mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing an organic light-emitting display device using a laser beam irradiation apparatus comprising a laser driver, the method comprising: forming an organic light-emitting part ; forming a sealing part around the organic light-emitting part , the sealing part being formed on a first substrate or a second substrate ; aligning the first substrate and the second substrate ; and irradiating a laser beam ; characterised in that the laser beam moves along the sealing part following a motion path (P) in which a rectilinear motion (T) and a revolving motion (R) are combined, wherein the revolving motion (R) is circular motion about a point, such that the motion path (P) comprises curved trajectories that overlap each other, wherein an intensity of the laser beam is changed by the laser driver while the laser beam is performing the revolving motion (R), wherein a circumference of a path of the revolving motion (R) is divided into a plurality of segments, each of the plurality of segments subtending the same angle of the rotation motion, and the laser driver changes the intensity of the laser beam such that the intensity of the laser beam is varied to be different in each of the plurality of segments. forming an organic light-emitting part ; forming a sealing part around the organic light-emitting part , the sealing part being formed on a first substrate or a second substrate ; aligning the first substrate and the second substrate ; and irradiating a laser beam ; characterised in that the laser beam moves along the sealing part following a motion path (P) in which a rectilinear motion (T) and a revolving motion (R) are combined, wherein the revolving motion (R) is circular motion about a point, such that the motion path (P) comprises curved trajectories that overlap each other, wherein an intensity of the laser beam is changed by the laser driver while the laser beam is performing the revolving motion (R), wherein a circumference of a path of the revolving motion (R) is divided into a plurality of segments, each of the plurality of segments subtending the same angle of the rotation motion, and the laser driver changes the intensity of the laser beam such that the intensity of the laser beam is varied to be different in each of the plurality of segments.
An electronic mirror device that is attached to a vehicle interior and is used for rearward visual recognition, the electronic mirror device comprising: an optical member that reflects incident light from a front surface side, and transmits incident light from a rear surface side; and a liquid crystal display that includes a liquid crystal panel disposed on the rear surface side of the optical member and a backlight (BL) that irradiates the liquid crystal panel with light, and displays an image of a rear view of a vehicle, characterized in that a peak angle of the backlight (BL) is directed downward with respect to a front direction of the liquid crystal panel . an optical member that reflects incident light from a front surface side, and transmits incident light from a rear surface side; and a liquid crystal display that includes a liquid crystal panel disposed on the rear surface side of the optical member and a backlight (BL) that irradiates the liquid crystal panel with light, and displays an image of a rear view of a vehicle, characterized in that a peak angle of the backlight (BL) is directed downward with respect to a front direction of the liquid crystal panel .
A method for joining two semiconductor substrates by molecular adhesion, comprising: - a step a) of bringing a first substrate and a second substrate into intimate contact in order to form an assembly having a bonding interface ; - a step b) of reaction-annealing the bonding interface at a first temperature that is greater than a first predetermined temperature, this step b) generating bubbles at the bonding interface; the method being characterized in that it comprises: - a step c) of at least partially debonding the two substrates at the bonding interface in order to eliminate the bubbles; - a step d) of bringing the first substrate and the second substrate back into intimate contact at the bonding interface in order to reform the assembly . - a step a) of bringing a first substrate and a second substrate into intimate contact in order to form an assembly having a bonding interface ; - a step b) of reaction-annealing the bonding interface at a first temperature that is greater than a first predetermined temperature, this step b) generating bubbles at the bonding interface; - a step c) of at least partially debonding the two substrates at the bonding interface in order to eliminate the bubbles; - a step d) of bringing the first substrate and the second substrate back into intimate contact at the bonding interface in order to reform the assembly .
Process for making a polylactic acid elongated object comprising the steps of a) making a solution of polylactic acid (PLA) having an intrinsic viscosity (IV, measured as described in the description in chloroform at 25°C) of at least 4 dL/g, in a solvent wherein the solution has a concentration c P of 5 to 50 mass% expressed as the mass of PLA per total mass of solution; b) spinning the solution through a spinplate comprising at least 1 spinhole to form a fluid elongated object; c) optionally applying a draw ratio DR fluid to the fluid elongated object; d) contacting the fluid elongated object with a cooling medium to form a solvent-containing gel elongated object; e) removing at least partly the solvent from the gel elongated object to form a solid elongated object; and f) drawing the elongated object in at least one step before, during and/or after step e), while applying a draw ratio (DR solid ) of at least 2, to form a PLA elongated object, characterized in that in step d) the cooling medium has a temperature T q of less than 0°C. a) making a solution of polylactic acid (PLA) having an intrinsic viscosity (IV, measured as described in the description in chloroform at 25°C) of at least 4 dL/g, in a solvent wherein the solution has a concentration c P of 5 to 50 mass% expressed as the mass of PLA per total mass of solution; b) spinning the solution through a spinplate comprising at least 1 spinhole to form a fluid elongated object; c) optionally applying a draw ratio DR fluid to the fluid elongated object; d) contacting the fluid elongated object with a cooling medium to form a solvent-containing gel elongated object; e) removing at least partly the solvent from the gel elongated object to form a solid elongated object; and f) drawing the elongated object in at least one step before, during and/or after step e), while applying a draw ratio (DR solid ) of at least 2, to form a PLA elongated object,
Method for unloading a first bale and a second bale from a round baler onto a field , the round baler comprising a bale chamber and a bale holder , the bale holder being located outside of the bale chamber , the method successively comprising the steps of: - growing (M7) the second bale in the bale chamber , while the first bale is carried by the bale holder ; - unloading (M8) the first bale from the bale holder onto the field a period of time before finishing growing the second bale , the first bale defining a first position (P1) on the field when the first bale is at rest on the field ; - finishing (M9) growing the second bale , transporting the second bale from the bale chamber to the bale holder , and unloading the second bale from the bale holder onto the field , the second bale defining a second position (P2) on the field when the second bale is at rest on the field ; characterised in that the period of time is related to a distance (d3) between the first position (P1) and the second position (P2), which distance (d3) will be covered by the baler on the field for finishing the second bale , and wherein said period of time is determined such that said distance is smaller than a sum of a diameter (d1) of the first bale and a diameter (d2) of the second bale . - growing (M7) the second bale in the bale chamber , while the first bale is carried by the bale holder ; - unloading (M8) the first bale from the bale holder onto the field a period of time before finishing growing the second bale , the first bale defining a first position (P1) on the field when the first bale is at rest on the field ; - finishing (M9) growing the second bale , transporting the second bale from the bale chamber to the bale holder , and unloading the second bale from the bale holder onto the field , the second bale defining a second position (P2) on the field when the second bale is at rest on the field ; characterised in that the period of time is related to a distance (d3) between the first position (P1) and the second position (P2), which distance (d3) will be covered by the baler on the field for finishing the second bale , and wherein said period of time is determined such that said distance is smaller than a sum of a diameter (d1) of the first bale and a diameter (d2) of the second bale .
Method for adjusting a magnetic field of a magnetic resonance tomography (MRT)-device having a magnet , comprising: - transferring the magnet from an operating state to a non-operating state in a ramp-down mode ; - subsequently transferring the magnet from the non-operating state to the operating state in a ramp-up mode , wherein in a ramp-up mode a current causing a magnetic field is successively increased for realizing the magnetic field and in the ramp-down mode the current is reduced, - observing a reference parameter different from the magnetic field; - setting a target value for the reference parameter; - comparing the observed reference parameter to the target value, wherein the reference parameter is a current, in particular the current for realizing the magnetic field of the magnet; and - finishing the ramp-up mode when the reference parameter reaches the target value, characterized in that for setting the target value the current is calibrated during a previous ramp down mode , wherein for setting the target value the current is observed during an initiation phase of the ramp-down mode . - transferring the magnet from an operating state to a non-operating state in a ramp-down mode ; - subsequently transferring the magnet from the non-operating state to the operating state in a ramp-up mode , wherein in a ramp-up mode a current causing a magnetic field is successively increased for realizing the magnetic field and in the ramp-down mode the current is reduced, - observing a reference parameter different from the magnetic field; - setting a target value for the reference parameter; - comparing the observed reference parameter to the target value, wherein the reference parameter is a current, in particular the current for realizing the magnetic field of the magnet; and - finishing the ramp-up mode when the reference parameter reaches the target value, characterized in that for setting the target value the current is calibrated during a previous ramp down mode ,
A non-therapeutic use of nano-sized extracellular vesicles isolated from lactic acid bacteria for preventing hair loss or promoting hair growth, wherein the extracellular vesicles are obtained by centrifuging a culture of lactic acid bacteria; filtering the obtained supernatant and ultracentrifuging the obtained filtrate.
Measuring circuit of the voltage of an electric machine comprising a first operational amplifier having its non-inverting input connected to a non-inverting input of at least one second operational amplifier , and its output feedback connected, through a resistance (R5), to the inverting input , said inverting input of the first operational amplifier being further connected through a resistance (R6) to a first phase (C) of the input current to an electric machine, the output of the first operational amplifier being connected, through a resistance (R8), to the inverting input of a third operational amplifier which has its non-inverting input connected to a reference voltage (VREF), said output of the first operational amplifier being further connected to a first output (VC) of the circuit, which is at a voltage value equal to the voltage of a first phase of the electric machine to be measured, said third operational amplifier having its output feedback connected, through a capacitance (C1), to the inverting input , said output of the third operational amplifier being further connected through a resistance (R10) to the non-inverting input of the first operational amplifier and to the non-inverting input of the second operational amplifier , the second operational amplifier comprising its output feedback connected, through a resistance (R3), to the inverting input , said inverting input being further connected through a resistance (R4) to a second phase (B) of the input current to the electric machine, the output of the second operational amplifier being connected, through a resistance (R7), to the inverting input of the third operational amplifier and being further connected to a second output (VB) of the circuit, which is at a voltage value equal to the voltage of a second phase of the electric machine to be measured.
Electrochemical gas sensing apparatus for sensing at least one gaseous analyte and comprising a housing having an inlet , a sensing electrode and an ozone filter interposed between the sensing electrode and the inlet, characterized in that the ozone filter comprises Mn 2 O 3 wherein the Mn 2 O 3 is NO 2 treated.
An assembly comprising: - spectacles comprising an optical module and two temples each mounted in rotation on respectively an external edge of said optical module, said temples being reversibly movable between a use position, wherein they extend in a direction substantially perpendicular to a frontal plane (P) defined by said external edges, and a storage position, wherein they are folded behind said optical module, said spectacles having, when the temples are in the storage position, a stable conformation of nominal thickness; and - a case comprising an upper slot opening into a compartment arranged to contain said spectacles in stable conformation, in order to allow the storage of said spectacles; the spectacles have a resiliently constrained conformation of reduced thickness by relatively bringing together the optical module and the temples in the storage position, and in that the upper slot is dimensioned to allow the passage through same of the spectacles in constrained conformation, said compartment being arranged so that the resilient return to the storage conformation of said spectacles allows them to be held in said compartment by geometric interaction between said spectacles and said compartment, and said assembly being characterised in that the compartment comprises a central recess arranged to allow the manual holding of the spectacles in constrained conformation in the compartment , in order to allow their storage or their extraction from said compartment. - spectacles comprising an optical module and two temples each mounted in rotation on respectively an external edge of said optical module, said temples being reversibly movable between a use position, wherein they extend in a direction substantially perpendicular to a frontal plane (P) defined by said external edges, and a storage position, wherein they are folded behind said optical module, said spectacles having, when the temples are in the storage position, a stable conformation of nominal thickness; and - a case comprising an upper slot opening into a compartment arranged to contain said spectacles in stable conformation, in order to allow the storage of said spectacles;
Grid-shaped workpiece carrier comprising a plurality of strut-like first grid elements (QM, QR, QR1, QR2, QM1, QM2), which are arranged in parallel and have recesses (A1, A2), and a plurality of strut-like second grid elements (LE, LR, LE1, LE2, LR1, LR2), which are arranged transversely thereto and have recesses (A1, A2), wherein the recesses of the first and second grid elements mutually engage in such a way that the first and second grid elements crossing each other form a grid, wherein the first grid elements are mechanically rigidly fixed only to some of the second grid elements (LR, LR1, LR2) of the plurality of second grid elements, which are arranged in an edge region on opposite sides of the grid, wherein the mechanically rigid fixing is a material bond. a plurality of strut-like first grid elements (QM, QR, QR1, QR2, QM1, QM2), which are arranged in parallel and have recesses (A1, A2), and a plurality of strut-like second grid elements (LE, LR, LE1, LE2, LR1, LR2), which are arranged transversely thereto and have recesses (A1, A2), wherein the recesses of the first and second grid elements mutually engage in such a way that the first and second grid elements crossing each other form a grid, wherein the first grid elements are mechanically rigidly fixed only to some of the second grid elements (LR, LR1, LR2) of the plurality of second grid elements, which are arranged in an edge region on opposite sides of the grid, wherein the mechanically rigid fixing is a material bond.
A beverage pod for a beverage machine , the beverage pod comprising: a container having an internal space and an opening extending into the internal space; a beverage medium located within the internal space; a plug configured to seal the container at the opening; and a cap secured to the container around the opening and operable to selectively engage a portion of the plug to release the beverage medium, wherein the cap comprises: an annular bottom flange and a piercing assembly movable relative to the plug, the piercing assembly including a piercing element comprising a lumen and a cylindrical piston , the piston movable towards the plug; and a resilient annular web connecting the piston to the bottom flange of the cap, wherein movement of the piercing assembly towards and partially into the plug causes the piercing element to pierce the plug for release of the beverage medium from the internal space through the lumen. a container having an internal space and an opening extending into the internal space; a beverage medium located within the internal space; a plug configured to seal the container at the opening; and a cap secured to the container around the opening and operable to selectively engage a portion of the plug to release the beverage medium, wherein the cap comprises: an annular bottom flange and a piercing assembly movable relative to the plug, the piercing assembly including a piercing element comprising a lumen and a cylindrical piston , the piston movable towards the plug; and a resilient annular web connecting the piston to the bottom flange of the cap, an annular bottom flange and a piercing assembly movable relative to the plug, the piercing assembly including a piercing element comprising a lumen and a cylindrical piston , the piston movable towards the plug; and a resilient annular web connecting the piston to the bottom flange of the cap, wherein movement of the piercing assembly towards and partially into the plug causes the piercing element to pierce the plug for release of the beverage medium from the internal space through the lumen.
Method for determining the concentration of at least one component of the gas phase in a package , in which a packaged commodity is packaged, comprising a sensor which has a transmitter that emits electromagnetic waves into the package , said electromagnetic waves being received by a receiver at least in part and being subjected to an analysis, preferably a spectral analysis, wherein, after leaving the transmitter , the electromagnetic waves emitted by the transmitter initially pass through the atmosphere surrounding the package, then pass through the top film of the sealed package and subsequently pass through the atmosphere in the package and said electromagnetic waves are reflected in the direction of the receiver by a gaseous phase of this atmosphere and/or the packaged commodity and/or a reflector and subsequently initially pass through at least some of the atmosphere in the package again, then pass through the top film and finally pass through the atmosphere surrounding the package before said electromagnetic waves are received by the receiver , characterized in that the receiver is calibrated and in that the influence of the package and the packaged commodity is taken into account.
An optical scanning device comprising: a first waveguide that propagates light in a waveguide direction by total reflection; and a second waveguide , wherein the second waveguide includes: a first multilayer reflective film ; a second multilayer reflective film that faces the first multilayer reflective film; and a first optical waveguide layer that is connected directly or through a gap to the first waveguide and located between the first multilayer reflective film and the second multilayer reflective film , wherein the first optical waveguide layer has a variable thickness and/or a variable refractive index for the light and propagates the light transmitted through the first waveguide , wherein the first multilayer reflective film has a higher light transmittance than the second multilayer reflective film and allows part of the light propagating through the first optical waveguide layer to be emitted to the outside of the second waveguide , wherein the thickness of the first optical waveguide layer and/or the refractive index thereof for the light is changed to thereby change the direction of the part of the light emitted from the second waveguide , and wherein the optical scanning device is configured such that the propagating light in the first waveguide has a reflection angle that is greater than a critical angle of the total reflection. a first waveguide that propagates light in a waveguide direction by total reflection; and a second waveguide , wherein the second waveguide includes: a first multilayer reflective film ; a second multilayer reflective film that faces the first multilayer reflective film; and a first optical waveguide layer that is connected directly or through a gap to the first waveguide and located between the first multilayer reflective film and the second multilayer reflective film , a first multilayer reflective film ; a second multilayer reflective film that faces the first multilayer reflective film; and a first optical waveguide layer that is connected directly or through a gap to the first waveguide and located between the first multilayer reflective film and the second multilayer reflective film , wherein the first optical waveguide layer has a variable thickness and/or a variable refractive index for the light and propagates the light transmitted through the first waveguide , wherein the first multilayer reflective film has a higher light transmittance than the second multilayer reflective film and allows part of the light propagating through the first optical waveguide layer to be emitted to the outside of the second waveguide , wherein the thickness of the first optical waveguide layer and/or the refractive index thereof for the light is changed to thereby change the direction of the part of the light emitted from the second waveguide , and wherein the optical scanning device is configured such that the propagating light in the first waveguide has a reflection angle that is greater than a critical angle of the total reflection.