mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic assembly comprising: a first electronic hybrid assembly ; a second electronic hybrid assembly ; and a heat sink having a center wall , the first electronic hybrid assembly and the second electronic hybrid assembly being mounted on opposing sides of the center wall from one another, characterized by : a first substrate fabricated from a ceramic material and contained within the first electronic hybrid assembly and connected to the heat sink, and a second substrate fabricated from a ceramic material and contained within the second electronic hybrid assembly and connected to the heat sink; wherein the first electronic hybrid assembly includes a first outer cover and houses at least one electronic component mounted to the first substrate and the second electronic hybrid assembly includes a second outer cover and houses at least one electronic component mounted to the second substrate; wherein the heat sink includes a first column disposed at a first end of the heat sink, and a second column disposed at a second opposing end of the heat sink with the center wall extending between the first column and the second column; and wherein the first column and second column have threaded holes to receive a fastener for connecting the electronic assembly to a circuit board. a first electronic hybrid assembly ; a second electronic hybrid assembly ; and a heat sink having a center wall , the first electronic hybrid assembly and the second electronic hybrid assembly being mounted on opposing sides of the center wall from one another, characterized by : a first substrate fabricated from a ceramic material and contained within the first electronic hybrid assembly and connected to the heat sink, and a second substrate fabricated from a ceramic material and contained within the second electronic hybrid assembly and connected to the heat sink; a first substrate fabricated from a ceramic material and contained within the first electronic hybrid assembly and connected to the heat sink, and a second substrate fabricated from a ceramic material and contained within the second electronic hybrid assembly and connected to the heat sink; wherein the first electronic hybrid assembly includes a first outer cover and houses at least one electronic component mounted to the first substrate and the second electronic hybrid assembly includes a second outer cover and houses at least one electronic component mounted to the second substrate; wherein the heat sink includes a first column disposed at a first end of the heat sink, and a second column disposed at a second opposing end of the heat sink with the center wall extending between the first column and the second column; and wherein the first column and second column have threaded holes to receive a fastener for connecting the electronic assembly to a circuit board.
A method, comprising: receiving , by a user equipment and from a primary transmit receive point, a message; transmitting , by the user equipment and to the primary transmit receive point, an indication of a capability to receive a multi-transmit receive point transmission of a message 4 of a random access procedure, wherein the indication is a physical random access channel preamble; receiving , by the user equipment and from the primary transmit receive point, a random access response in a message 2 of the random access procedure based on transmitting the indication of the capability, wherein the random access response is configured to allocate resources for transmission of information on at least one additional beam, and wherein the random access response comprises at least one field to signal a command to indicate the at least one additional beam in a message 3 of the random access procedure; and transmitting , by the user equipment and to the primary transmit receive point, in the message 3 of the random access procedure, at least one index of the at least one additional beam after receiving the random access response. receiving , by a user equipment and from a primary transmit receive point, a message; transmitting , by the user equipment and to the primary transmit receive point, an indication of a capability to receive a multi-transmit receive point transmission of a message 4 of a random access procedure, wherein the indication is a physical random access channel preamble; receiving , by the user equipment and from the primary transmit receive point, a random access response in a message 2 of the random access procedure based on transmitting the indication of the capability, wherein the random access response is configured to allocate resources for transmission of information on at least one additional beam, and wherein the random access response comprises at least one field to signal a command to indicate the at least one additional beam in a message 3 of the random access procedure; and wherein the random access response is configured to allocate resources for transmission of information on at least one additional beam, and wherein the random access response comprises at least one field to signal a command to indicate the at least one additional beam in a message 3 of the random access procedure; and transmitting , by the user equipment and to the primary transmit receive point, in the message 3 of the random access procedure, at least one index of the at least one additional beam after receiving the random access response.
A membrane contactor comprises: a cap has an internally facing joining surface which is an internally beveled surface and a cap port; a cup body has an externally facing joining surface (13") which is an externally beveled surface in sealing engagement with the internally facing joining surface, a side port on a side of the cup body, and an end port located on an end of the cup body, the end port comprising an inwardly extending nipple with a mating external surface that is beveled; and a membrane cartridge is located within the cup body, is sealed to an open end of the cup body, and is in sealed fluid communication with the end port; wherein the membrane cartridge includes a perforated center tube , a first end of the center tube having a mating internal surface that is beveled, the mating internal surface being adapted to sealingly join with the mating external surface of the end port, and a second end of the center tube is plugged, and a bundle of hollow fibers surrounding and potted to the center tube, the hollow fibers are closed adjacent the first end of the center tube and open adjacent the second end of the center tube, and wherein the first end of the center tube is held in sealing engagement with the end port by the cartridge being sealed to the cup body. a cap has an internally facing joining surface which is an internally beveled surface and a cap port; a cup body has an externally facing joining surface (13") which is an externally beveled surface in sealing engagement with the internally facing joining surface, a side port on a side of the cup body, and an end port located on an end of the cup body, the end port comprising an inwardly extending nipple with a mating external surface that is beveled; and a membrane cartridge is located within the cup body, is sealed to an open end of the cup body, and is in sealed fluid communication with the end port;
A magnetic flowmeter comprising: a pipe ; coils for generating a magnetic field across the pipe ; electrodes for sensing electromotive force (EMF) induced by fluid flow through the magnetic field; and a flexible framework mounted on the pipe , wherein the flexible framework locates and secures in place the coils and the electrodes with respect to the pipe , wherein the coils are mounted externally on the flexible framework , and wherein the flexible framework includes a plurality of inward extending kerfs and outward extending kerfs that allow the flexible framework to be flattened during coil winding and then shaped to conform to the pipe . a pipe ; coils for generating a magnetic field across the pipe ; electrodes for sensing electromotive force (EMF) induced by fluid flow through the magnetic field; and a flexible framework mounted on the pipe , wherein the flexible framework locates and secures in place the coils and the electrodes with respect to the pipe , wherein the coils are mounted externally on the flexible framework , and wherein the flexible framework includes a plurality of inward extending kerfs and outward extending kerfs that allow the flexible framework to be flattened during coil winding and then shaped to conform to the pipe .
An engineering device comprising a movable stage and a driving system configured to drive the movable stage (PST) by giving a control input, the driving system comprising: a first measuring instrument configured to measure a first controlled variable (X 1 ) related to a position of a first measurement point provided at a first section (PTB) of the movable stage, a second measuring instrument (18X 1 ) configured to measure a second controlled variable (X 2 ) related to a position of a second measurement point provided at a second section of the movable stage, a controlling section configured to obtain the control input by performing a control operation based on measurement results of the first and the second measuring instruments and a desired value of a controlled variable of the movable stage related to the position of the movable stage, and to give the control input to a control point provided at the movable stage, characterised in that : the first section is configured to vibrate in opposite phase to the second section in a predetermined vibration state when the control input is given to the control point, the second measurement point and the control point being provided at the same rigid body, and wherein the control operation determines the control input so as to suppress vibration of the first section relative to the second section in the predetermined vibration state. a first measuring instrument configured to measure a first controlled variable (X 1 ) related to a position of a first measurement point provided at a first section (PTB) of the movable stage, a second measuring instrument (18X 1 ) configured to measure a second controlled variable (X 2 ) related to a position of a second measurement point provided at a second section of the movable stage, a controlling section configured to obtain the control input by performing a control operation based on measurement results of the first and the second measuring instruments and a desired value of a controlled variable of the movable stage related to the position of the movable stage, and to give the control input to a control point provided at the movable stage, characterised in that : the first section is configured to vibrate in opposite phase to the second section in a predetermined vibration state when the control input is given to the control point, the second measurement point and the control point being provided at the same rigid body, and wherein the control operation determines the control input so as to suppress vibration of the first section relative to the second section in the predetermined vibration state. the first section is configured to vibrate in opposite phase to the second section in a predetermined vibration state when the control input is given to the control point, the second measurement point and the control point being provided at the same rigid body, and wherein the control operation determines the control input so as to suppress vibration of the first section relative to the second section in the predetermined vibration state.
An anti-HIV antibody, wherein said antibody is PG9 having a heavy chain comprising the amino acid sequence of SEQ ID NO: 28, and a light chain comprising the amino acid sequence of SEQ ID NO: 30.
A method for training a deep machine-learnt classifier for colorizing a two-dimensional medical image, the method comprising: loading to a memory data representing volumes of multiple patients, the volumes comprising scalar values distributed in three dimensions from medical scanning of the patients; isolating slabs each representing multiple slices in each of the volumes; three-dimensional color rendering the scalar values of the slabs to two-dimensional color images with cinematic rendering ; training , from the two-dimensional color images, a deep machine-learnt classifier with deep machine learning and colorizing the two-dimensional medical image. loading to a memory data representing volumes of multiple patients, the volumes comprising scalar values distributed in three dimensions from medical scanning of the patients; isolating slabs each representing multiple slices in each of the volumes; three-dimensional color rendering the scalar values of the slabs to two-dimensional color images with cinematic rendering ; training , from the two-dimensional color images, a deep machine-learnt classifier with deep machine learning and colorizing the two-dimensional medical image.
A cross counter flow heat exchanger core comprising a plurality of alternating hot and cold layers, a hot inlet tent configured to receive a hot inlet flow and defining a hot inlet tent width, and a hot outlet tent configured to discharge a hot outlet flow and defining a hot outlet tent width, wherein: the cold layer is configured to receive a cold inlet flow and discharge a cold outlet flow; the cold layer comprises: a plurality of cold main fins defining a cold main fin direction; a plurality of cold inlet corner fins defining a cold inlet corner fin direction, the cold inlet corner fin disposed in a first corner region of the cold layer proximate the hot inlet tent and configured to receive a portion of the cold inlet flow; a first and second cold main closure bar, each parallel to the cold main fin direction and disposed proximate to a respective hot inlet tent or hot outlet tent; a first cold offset closure bar having a first offset closure bar length; and a second cold offset closure bar having a second offset closure bar length; wherein first cold offset closure bar length is greater than second cold offset closure bar length; and wherein the cold inlet corner fin direction forms an angle with the cold main fin direction that is greater than 5 degrees. the cold layer is configured to receive a cold inlet flow and discharge a cold outlet flow; the cold layer comprises: a plurality of cold main fins defining a cold main fin direction; a plurality of cold inlet corner fins defining a cold inlet corner fin direction, the cold inlet corner fin disposed in a first corner region of the cold layer proximate the hot inlet tent and configured to receive a portion of the cold inlet flow; a first and second cold main closure bar, each parallel to the cold main fin direction and disposed proximate to a respective hot inlet tent or hot outlet tent; a first cold offset closure bar having a first offset closure bar length; and a second cold offset closure bar having a second offset closure bar length; wherein first cold offset closure bar length is greater than second cold offset closure bar length; and wherein the cold inlet corner fin direction forms an angle with the cold main fin direction that is greater than 5 degrees. a plurality of cold main fins defining a cold main fin direction; a plurality of cold inlet corner fins defining a cold inlet corner fin direction, the cold inlet corner fin disposed in a first corner region of the cold layer proximate the hot inlet tent and configured to receive a portion of the cold inlet flow; a first and second cold main closure bar, each parallel to the cold main fin direction and disposed proximate to a respective hot inlet tent or hot outlet tent; a first cold offset closure bar having a first offset closure bar length; and a second cold offset closure bar having a second offset closure bar length; wherein first cold offset closure bar length is greater than second cold offset closure bar length; and wherein the cold inlet corner fin direction forms an angle with the cold main fin direction that is greater than 5 degrees.
An optical particle sensor, comprising: an optical arrangement comprising at least first and second light sources of different wavelengths for sequential operation; an optical detector for detecting light emitted from particles to be sensed or light from the light sources scattered by particles to be sensed and generating a detection current; an amplifier circuit for amplifying the detection current output from the optical detector; a compensation circuit for providing a current injection compensation signal to the amplifier circuit which combines, at the amplifier's input, with the detection current; and a controller , wherein the controller is adapted to provide said current injection compensation signal having a level which is dependent on which light source of the optical arrangement is in use, and to control the timing of operation of the light sources of the optical arrangement and the level of the compensation signal over time. an optical arrangement comprising at least first and second light sources of different wavelengths for sequential operation; an optical detector for detecting light emitted from particles to be sensed or light from the light sources scattered by particles to be sensed and generating a detection current; an amplifier circuit for amplifying the detection current output from the optical detector; a compensation circuit for providing a current injection compensation signal to the amplifier circuit which combines, at the amplifier's input, with the detection current; and a controller , wherein the controller is adapted to provide said current injection compensation signal having a level which is dependent on which light source of the optical arrangement is in use, and to control the timing of operation of the light sources of the optical arrangement and the level of the compensation signal over time. to provide said current injection compensation signal having a level which is dependent on which light source of the optical arrangement is in use, and to control the timing of operation of the light sources of the optical arrangement and the level of the compensation signal over time.
A system comprising: a light emitter to emit light toward an eye of a subject; a camera to capture images of a cornea of the eye having glints produced by reflection of the light from the cornea; a display device operated by a display module to sequentially display image frames; and a processor to: determine, based at least in part on a first captured image of the cornea, first locations of the glints at a first time while the display device is displaying an image frame; determine, based at least in part on a second captured image of the cornea, second locations of the glints at a second time while the display is displaying the image frame; determine a retinal velocity of the eye corresponding to differences between the first locations of the glints and the second locations of the glints; and provide signals to the display module to change a display time for the image frame based, at least in part, on the retinal velocity. a light emitter to emit light toward an eye of a subject; a camera to capture images of a cornea of the eye having glints produced by reflection of the light from the cornea; a display device operated by a display module to sequentially display image frames; and a processor to: determine, based at least in part on a first captured image of the cornea, first locations of the glints at a first time while the display device is displaying an image frame; determine, based at least in part on a second captured image of the cornea, second locations of the glints at a second time while the display is displaying the image frame; determine a retinal velocity of the eye corresponding to differences between the first locations of the glints and the second locations of the glints; and provide signals to the display module to change a display time for the image frame based, at least in part, on the retinal velocity. determine, based at least in part on a first captured image of the cornea, first locations of the glints at a first time while the display device is displaying an image frame; determine, based at least in part on a second captured image of the cornea, second locations of the glints at a second time while the display is displaying the image frame; determine a retinal velocity of the eye corresponding to differences between the first locations of the glints and the second locations of the glints; and provide signals to the display module to change a display time for the image frame based, at least in part, on the retinal velocity.
Cabling subsystem for a cryostat, comprising: - an instrument that comprises at least one of: a temperature sensor , a heater , a wired connector , and - a wired coupling to or from said instrument, characterized in that the cabling subsystem comprises: - an elongate enclosure made of a gastight material of low thermal conductivity, - at or close to both ends of said enclosure , mechanical interfaces for joining said enclosure to corresponding further structures of the cryostat in a gastight manner, - inside said enclosure , at an intermediate location between the ends of the enclosure, an internal part comprising material of high thermal conductivity, - outside said enclosure , at said intermediate location, an external part comprising material of high thermal conductivity, and - a thermally conductive connection between said internal part and said external part ; wherein at least one of said instrument and said wired coupling is attached to said internal part inside the enclosure . - an instrument that comprises at least one of: a temperature sensor , a heater , a wired connector , and - a wired coupling to or from said instrument, characterized in that the cabling subsystem comprises: - an elongate enclosure made of a gastight material of low thermal conductivity, - at or close to both ends of said enclosure , mechanical interfaces for joining said enclosure to corresponding further structures of the cryostat in a gastight manner, - inside said enclosure , at an intermediate location between the ends of the enclosure, an internal part comprising material of high thermal conductivity, - outside said enclosure , at said intermediate location, an external part comprising material of high thermal conductivity, and - a thermally conductive connection between said internal part and said external part ; - an elongate enclosure made of a gastight material of low thermal conductivity, - at or close to both ends of said enclosure , mechanical interfaces for joining said enclosure to corresponding further structures of the cryostat in a gastight manner, - inside said enclosure , at an intermediate location between the ends of the enclosure, an internal part comprising material of high thermal conductivity, - outside said enclosure , at said intermediate location, an external part comprising material of high thermal conductivity, and - a thermally conductive connection between said internal part and said external part ; wherein at least one of said instrument and said wired coupling is attached to said internal part inside the enclosure .