mhurhangee/patent-ind-claim-en huggingface dataset:
An LCD type 3D printer, comprising: a light source provided at a lower portion of the 3D printer to irradiate light upward; a lens disposed at a predetermined distance from an upper portion of the light source ; an LCD panel provided above the lens; a storage container provided above the LCD panel storing a liquid molding material ; a build plate provided above the storage container to hold a molded product ; and an elevating member provided at an upper portion of the build plate to move up and down, wherein the lens includes an upwardly-convex meniscus lens provided between the light source and the LCD panel to reduce a light irradiation angle and to weaken the light irradiated by the light source at the central portion of the LCD panel so that the intensity of light reaching the LCD panel can be adjusted as uniformly as possible without applying a mask image to the LCD panel , and wherein the light source is composed of an ultraviolet LED, and wherein the printer further comprises a heat sink provided under the light source and a cooling fan provided under the heat sink , and wherein the liquid molding material is composed of a photo-curable liquid resin, and wherein the lens further includes a condenser lens provided above the light source . a light source provided at a lower portion of the 3D printer to irradiate light upward; a lens disposed at a predetermined distance from an upper portion of the light source ; an LCD panel provided above the lens; a storage container provided above the LCD panel storing a liquid molding material ; a build plate provided above the storage container to hold a molded product ; and an elevating member provided at an upper portion of the build plate to move up and down, wherein the lens includes an upwardly-convex meniscus lens provided between the light source and the LCD panel to reduce a light irradiation angle and to weaken the light irradiated by the light source at the central portion of the LCD panel so that the intensity of light reaching the LCD panel can be adjusted as uniformly as possible without applying a mask image to the LCD panel , and wherein the light source is composed of an ultraviolet LED, and wherein the printer further comprises a heat sink provided under the light source and a cooling fan provided under the heat sink , and wherein the liquid molding material is composed of a photo-curable liquid resin, and wherein the lens further includes a condenser lens provided above the light source .
A method for manufacturing a metal sheet using a continuous annealing line including a rapid quenching unit for cooling the metal sheet by immersing the metal sheet in a liquid , wherein the metal sheet in rapid quenching is pinched between a pair of pinch rolls placed in the liquid in a range where a temperature of the metal sheet is from (T Ms + 150) (°C) to (T Mf - 150) (°C), T Ms (°C) is a Ms temperature at which the martensite transformation of the metal sheet starts, T Mf (°C) is a Mf temperature at which the martensite transformation thereof finishes; characterised in that : the rapid quenching unit includes water ejecting devices for ejecting cooling water to a front surface and back surface of the metal sheet and a pair of the pinch rolls pinch the metal sheet said pinch rolls are placed between the metal sheet and the water ejecting devices for correcting the shape of the metal sheet .
A foot-braking simulation device comprising: - a mechanical braking module capable of supplying a linear effort value in response to a press on a brake pedal; - an electromagnetic friction module comprising a powder brake capable of supplying a friction force value upon the rotation of the motor of the powder brake, in response to said press on the brake pedal; and - a software calculation module capable of combining the values output by the mechanical braking and electromagnetic friction modules to calculate a control value, and generate a variable force feedback on said brake pedal as a function of the control value. - a mechanical braking module capable of supplying a linear effort value in response to a press on a brake pedal; - an electromagnetic friction module comprising a powder brake capable of supplying a friction force value upon the rotation of the motor of the powder brake, in response to said press on the brake pedal; and - a software calculation module capable of combining the values output by the mechanical braking and electromagnetic friction modules to calculate a control value, and generate a variable force feedback on said brake pedal as a function of the control value.
A manometric catheter probe, comprising: a flexible printed circuit; at least one pressure sensor assembly, disposed along the flexible printed circuit and coupled therewith, the at least one pressure sensor assembly including: a body including a central cavity configured to receive at least a portion of the flexible printed circuit; an annular recess around the body; a microelectromechanical systems (MEMS) sensor configured to be disposed in the annular recess; an electrical connector configured to electrically couple the MEMS sensor and the flexible printed circuit; and a first flexible sleeve configured to be disposed over the body in a manner forming a cavity between the first flexible sleeve and the annular recess for containing a fluid, the fluid configured to communicate pressure to the MEMS sensor;; and a second sleeve configured to be disposed over the at least one pressure sensor assembly. a flexible printed circuit; at least one pressure sensor assembly, disposed along the flexible printed circuit and coupled therewith, the at least one pressure sensor assembly including: a body including a central cavity configured to receive at least a portion of the flexible printed circuit; an annular recess around the body; a microelectromechanical systems (MEMS) sensor configured to be disposed in the annular recess; an electrical connector configured to electrically couple the MEMS sensor and the flexible printed circuit; and a first flexible sleeve configured to be disposed over the body in a manner forming a cavity between the first flexible sleeve and the annular recess for containing a fluid, the fluid configured to communicate pressure to the MEMS sensor;; and a second sleeve configured to be disposed over the at least one pressure sensor assembly. a body including a central cavity configured to receive at least a portion of the flexible printed circuit; an annular recess around the body; a microelectromechanical systems (MEMS) sensor configured to be disposed in the annular recess; an electrical connector configured to electrically couple the MEMS sensor and the flexible printed circuit; and a first flexible sleeve configured to be disposed over the body in a manner forming a cavity between the first flexible sleeve and the annular recess for containing a fluid, the fluid configured to communicate pressure to the MEMS sensor;; and a second sleeve configured to be disposed over the at least one pressure sensor assembly.
A redundant safety system for a mobile machine having at least one controller ; having a first localization system that is configured to localize a position of at least one safe point of interest; having a detection system that is configured to detect a feature of the safe point of interest , wherein the localization system is configured to detect a position of the safe point of interest , and the detection system is configured to detect a feature of the safe point of interest , characterized in that the controller is configured to activate a safe zone of interest associated with the safe point of interest on detection of the position of the safe point of interest and of the feature of the safe point of interest , with the safe point of interest forming a starting position and an associated position for the safe zone of interest , with the safe zone of interest being activated by the passing through of the safe point of interest . having a first localization system that is configured to localize a position of at least one safe point of interest; having a detection system that is configured to detect a feature of the safe point of interest , wherein the localization system is configured to detect a position of the safe point of interest , and the detection system is configured to detect a feature of the safe point of interest , characterized in that the controller is configured to activate a safe zone of interest associated with the safe point of interest on detection of the position of the safe point of interest and of the feature of the safe point of interest , with the safe point of interest forming a starting position and an associated position for the safe zone of interest , with the safe zone of interest being activated by the passing through of the safe point of interest .
A safety switch actuation device for keeping a pushbutton switch activated and deactivated remotely, the actuation device comprising a plunger which can be brought by external probing from a standby position, in which it does not switch the pushbutton switch , to an active position, in which it keeps said pushbutton switch actuated, wherein when the plunger is in an activated position, the plunger can be brought to a standby position by means of the actuation device which has a remotely controllable linear drive , a return spring and a return actuator , characterized in that the plunger is coupled to the return actuator by the remotely controllable linear drive , which is driven by actuation of a Bowden cable , under tension of the return spring , whereby the return spring is compressed, and in that the return actuator , after deactivation of the linear drive , is pressed by the return spring into a position more remote from the pushbutton switch , thereby entraining the plunger into its standby position.
A thrombectomy catheter, comprising: a catheter tube including a proximal portion, a distal portion, and a lumen extending therein; a high pressure tube extending through the catheter lumen from the catheter proximal portion toward the catheter distal portion, the high pressure tube having at least one jet orifice for directing at least one fluid jet through the catheter lumen; an outflow orifice ; an inflow orifice ; and a fluid pulse generator coupled to the proximal portion of the catheter tube ; wherein the fluid pulse generator is configured to inject fluid through the thrombectomy catheter at a first frequency from 20 MHz to 30 MHz . a catheter tube including a proximal portion, a distal portion, and a lumen extending therein; a high pressure tube extending through the catheter lumen from the catheter proximal portion toward the catheter distal portion, the high pressure tube having at least one jet orifice for directing at least one fluid jet through the catheter lumen; an outflow orifice ; an inflow orifice ; and a fluid pulse generator coupled to the proximal portion of the catheter tube ; wherein the fluid pulse generator is configured to inject fluid through the thrombectomy catheter at a first frequency from 20 MHz to 30 MHz .
A heated floor panel, comprising: a base assembly including a top layer, a bottom layer, and a honeycomb layer located between the top layer and the bottom layer; a heating element located on a first surface of the base assembly; and a panel skin located over the heating element and the first surface of the base assembly, wherein the panel skin extends from the first surface of the base assembly to a second surface of the base assembly, the second surface of the base assembly being opposite the first surface of the base assembly and characterized in that the panel skin forms an upper surface and perimeter surfaces of the heated floor panel, and wherein an underside surface of the heated floor panel is formed by the panel skin and the second surface of the base assembly;. wherein the panel skin surrounds an outer perimeter of the honeycomb layer, and wherein the panel skin is directly adjacent to the outer perimeter of the honeycomb layer. a base assembly including a top layer, a bottom layer, and a honeycomb layer located between the top layer and the bottom layer; a heating element located on a first surface of the base assembly; and a panel skin located over the heating element and the first surface of the base assembly, wherein the panel skin extends from the first surface of the base assembly to a second surface of the base assembly, the second surface of the base assembly being opposite the first surface of the base assembly and characterized in that the panel skin forms an upper surface and perimeter surfaces of the heated floor panel, and wherein an underside surface of the heated floor panel is formed by the panel skin and the second surface of the base assembly;. wherein the panel skin surrounds an outer perimeter of the honeycomb layer, and wherein the panel skin is directly adjacent to the outer perimeter of the honeycomb layer.
A method for fastening an electronic unit to a nappy , said method comprising the steps of providing a sensor element comprising a contact area arranged between two attachment parts which can be fastened to the nappy , said contact area having a first side and a second side opposite the first side, fastening the attachment parts of the sensor element to the surface of the nappy , preferably by means of an adhesive, in a fixed position in relation to the nappy , leaving the contact area of the sensor element free from being fastened directly to the surface of the nappy, providing an electronic unit comprising a first part and a second part , placing the first part of the electronic unit between the contact area and the surface of the nappy in close contact with the first side of the contact area , and placing the second part of the electronic unit in close contact with the second side of the contact area opposite the first side thereof, so that the contact area of the sensor element is wedged in between the first and the second part of the electronic unit , whereby the electronic unit is attached to and held in a fixed position in relation to the sensor element and, thereby, also to the nappy .
A display device for a monitor, comprising a display unit and a support unit , and a master control unit, the display unit being used for displaying patient-end parameter information, and the display unit being connected to the support unit in a way that allows rotation relative to the support unit ; characterized in that a short edge of the display unit is provided with a first marker display area and/or an alarm light display area for displaying when the display unit is in a vertical mode, and a long edge of the display unit is provided with a second marker display area and/or an alarm light display area for displaying when the display unit is in a transverse mode, and wherein when the display unit is switched to the vertical mode, the master control unit controlling said first marker display area and/or an alarm light display area to be effective and lighted while the said second marker display area and/or an alarm light display area to be ineffective, and when the display unit is switched to the transverse mode, the master control unit controlling said first marker display area and/or an alarm light display area to be ineffective while the said second marker display area and/or an alarm light display area to be effective and lighted.
A composition comprising a fusion protein comprising at least two cytokines, wherein the cytokines are XCL1 and IFNα2, and wherein IFNα2 comprises a mutation that strongly reduces binding activity to its receptor, and at least one cytokine is a wild type cytokine which provides cell-specific targeting that restores activity of IFNα2 on the targeted cells. wherein the cytokines are XCL1 and IFNα2, and wherein IFNα2 comprises a mutation that strongly reduces binding activity to its receptor, and at least one cytokine is a wild type cytokine which provides cell-specific targeting that restores activity of IFNα2 on the targeted cells.
A method of preparing an aqueous dispersion of acrylate-siloxane copolymer particles comprising the steps of: 1) contacting an aqueous monomer emulsion with an initiator in a stirred vessel and in the presence of water and a surfactant and at a temperature maintained in the range of from 60 °C to 95 °C, then 2) allowing sufficient time to achieve substantially complete conversion of the monomers to polymer particles comprising structural units of the monomers; wherein the monomer emulsion comprises, based on the weight of monomers, a) from 40 to 98.8 weight percent of an acrylate monomer; b) from 0.1 to 5 weight percent of an acid monomer; and c) from 1 to 59.8 weight percent of a siloxane acrylate monomer of formula I: where R is H or CH 3 ; R 1 is H or CH 3 ; and each R 2 is independently CH 3 or O-Si(CH 3 ) 3 ; Y is -CH 2 - or -CH 2 CH 2 -; and x is 0 or 1; with the proviso that when x is 1, R 1 is H; when Y is -CH 2 -, R 1 is H; and when Y is - CH 2 CH 2 -, R 1 is CH 3 and x is 0. 1) contacting an aqueous monomer emulsion with an initiator in a stirred vessel and in the presence of water and a surfactant and at a temperature maintained in the range of from 60 °C to 95 °C, then 2) allowing sufficient time to achieve substantially complete conversion of the monomers to polymer particles comprising structural units of the monomers; wherein the monomer emulsion comprises, based on the weight of monomers, a) from 40 to 98.8 weight percent of an acrylate monomer; b) from 0.1 to 5 weight percent of an acid monomer; and c) from 1 to 59.8 weight percent of a siloxane acrylate monomer of formula I: where R is H or CH 3 ; R 1 is H or CH 3 ; and each R 2 is independently CH 3 or O-Si(CH 3 ) 3 ; Y is -CH 2 - or -CH 2 CH 2 -; and x is 0 or 1; with the proviso that when x is 1, R 1 is H; when Y is -CH 2 -, R 1 is H; and when Y is - CH 2 CH 2 -, R 1 is CH 3 and x is 0.
A method of projecting an image light field to an eye of a viewer, the method comprising: modulating , by a controller, an intensity of a light beam in a sequence of time slots, each time slot of the sequence of time slots corresponding to a respective field angle of the image light field, the intensity of the light beam in each time slot of the sequence of time slots corresponding to an intensity of the image light field at the respective field angle; propagating the light beam onto a dynamic input coupling grating, ICG, ; controlling the dynamic ICG , by the controller, to diffract a respective portion of the light beam into a waveguide at a respective angle corresponding to the respective field angle for each time slot of the sequence of time slots; and directing each respective portion of the light beam out of the waveguide toward the eye at the respective field angle, thereby projecting the image light field to the eye of the viewer. modulating , by a controller, an intensity of a light beam in a sequence of time slots, each time slot of the sequence of time slots corresponding to a respective field angle of the image light field, the intensity of the light beam in each time slot of the sequence of time slots corresponding to an intensity of the image light field at the respective field angle; propagating the light beam onto a dynamic input coupling grating, ICG, ; controlling the dynamic ICG , by the controller, to diffract a respective portion of the light beam into a waveguide at a respective angle corresponding to the respective field angle for each time slot of the sequence of time slots; and directing each respective portion of the light beam out of the waveguide toward the eye at the respective field angle, thereby projecting the image light field to the eye of the viewer.
A method for capturing a pollutant entrained in a volume of water, the method comprising directing flow of a fluid stream comprising water and a pollutant through interstices of a multitude of fractured fragments of contaminant-sorbent, hydrophobic bodies of a filter medium comprising particles of an organic matrix material (OMM) attached to styrene-butadiene-styrene (SBS) granules embedded in an M-Class rubber (MCR) matrix, wherein the OMM particles comprise any of (a) particles of biochar, (b) cellulosic particles, or (c) activated carbon particles, and wherein the pollutant comprises any of the following: (i) hydrocarbons such as oils, (ii) phosphate pollutants, and (iii) synthetic organic compounds such as volatile organic compound (VOC), polychlorinated biphenyl (PCB), and per- and polyfluoroalkyl (PFAS) substances.
Interior lighting device for a motor vehicle comprising: - at least one light source capable of emitting at least one light beam, - at least one projection support , the projection support being a glazed surface of the vehicle arranged to switch reversibly from a transparent state to an opaque state, - a control module arranged to configure the light source , the module being also arranged to configure the at least one projection support in a passive mode or in an active mode in which the light beam forms an image on said projection support and according to the manual or automatic driving mode of the motor vehicle characterized in that it comprises at least one temperature and/or light intensity sensor associated with said control module, said at least one sensor detecting the conditions outside the vehicle and in that the image formed on said projection support is formed in response to the data collected by said at least one sensor, and in that , in response to the data collected by said at least one sensor, the control module selects and projects said image. - at least one light source capable of emitting at least one light beam, - at least one projection support , the projection support being a glazed surface of the vehicle arranged to switch reversibly from a transparent state to an opaque state, - a control module arranged to configure the light source , the module being also arranged to configure the at least one projection support in a passive mode or in an active mode in which the light beam forms an image on said projection support and according to the manual or automatic driving mode of the motor vehicle
A scanning system comprising: a backscatter x-ray system scanner having an x-ray source configured to emit an x-ray beam and having a sensor system configured to detect backscatter caused by the x-ray beam encountering an elongate structure ; a controller in communication with the scanner , wherein the controller is configured to control the scanner to perform a scan of the elongate structure having a cavity with a fluid and filter data in the scan to remove a portion of the data in the scan attributable to the fluid to form filtered data , enabling detecting an inconsistency on a wall of the elongate structure in the filtered data ; and a shield configured to reduce backscatter , wherein the elongate structure is located between the x-ray source and the shield . a backscatter x-ray system scanner having an x-ray source configured to emit an x-ray beam and having a sensor system configured to detect backscatter caused by the x-ray beam encountering an elongate structure ; a controller in communication with the scanner , wherein the controller is configured to control the scanner to perform a scan of the elongate structure having a cavity with a fluid and filter data in the scan to remove a portion of the data in the scan attributable to the fluid to form filtered data , enabling detecting an inconsistency on a wall of the elongate structure in the filtered data ; and a shield configured to reduce backscatter , wherein the elongate structure is located between the x-ray source and the shield .