mhurhangee/ep-ind-claims huggingface dataset:
A method for setting a display brightness comprising: obtaining current state data characterizing a current state of a user device having a display with an adjustable brightness; providing the current state data as input to a brightness prediction machine learning model, wherein the model is configured to process the current state data in accordance with current values of a set of model parameters to generate as output a proposed display brightness for the display of the user device; setting the brightness of the display to a brightness that is lower than the proposed display brightness in accordance with an exploration policy; determining whether a user of the user device manually adjusts the display brightness; and: in response to determining that the user of the user device did not manually adjust the display brightness, using the lower brightness as a target output for adjusting the current values of the set of model parameters, and otherwise in response to determining that the user of the user device manually adjusted the display brightness to a manual brightness, using the manual brightness as the target output for adjusting the current values of the set of model parameters. obtaining current state data characterizing a current state of a user device having a display with an adjustable brightness; providing the current state data as input to a brightness prediction machine learning model, wherein the model is configured to process the current state data in accordance with current values of a set of model parameters to generate as output a proposed display brightness for the display of the user device; setting the brightness of the display to a brightness that is lower than the proposed display brightness in accordance with an exploration policy; determining whether a user of the user device manually adjusts the display brightness; and: in response to determining that the user of the user device did not manually adjust the display brightness, using the lower brightness as a target output for adjusting the current values of the set of model parameters, and otherwise in response to determining that the user of the user device manually adjusted the display brightness to a manual brightness, using the manual brightness as the target output for adjusting the current values of the set of model parameters.
A system for infusing a therapeutic agent into a vessel of a patient, comprising: a) a catheter having a proximal end, a distal end, and a lumen extending between the proximal and distal ends; b) a pressure detecting element coupled relative to the distal end of the catheter for sensing a pressure in the vessel; c) an infusion system configured to automatically infuse a portion of a dose of the therapeutic agent when a determined fluid pressure in the vessel is sensed; and characterised in that the system further comprises d) a timing system coupling the pressure detecting element and the infusion system, the timing system configured to delay activation of the infusion system by a set time after the pressure detecting element senses the predetermined fluid pressure. a) a catheter having a proximal end, a distal end, and a lumen extending between the proximal and distal ends; b) a pressure detecting element coupled relative to the distal end of the catheter for sensing a pressure in the vessel; c) an infusion system configured to automatically infuse a portion of a dose of the therapeutic agent when a determined fluid pressure in the vessel is sensed; and characterised in that the system further comprises d) a timing system coupling the pressure detecting element and the infusion system, the timing system configured to delay activation of the infusion system by a set time after the pressure detecting element senses the predetermined fluid pressure.
A process for synthesis of urea from CO 2 and NH 3 comprising: a) reacting CO 2 and NH 3 at a reaction pressure to form an aqueous solution of urea; b) stripping said aqueous solution of urea at a stripping pressure obtaining a purified solution and a gaseous phase containing ammonia and carbon dioxide, wherein the stripping step involves passing said aqueous solution as a falling film in an externally heated tube bundle; c) condensing said gaseous phase in at least one condenser at a condensation pressure to form a recycle solution which is sent back to the reaction step, thus forming a synthesis loop; d) producing at least a first steam flow at a first recovery pressure and first recovery temperature using heat removed from said gaseous phase during the condensation step c); e) using said first steam flow as a heat source in at least one downstream step of the process, the process being characterized by: f) a compression of said first steam flow to reach a pressure greater than said recovery pressure and a temperature greater than said recovery temperature, before said use as a heat source in the at least one downstream step, wherein no fresh CO 2 is added during the condensation step and wherein said step of compression of said first steam flow is performed with a compressor driven by an electric motor. a) reacting CO 2 and NH 3 at a reaction pressure to form an aqueous solution of urea; b) stripping said aqueous solution of urea at a stripping pressure obtaining a purified solution and a gaseous phase containing ammonia and carbon dioxide, wherein the stripping step involves passing said aqueous solution as a falling film in an externally heated tube bundle; c) condensing said gaseous phase in at least one condenser at a condensation pressure to form a recycle solution which is sent back to the reaction step, thus forming a synthesis loop; d) producing at least a first steam flow at a first recovery pressure and first recovery temperature using heat removed from said gaseous phase during the condensation step c); e) using said first steam flow as a heat source in at least one downstream step of the process,
A computing device comprising a processing unit, a memory, and a file system executing on the processing unit, the file system when executing on the processing unit performing operations comprising: in response to a file operation indicating a request to encrypt a file, prepending a header to the file; encrypting the contents of the file and writing the encrypted contents into the file after the header; storing within the header encryption metadata relating to the encrypted file; indicating in a reserved field of a file directory entry for the file that the file is encrypted; and, appending an additional file name extension to a file name of the encrypted file further indicating the file is encrypted. in response to a file operation indicating a request to encrypt a file, prepending a header to the file; encrypting the contents of the file and writing the encrypted contents into the file after the header; storing within the header encryption metadata relating to the encrypted file; indicating in a reserved field of a file directory entry for the file that the file is encrypted; and, appending an additional file name extension to a file name of the encrypted file further indicating the file is encrypted.
A surgical cannula having a proximal end and a distal end, wherein the proximal end bearing an anti-rotation configuration comprises at least two grooves (10, 20) having a non-circular profile such that a flat surface is defined therebetween closing ends of each groove (10, 20) thereby interrupting an otherwise smooth and continuous circumferential profile of the cannula to prevent the cannula from rotating and moving axially when in locked position during surgical insertion.
A relay coil terminal (32a; 32b) formed by bending a piece of metal plate, comprising: a vertical portion (52a; 52b) that restricts the movement of the relay coil terminal (32a; 32b) in a horizontal direction; a first horizontal portion (50a; 50b) and a second horizontal portion (51a; 51b) that restrict the movement of the relay coil terminal (32a; 32b) in a vertical direction; a leg portion (53a; 53b) that extends vertically downward from the vertical portion (52a; 52b), and is connectable to a power supply; characterised by a coil binding portion (54a; 54b) that is stood obliquely from one end of the second horizontal portion (51a; 51b), and around which a coil wire is to be wound, wherein the first horizontal portion (50a; 50b) and the second horizontal portion (51a; 51b) are provided to horizontally extend in opposite directions to each other from a top part of the vertical portion (52a; 52b). a vertical portion (52a; 52b) that restricts the movement of the relay coil terminal (32a; 32b) in a horizontal direction; a first horizontal portion (50a; 50b) and a second horizontal portion (51a; 51b) that restrict the movement of the relay coil terminal (32a; 32b) in a vertical direction; a leg portion (53a; 53b) that extends vertically downward from the vertical portion (52a; 52b), and is connectable to a power supply; characterised by a coil binding portion (54a; 54b) that is stood obliquely from one end of the second horizontal portion (51a; 51b), and around which a coil wire is to be wound, wherein the first horizontal portion (50a; 50b) and the second horizontal portion (51a; 51b) are provided to horizontally extend in opposite directions to each other from a top part of the vertical portion (52a; 52b).
Computer device comprising a screen capable of touch sensing, and a processor designed to control the display of a representation of a keypad on a keypad portion of the screen and to determine text input data when a touch input tool is moved over the keypad portion of the screen, characterized in that the processor is furthermore designed, when a touch input tool is moved continuously over the screen, to detect the movement of the touch input tool from the keypad portion to a control portion of the screen, to detect the movement of the touch input tool into the control portion,analyze whether this movement corresponds to a gesture triggering the execution of a system operation and, if so, determine the system operation on the basis of this movement and display a representation on the screen of a visual element associated at least with said system operation, and, if the continuous movement ends in the control portion, to execute the system operation.
A method for producing a carbonated cement mix in a mix operation in a cement mix apparatus comprising: (i) contacting a cement mix comprising cement binder and water in a mixer with carbon dioxide while the cement mix is mixing, wherein the mix is exposed to a dose of carbon dioxide of 0.01 to 1.5% by weight of cement (bwc) and wherein: - the carbon dioxide is in liquid form and is delivered to the cement mix in such a manner as to form a mixture of gaseous and solid carbon dioxide; - the cement mix comprises Portland cement; - the duration of flow of carbon dioxide to the cement mix is less than or equal to 5 minutes; and - the carbon dioxide is delivered to the surface of the cement mix in a mixer that is open to the atmosphere. - the carbon dioxide is in liquid form and is delivered to the cement mix in such a manner as to form a mixture of gaseous and solid carbon dioxide; - the cement mix comprises Portland cement; - the duration of flow of carbon dioxide to the cement mix is less than or equal to 5 minutes; and - the carbon dioxide is delivered to the surface of the cement mix in a mixer that is open to the atmosphere.
A method of operating a system comprising first (100; 200; 300; 700) and second (101; 202; 302; 701, 702, 703, 704) handheld devices comprising the steps of: said first device (100; 200; 300; 700) transmitting an acoustic signal; said acoustic signal being reflected from an input object (201; 705); said second device (101; 202; 302; 701, 702, 703, 704) receiving a received signal derived from the reflection of said acoustic signal; and said second device (101; 202; 302; 701, 702, 703, 704) determining information about the location or motion of the input object (201; 705) based on said received signal. said first device (100; 200; 300; 700) transmitting an acoustic signal; said acoustic signal being reflected from an input object (201; 705); said second device (101; 202; 302; 701, 702, 703, 704) receiving a received signal derived from the reflection of said acoustic signal; and said second device (101; 202; 302; 701, 702, 703, 704) determining information about the location or motion of the input object (201; 705) based on said received signal.
Workpiece made of metal and having a laser inscription as a security feature, wherein the laser inscription is visible to the naked eye and there is provided, beneath the laser inscription and congruent with the latter, an exclusively machinereadable security marking, characterized in that the laser inscription is formed as an initial inscription and the security marking comprises thermal penetration regions (4, 5) of different depths, wherein the laser inscription is formed by the surfaces of the thermal penetration regions (4, 5).
A ranging while drilling system that comprises: a drillstring having: a rotating magnetic source (202,402) that induces a time-varying magnetic moment (206,406) along an existing casing string remote from the drill string, the rotating magnetic source (202,402) including at least one dipole with a non-orthogonal tilt relative to a longitudinal axis of the drillstring; an array of axially spaced three-axis magnetometers (208,209,408) that detect a magnetic field (204,404) from the induced magnetic moment (206,406); and a sensor that provides a signal indicative of a rotational orientation of the rotating magnetic source (202,402); and a processor that determines a relative distance and direction of the casing string from measurements by the sensor and the array of axially spaced three-axis magnetometers (208,209,408). a drillstring having: a rotating magnetic source (202,402) that induces a time-varying magnetic moment (206,406) along an existing casing string remote from the drill string, the rotating magnetic source (202,402) including at least one dipole with a non-orthogonal tilt relative to a longitudinal axis of the drillstring; an array of axially spaced three-axis magnetometers (208,209,408) that detect a magnetic field (204,404) from the induced magnetic moment (206,406); and a sensor that provides a signal indicative of a rotational orientation of the rotating magnetic source (202,402); and a rotating magnetic source (202,402) that induces a time-varying magnetic moment (206,406) along an existing casing string remote from the drill string, the rotating magnetic source (202,402) including at least one dipole with a non-orthogonal tilt relative to a longitudinal axis of the drillstring; an array of axially spaced three-axis magnetometers (208,209,408) that detect a magnetic field (204,404) from the induced magnetic moment (206,406); and a sensor that provides a signal indicative of a rotational orientation of the rotating magnetic source (202,402); and a processor that determines a relative distance and direction of the casing string from measurements by the sensor and the array of axially spaced three-axis magnetometers (208,209,408).
A bleed valve for a gas turbine engine, comprising: a valve body defining a flow path and a flapper seat; and a flapper pivotally connected to the valve body and movable relative to the flapper seat between open and closed positions, wherein the flapper seats against the flapper seat and blocks the flow path in the closed position, wherein the flapper is angled toward an inlet of the valve body in the open position such that a pressure differential across the flapper urges the flapper towards the closed position; a spring coupled between the flapper and the valve body biasing the flapper toward the open position, characterized in that the flapper open position is separated from the flapper closed position by an angle of between 27.5 degrees and 37.5 degrees; wherein the valve body has inlet and outlet ends, wherein the flapper is pivotally coupled to the valve body at an end adjacent the outlet end; the bleed valve further including a pivot pin offset laterally from the flow path and coupling the flapper to the valve body; and wherein the flapper seat defines a seating surface with angle of between about 40 degrees and about 50 degrees relative to a flow axis defined by the flow path. a valve body defining a flow path and a flapper seat; and a flapper pivotally connected to the valve body and movable relative to the flapper seat between open and closed positions, wherein the flapper seats against the flapper seat and blocks the flow path in the closed position, wherein the flapper is angled toward an inlet of the valve body in the open position such that a pressure differential across the flapper urges the flapper towards the closed position;
Method of manufacturing at least one component by 3D printing on a construction platform provided with a heating device, comprising the steps of: applying a layer of loose particulate material to the construction platform, heating the applied layer of loose particulate material by means of the heating device of the construction platform, outputting a liquid treatment agent onto a partial area of the heated layer of loose particulate material, repeating the above steps to build up the at least one component, characterized in that the heating is carried out by means of the heating device of the construction platform in such a way that a temperature of the construction platform increases toward a predetermined construction platform maximum temperature during the build-up of the component to set a surface temperature of the respectively last applied layer. applying a layer of loose particulate material to the construction platform, heating the applied layer of loose particulate material by means of the heating device of the construction platform, outputting a liquid treatment agent onto a partial area of the heated layer of loose particulate material, repeating the above steps to build up the at least one component, characterized in that the heating is carried out by means of the heating device of the construction platform in such a way that a temperature of the construction platform increases toward a predetermined construction platform maximum temperature during the build-up of the component to set a surface temperature of the respectively last applied layer.
An oncolytic adenoviral vector comprising an adenovirus serotype 5 nucleic acid backbone, a native E1 A promoter, a 24 bp deletion in the Rb binding constant region 2 of E1, a nucleic acid sequence encoding a human granulocyte-macrophage colony-stimulating factor (GM-CSF) in the place of the deleted gp19k/6.7K in the E3 region and a capsid modification, wherein the capsid modification is Ad5/3 chimerism, insertion of an integrin binding region and/or heparin sulphate binding polylysine modification into the fiber.
A gas turbine front-stage compressor rotor, for a compressor of a gas turbine, comprising: a rotatable support for rotation about an axis of rotation; and a plurality of blades 12), each blade comprising a hub, a leading edge and a trailing edge wherein a chord is defined between the leading edge and the trailing edge and wherein the rotatable support is a disk and the plurality of blades and the disk are one integral part and form a blisk: each of the blades extends from its hub away from the rotatable support; the leading edge of the at least one of the blades at its hub is positioned at a leading-edge-hub-radius from a position of the axis of rotation; and the trailing edge of the at least one of the blades is positioned at its hub at a trailing-edge-hub-radius from the position of the axis of rotation wherein the trailing-edge-hub-radius is greater than the leading-edge-hub-radius, characterised in that at least one of the blades has a hub-thickness taken at the widest part of the blade between the leading edge and the trailing edge to chord ratio greater than 10 percent. a rotatable support for rotation about an axis of rotation; and a plurality of blades 12), each blade comprising a hub, a leading edge and a trailing edge wherein a chord is defined between the leading edge and the trailing edge and wherein the rotatable support is a disk and the plurality of blades and the disk are one integral part and form a blisk: each of the blades extends from its hub away from the rotatable support; the leading edge of the at least one of the blades at its hub is positioned at a leading-edge-hub-radius from a position of the axis of rotation; and the trailing edge of the at least one of the blades is positioned at its hub at a trailing-edge-hub-radius from the position of the axis of rotation wherein the trailing-edge-hub-radius is greater than the leading-edge-hub-radius, each of the blades extends from its hub away from the rotatable support; the leading edge of the at least one of the blades at its hub is positioned at a leading-edge-hub-radius from a position of the axis of rotation; and the trailing edge of the at least one of the blades is positioned at its hub at a trailing-edge-hub-radius from the position of the axis of rotation wherein the trailing-edge-hub-radius is greater than the leading-edge-hub-radius,
A semiconductor device comprising: a wiring board that includes an insulating board and a wiring layer, the insulating board having a first main surface and a second main surface, which is on an opposite side of the first main surface, the wiring layer being formed on the second main surface and including a wiring portion and a back-surface-side heat dissipation portion; a semiconductor element that is mounted on the first main surface of the wiring board and is connected to the wiring portion; characterized by: a spacer having a spacer base constituted by a metal plate that is interposed between the semiconductor element and the first main surface of the wiring board and is connected thermally in a state of face to face contact to the back-surface-side heat dissipation portion; and a heatsink that sandwiches, together with the spacer, the semiconductor element and is secured to the spacer. a wiring board that includes an insulating board and a wiring layer, the insulating board having a first main surface and a second main surface, which is on an opposite side of the first main surface, the wiring layer being formed on the second main surface and including a wiring portion and a back-surface-side heat dissipation portion; a semiconductor element that is mounted on the first main surface of the wiring board and is connected to the wiring portion; characterized by: a spacer having a spacer base constituted by a metal plate that is interposed between the semiconductor element and the first main surface of the wiring board and is connected thermally in a state of face to face contact to the back-surface-side heat dissipation portion; and a heatsink that sandwiches, together with the spacer, the semiconductor element and is secured to the spacer. a spacer having a spacer base constituted by a metal plate that is interposed between the semiconductor element and the first main surface of the wiring board and is connected thermally in a state of face to face contact to the back-surface-side heat dissipation portion; and a heatsink that sandwiches, together with the spacer, the semiconductor element and is secured to the spacer.