mhurhangee/ep-ind-claims huggingface dataset:
A method of analyzing a structure of a resin material using radiation, the method comprising: impregnating the resin material with a radiosensitizer, characterized in that the resin material contains thermoplastic resin selected from the group of polypropylene and polyethylene terephthalate, and the radiosensitizer contains a solvent, selected from the group consisting of toluene, THF, hexane, and ethanol, and a radiosensitizing molecule that contains, as a heavy element, an element with an atomic number equal to or greater than that of fluorine, and wherein a relative energy difference (REDi) represented by R a1 /R 01 is 1.8 or less, where R 01 is an interaction radius of the thermoplastic resin in a Hansen space and R a1 is a distance between Hansen solubility parameters of the thermoplastic resin and the solvent. impregnating the resin material with a radiosensitizer, characterized in that the resin material contains thermoplastic resin selected from the group of polypropylene and polyethylene terephthalate, and the radiosensitizer contains a solvent, selected from the group consisting of toluene, THF, hexane, and ethanol, and a radiosensitizing molecule that contains, as a heavy element, an element with an atomic number equal to or greater than that of fluorine, and wherein a relative energy difference (REDi) represented by R a1 /R 01 is 1.8 or less, where R 01 is an interaction radius of the thermoplastic resin in a Hansen space and R a1 is a distance between Hansen solubility parameters of the thermoplastic resin and the solvent.
A method performed by an electronic device (100, 2500), the method comprising: displaying a first application on a full-sized window; displaying a second application on a sub-window overlapping at least a portion of the full sized window; detecting a gesture on the sub-window for requesting the sub-window to be displayed in a hide mode; based on the gesture being detected on the sub-window for requesting the sub-window to be displayed in the hide mode, hiding the sub-window and displaying an alternative image indicating the second application on a part of the full sized window; detecting a gesture on the alternative image for releasing the hide mode; and based on the gesture being detected on the alternative image for releasing the hide mode, displaying the second application on the sub-window overlapping the at least a portion of the full sized window again; characterized in that the displaying again happens without displaying the alternative image. displaying a first application on a full-sized window; displaying a second application on a sub-window overlapping at least a portion of the full sized window; detecting a gesture on the sub-window for requesting the sub-window to be displayed in a hide mode; based on the gesture being detected on the sub-window for requesting the sub-window to be displayed in the hide mode, hiding the sub-window and displaying an alternative image indicating the second application on a part of the full sized window; detecting a gesture on the alternative image for releasing the hide mode; and based on the gesture being detected on the alternative image for releasing the hide mode, displaying the second application on the sub-window overlapping the at least a portion of the full sized window again; characterized in that the displaying again happens without displaying the alternative image.
A dampening water treatment system for an offset printing system comprising: a cartridge filter for filtering water from a water source; a buffer tank for storing the treated water; a refrigerator coupled to the buffer tank for maintaining the treated water at a temperature of 12 to 16°C; an additional cartridge filter of a micro with backwash; a return pump; a rotameter for measuring the treated liters/minute; a magnetic device for subjecting the flowing water with a magnetic field; a filter with UV lamp for treating the water; and components of the electrical part, comprising a circuit breaker, a water solenoid, a photocell, a buzzer, a timer, an hour meter, an electric float, a buttonhole and a reactor; characterised in that the system further comprises an O 2 eliminator provided downstream of the filter with the UV lamp a cartridge filter for filtering water from a water source; a buffer tank for storing the treated water; a refrigerator coupled to the buffer tank for maintaining the treated water at a temperature of 12 to 16°C; an additional cartridge filter of a micro with backwash; a return pump; a rotameter for measuring the treated liters/minute; a magnetic device for subjecting the flowing water with a magnetic field; a filter with UV lamp for treating the water; and components of the electrical part, comprising a circuit breaker, a water solenoid, a photocell, a buzzer, a timer, an hour meter, an electric float, a buttonhole and a reactor; characterised in that the system further comprises an O 2 eliminator provided downstream of the filter with the UV lamp
A welding system comprising: a welding power supply; a wire feeder coupled to the welding power supply and comprising control circuitry and a torque motor configured to be responsive to the wire feeder control circuitry and to apply a drive force to welding wire during a welding operation; and a welding torch coupled to the wire feeder and arranged to receive the welding wire, the welding torch comprising a pull motor configured to draw the welding wire through the torch; characterised in that the wire feeder control circuitry is configured to reference calibration data for the pull motor and to command operation of the pull motor without speed feedback from the welding torch based upon the calibration data and upon a commanded wire feed speed; the calibration data is determined based upon a design response of the pull motor and an actual response detected during operation, the actual response being determined in dependence on a detected wire feed speed in the wire feeder in response to a voltage applied to the pull motor; and the wire feeder control circuitry is further configured to interpolate between stored calibration points when the commanded wire feed speed does not correspond to a value stored in the welding system. a welding power supply; a wire feeder coupled to the welding power supply and comprising control circuitry and a torque motor configured to be responsive to the wire feeder control circuitry and to apply a drive force to welding wire during a welding operation; and a welding torch coupled to the wire feeder and arranged to receive the welding wire, the welding torch comprising a pull motor configured to draw the welding wire through the torch; characterised in that the wire feeder control circuitry is configured to reference calibration data for the pull motor and to command operation of the pull motor without speed feedback from the welding torch based upon the calibration data and upon a commanded wire feed speed; the calibration data is determined based upon a design response of the pull motor and an actual response detected during operation, the actual response being determined in dependence on a detected wire feed speed in the wire feeder in response to a voltage applied to the pull motor; and the wire feeder control circuitry is further configured to interpolate between stored calibration points when the commanded wire feed speed does not correspond to a value stored in the welding system.
An aerosol generating article for use with an aerosol generating device, comprising: an aerosol forming substrate; and an aerosol cooling element downstream of the aerosol forming substrate, wherein the aerosol cooling element comprises a body defining a plurality of longitudinally extending channels and an acid in or on the body, wherein the cooling element has a porosity of between 50% and 90% in the longitudinal direction. an aerosol forming substrate; and an aerosol cooling element downstream of the aerosol forming substrate, wherein the aerosol cooling element comprises a body defining a plurality of longitudinally extending channels and an acid in or on the body, wherein the cooling element has a porosity of between 50% and 90% in the longitudinal direction.
A substrate processing method for forming a space extending along a predetermined line in a silicon substrate, the method comprising: a first step of converging a laser light which is an elliptically-polarized light having an ellipticity other than 1 at the silicon substrate so as to form a plurality of modified spots within the silicon substrate along the line and produce a modified region including the plurality of modified spots, the line (12, 12a, 12c, 12e) lying in a direction that is tilted with respect to a thickness direction of the silicon substrate; and a second step of anisotropically etching the silicon substrate after the first step so as to advance an etching selectively along the modified region and form the space in the silicon substrate; wherein, in the first step, the laser light is converged at the silicon substrate such that a moving direction of the laser light with respect to the silicon substrate and a direction of polarization of the laser light form an angle of 45° or greater therebetween, and the plurality of modified spots are made align in one row along the line, and the space is a through hole opening to front and rear faces (11a, 11b) of the silicon substrate. a first step of converging a laser light which is an elliptically-polarized light having an ellipticity other than 1 at the silicon substrate so as to form a plurality of modified spots within the silicon substrate along the line and produce a modified region including the plurality of modified spots, the line (12, 12a, 12c, 12e) lying in a direction that is tilted with respect to a thickness direction of the silicon substrate; and a second step of anisotropically etching the silicon substrate after the first step so as to advance an etching selectively along the modified region and form the space in the silicon substrate; wherein, in the first step, the laser light is converged at the silicon substrate such that a moving direction of the laser light with respect to the silicon substrate and a direction of polarization of the laser light form an angle of 45° or greater therebetween, and the plurality of modified spots are made align in one row along the line, and the space is a through hole opening to front and rear faces (11a, 11b) of the silicon substrate.
A false mounting prevention device for correct mounting of a non-symmetrical anti-torque rod in the auxiliary frame of a vehicle, the anti-torque rod including an insert, which is intended to be inserted between two plates (21, 22) forming a yoke of the auxiliary frame and which comprises a bore for the passage of a fixing screw of the anti-torque rod in the auxiliary frame, one of the two plates having an approach edge further forward than the approach edge of the other plate along the direction of insertion ("M") of the anti-torque rod in the auxiliary frame, said false mounting prevention device being constituted by a counter form which projects from the external surface of the insert, such that said counter form comes to hit the plate having a further forward approach edge when the anti-torque rod is in the wrong direction, which makes the incorrect mounting of the anti-torque rod in the auxiliary frame impossible.
A workstation comprising: an interface configured to receive information about a first contour defining a first tissue of an organ in an image and a second contour defining a second tissue of the organ in the image; a database configured to store anatomical characteristic data for the organ; and a controller configured to determine the organ included in the image and to perform a correction on at least one of the first contour and the second contour such that the first contour and the second contour do not cross each other, based on the received information, characterized in that the controller performs the correction such that the first contour and the second contour are in contact with one another based on the stored anatomical characteristic data of the determined organ. an interface configured to receive information about a first contour defining a first tissue of an organ in an image and a second contour defining a second tissue of the organ in the image; a database configured to store anatomical characteristic data for the organ; and a controller configured to determine the organ included in the image and to perform a correction on at least one of the first contour and the second contour such that the first contour and the second contour do not cross each other, based on the received information, characterized in that the controller performs the correction such that the first contour and the second contour are in contact with one another based on the stored anatomical characteristic data of the determined organ.
Method for producing a detachment region in a solid, wherein the solid has a crystal lattice and is at least partially transparent to laser beams emitted by a laser, comprising: modifying the crystal lattice of the solid by means of the laser beams, wherein the laser beams penetrate into the solid through a main surface (5, 18) of a portion of the solid to be detached, wherein a plurality of modifications are produced in the crystal lattice, wherein the modifications are formed in a plane parallel to the main surface and at a distance from one another, wherein, as a result of the modifications, the crystal lattice cracks subcritically in regions surrounding the modifications, at least in one portion in each case, wherein subcritical cracks propagate parallel to the main surface. modifying the crystal lattice of the solid by means of the laser beams, wherein the laser beams penetrate into the solid through a main surface (5, 18) of a portion of the solid to be detached, wherein a plurality of modifications are produced in the crystal lattice, wherein the modifications are formed in a plane parallel to the main surface and at a distance from one another, wherein, as a result of the modifications, the crystal lattice cracks subcritically in regions surrounding the modifications, at least in one portion in each case, wherein subcritical cracks propagate parallel to the main surface.
A transceiver arrangement (300, 400, 902) comprising a receiver (302, 402) arranged for frequency-division duplex communication with a communication network; a transmitter (304, 404) arranged for frequency-division duplex communication with the communication network; a transmission port (306, 406) for connecting to an antenna; a balancing impedance circuit (308, 408) arranged to provide an adaptive impedance arranged to mimic the impedance at the transmission port; a filtering arrangement, which comprises filters of a first type (310, 311; 410, 411) and filters of a second type (312, 313; 412, 413), connecting the receiver (302, 402), transmitter (304, 404), transmission port (306, 406) and balancing impedance circuit (308, 408); and a common-mode signal reduction circuit, wherein the filters of the first type (310, 311; 410, 411) are arranged to pass signals at transmitter frequency and attenuate signals at receiver frequency and are connected between the transmitter (304, 404) and the transmission port (306, 406) and between the receiver (302, 402) and the balancing impedance circuit (308, 408); and the filters of the second type (312, 313; 412, 413) are arranged to attenuate signals at transmitter frequency and pass signals at receiver frequency and are connected between the transmitter (304, 404) and the balancing impedance circuit (308, 408) and between the receiver (302, 402) and the transmission port (306, 406); characterized in that the common-mode signal reduction circuit comprises an inverting amplifier, the input of the inverting amplifier is provided by a voltage division between a first and a second impedance where the first and second impedance have equal impedances, and the output of the amplifier is provided to junction of a third and a fourth impedance where the third and fourth impedances have equal impedances and the first and second impedances, and the third and fourth impedances, respectively, are connected in series between a filter of the first type and a filter of the second type.
A method for fabricating an integrated structure, the method comprising: fabricating a CMOS structure containing an electronic device over a substrate, wherein the electronic device is formed using a first semiconductor material; forming a second semiconductor material (251, 252, 253) over the fabricated CMOS structure containing the electronic device; fabricating a photonic device (250A; 250B) using the second semiconductor material formed over the fabricated CMOS structure, the photonic device having associated doped regions (261A; 261B); and activating the doped regions with microwave energy such that the doped regions are heated to a temperature in the range of about 200 to about 500 degrees Celsius. fabricating a CMOS structure containing an electronic device over a substrate, wherein the electronic device is formed using a first semiconductor material; forming a second semiconductor material (251, 252, 253) over the fabricated CMOS structure containing the electronic device; fabricating a photonic device (250A; 250B) using the second semiconductor material formed over the fabricated CMOS structure, the photonic device having associated doped regions (261A; 261B); and activating the doped regions with microwave energy such that the doped regions are heated to a temperature in the range of about 200 to about 500 degrees Celsius.
A synthetic living tissue structure comprising an overlapping fiber of mammalian cells dispensed from a bioprinter within a solidified physiologically compatible biocompatible matrix capable of maintaining the structural integrity and shape fidelity of said fiber upon deposition, wherein said solidified biocompatible matrix is homogeneous throughout a radial cross-section of the fiber; and wherein said fiber is continuously bioprinted through at least two, three, four, five, six, seven, eight, nine, ten or more layers of said structure, and further wherein the overlapping layers of said fiber remain structurally discrete after bioprinting, and wherein said structure comprises a planar sheet, and wherein said fiber is substantially continuous through each layer of said planar sheet, and wherein said mammalian cells are muscle cells and said structure comprises contractile function, and wherein said contractile functionality is determinable by a dimensional change of said planar sheet.
Cabinet, which includes two vertical frames which are essentially rectangular pieces open in the middle and which have fastening holes (17, 18, 19, 20) for the fastening of possible additional cabinet parts, and horizontal intermediate parts connecting the vertical frames, which are beams or profile beams, characterized in - that the vertical frames of the cabinet are vertical side frames on both sides of the cabinet, - that the side frames are manufactured by injection moulding from composite material and formed by four straight beams with a cross-section resembling an I-beam placed in the shape of a frame so that they form the edge portions i.e. the edge beams of the side frame, such that the side frame is a frame-like continuous piece, - that one of the I-beam flanges of the edge beam is located on the outer edge of the side frame and the other on the inside of the side frame and that the width of the web then essentially equals the thickness of the side frame, - that both of the vertical edge beams having a cross-section in the shape of an I-beam are provided with fastening holes (17, 18, 19, 20) needed for horizontal shelves or drawers, and the location of the fastening holes is reinforced so that the side frame is thicker at the location of the holes, and characterized in - that in the front side of the cabinet there are two horizontal intermediate parts and in the back side of the cabinet there are two horizontal intermediate parts, so that the width of the cabinet assembled using the side frames and intermediate parts varies depending of the length of the intermediate parts. - that the horizontal intermediate parts connecting the vertical side frames are also beams or profile beams manufactured from composite material. - that the vertical frames of the cabinet are vertical side frames on both sides of the cabinet, - that the side frames are manufactured by injection moulding from composite material and formed by four straight beams with a cross-section resembling an I-beam placed in the shape of a frame so that they form the edge portions i.e. the edge beams of the side frame, such that the side frame is a frame-like continuous piece, - that one of the I-beam flanges of the edge beam is located on the outer edge of the side frame and the other on the inside of the side frame and that the width of the web then essentially equals the thickness of the side frame, - that both of the vertical edge beams having a cross-section in the shape of an I-beam are provided with fastening holes (17, 18, 19, 20) needed for horizontal shelves or drawers, and the location of the fastening holes is reinforced so that the side frame is thicker at the location of the holes, and characterized in - that in the front side of the cabinet there are two horizontal intermediate parts and in the back side of the cabinet there are two horizontal intermediate parts, so that the width of the cabinet assembled using the side frames and intermediate parts varies depending of the length of the intermediate parts. - that the horizontal intermediate parts connecting the vertical side frames are also beams or profile beams manufactured from composite material.
A polyalkylene glycol producing catalyst which is composed of a salt of a phosphazenium cation and an active hydrogen compound anion, represented by the following formula: wherein in the above formula, each of R 1 and R 2 which are independent of each other, is a C 1-10 alkyl group, an unsubstituted or substituted C 6-10 phenyl group, or an unsubstituted or substituted C 6-10 phenylalkyl group, provided that R 1 and R 2, or R 2 's, may be bonded to each other to form a ring structure, n is a real number of larger than 1 and at most 6, and Y n- is an anion of an active hydrogen compound which is obtained by removing n protons from an active hydrogen compound Y, and the active hydrogen compound Y is one or more members selected from the group consisting of a C 2-20 polyhydric alcohol having from 2 to 8 hydroxy groups, and a polyalkylene oxide having from 2 to 8 terminals, having from 1 to 8 hydroxy groups at the terminals and having a number average molecular weight of from 200 to 20,000.
A method for reading a document, the document corresponding to a document template and comprising printed boxes (8, 14) to be filled out by a user, the method comprising acquiring a digital image of the document and digitally processing the acquired image, the digital processing comprising the detection of the boxes (8, 14) on the acquired image by mask matching, each box being detected individually by matching with at least one box mask, the or each box mask representing at least one box fraction, characterized in that the reading method comprises box reconstruction, at least one box missing at the end of the box detection being extrapolated from the detected boxes and the template of the document.