate (LPA) and disposed below the working coil (WC); an inverter substrate (IV_PCB) installed on a lower surface of the indicator substrate support and comprising an inverter (IV) that applies a resonance current to the working coil (WC) through a switching operation and a first heat sink (HS1) that radiates heat of the inverter (IV); and a first blowing fan installed on the lower plate (LPA) and being configured to suction outside air through a first inlet (IP1) and discharge the air to the inverter substrate (IV_PCB), and wherein the air discharged from the first blowing fan into the inverter substrate (IV_PCB) is discharged below the lower plate (LPA) through a first exhaust slit (DS1), wherein the first inlet (IP1) is defined in a first area of the lower plate (LPA) that overlaps with the first blowing fan , the first exhaust slit (DS1) is defined in a third area of the lower plate (LPA) placed at an opposite side of the first area, and the inverter substrate (IV_PCB) is placed between the first area and the third area. a case comprising a lower plate (LPA) and a side plate (SPA) that extends upward along an edge of the lower plate (LPA); a cover plate coupled to the side plate (SPA) and being configured to allow an object to be disposed on an upper surface of the cover plate ; a working coil (WC) provided inside of the case to heat the object; an indicator substrate support coupled to the lower plate (LPA) and disposed below the working coil (WC); an inverter substrate (IV_PCB) installed on a lower surface of the indicator substrate support and comprising an inverter (IV) that applies a resonance current to the working coil (WC) through a switching operation and a first heat sink (HS1) that radiates heat of the inverter (IV); and a first blowing fan installed on the lower plate (LPA) and being configured to suction outside air through a first inlet (IP1) and discharge the air to the inverter substrate (IV_PCB), and wherein the air discharged from the first blowing fan into the inverter substrate (IV_PCB) is discharged below the lower plate (LPA) through a first exhaust slit (DS1), wherein the first inlet (IP1) is defined in a first area of the lower plate (LPA) that overlaps with the first blowing fan , the first exhaust slit (DS1) is defined in a third area of the lower plate (LPA) placed at an opposite side of the first area, and the inverter substrate (IV_PCB) is placed between the first area and the third area.
A process for preparing an aqueous dispersion of organic phosphate functionalized composite microspheres comprising the step of contacting, under polymerization conditions, an aqueous dispersion of first composite microspheres comprising a polysiloxane and structural units of a first monoethylenically unsaturated nonionic monomer with first stage monomers comprising, based on the weight of the first stage monomers, from a) 0.05 to 5 weight percent of a polymerizable organic phosphate or a salt thereof; and b) from 85 to 99.95 weight percent of a second monoethylenically unsaturated nonionic monomer, to grow out the first composite microspheres to form an aqueous dispersion of organic phosphate functionalized second composite microspheres, wherein the first composite microspheres have an average particle size in the range of from 1 μm to 15 μm and the second composite microspheres have an average particle size in the range of from 1.1 μm and 25 μm; and wherein the polymerizable organic phosphate is represented by Formula I: or a salt thereof; wherein R is H or CH 3 , wherein R 1 and R 2 are each independently H or CH 3 , with the proviso that no two adjacent CR 2 CR 1 groups are each substituted with methyl groups; each R 3 is independently linear or branched C 2 -C 6 alkylene; m is from 1 to 10 and n is from 0 to 5, with the proviso that when m is 1, n is 1 to 5; x is 1 or 2; and y is 1 or 2; and x + y = 3.
A processor chip, comprising an application processor , a communication processor , and a memory controller , wherein the memory controller is configured to: define an area of memory as secure memory , and allow only an access request with a security attribute to access the secure memory; the application processor is configured to: execute a common application in a rich execution environment, enter a trusted execution environment after being triggered by the common application, execute a secure application in the trusted execution environment, and write an instruction request for a secure element into the secure memory by using the secure application, wherein an access request that is for the secure memory and sent by the application processor in the trusted execution environment has a security attribute; and the communication processor is configured to: read the instruction request from the secure memory in the trusted execution environment, and send the instruction request to the secure element.