mhurhangee/ep-ind-claims huggingface dataset:
A method of recovering a display having a plurality of pixels, each having a light emitting device and a driving transistor for driving the light emitting device, the driving transistor and the light emitting device being coupled in series between a first power supply and a second power supply, characterized by the method comprising: applying, during a recovery time after a normal image display mode is turned off, a plurality of recovery frames (C1,..., CK) to the display to turn over the pixel's components aging, wherein the step of applying includes: during a first frame in said plurality of recovery frames (C1,..., CK) frames, programming a first pixel of the plurality of pixels with a first programming voltage different from an image programming voltage for a valid image by applying the first programming voltage to a gate terminal of the driving transistor, and charging at least one of a voltage (VDD_R) at the first power supply and a voltage (VSS_R) at the second power supply so as to reverse bias the light emitting device; and reverse biasing the drivirig transistor during at least one further frame before or after said first frame in said plurality of recovery frames (C1,..., CK) wherein during the further frame the first pixel is programmed with gray zero and wherein during the first and the further frames (C1, C2) the first and second power supply voltages (VDD, VSS) are preserved at the voltage levels applied during the first frame (VDD_R, VSS_R). applying, during a recovery time after a normal image display mode is turned off, a plurality of recovery frames (C1,..., CK) to the display to turn over the pixel's components aging, wherein the step of applying includes: during a first frame in said plurality of recovery frames (C1,..., CK) frames, programming a first pixel of the plurality of pixels with a first programming voltage different from an image programming voltage for a valid image by applying the first programming voltage to a gate terminal of the driving transistor, and charging at least one of a voltage (VDD_R) at the first power supply and a voltage (VSS_R) at the second power supply so as to reverse bias the light emitting device; and
A thermal control tape for providing thermal control of a spacecraft structure, to which the thermal control tape is applied, the thermal control tape comprising: a filled silicone resin layer having a first side and a second side, the filled silicone resin layer comprising a silicone resin material filled with a white inorganic filler material; and a silicone pressure sensitive adhesive layer having a first side and a second side, the first side of the silicone PSA layer attached to the second side of the filled silicone resin layer, wherein the filled silicone resin layer and the silicone PSA layer form the thermal control tape, with the second side of the silicone PSA layer configured for attachment to at least one surface of the spacecraft structure of a spacecraft, to provide thermal control of the spacecraft structure, by radiating heat away from the spacecraft structure; the thermal control tape further comprising a conductive film layer added between the filled silicone resin layer and the silicone PSA layer; and wherein the silicone PSA layer further comprises an electrostatic dissipative filler material comprising one of, a metallic filler material, and a carbon filler material. a filled silicone resin layer having a first side and a second side, the filled silicone resin layer comprising a silicone resin material filled with a white inorganic filler material; and a silicone pressure sensitive adhesive layer having a first side and a second side, the first side of the silicone PSA layer attached to the second side of the filled silicone resin layer, wherein the filled silicone resin layer and the silicone PSA layer form the thermal control tape, with the second side of the silicone PSA layer configured for attachment to at least one surface of the spacecraft structure of a spacecraft, to provide thermal control of the spacecraft structure, by radiating heat away from the spacecraft structure; the thermal control tape further comprising a conductive film layer added between the filled silicone resin layer and the silicone PSA layer; and wherein the silicone PSA layer further comprises an electrostatic dissipative filler material comprising one of, a metallic filler material, and a carbon filler material.
Frameless glass door or window arrangement comprising a static frame connected to a movably mounted or stationary casement through a hardware means, wherein said static frame comprises at least one draining duct, wherein said casement comprises a multiple glazing with at least an external glass plate and an internal glass plate spaced apart from each other at least by a spacer and at least a cordon of sealant fastening said glass plates (5,3) together, at least a weather sealing means being provided between the static frame and the external glass plate, and at least one drip groove (10,20) being provided on the glazing, wherein said at least one drip groove (10,20) is provided between the plan defined by the external surface of the external glass plate and the plan defined by the internal surface of the internal glass plate, and wherein said at least one drip groove (10,20) is provided between the plan defined by the external surface of the external glass plate and before the hardware means for actuating the arrangement. wherein said static frame comprises at least one draining duct, wherein said casement comprises a multiple glazing with at least an external glass plate and an internal glass plate spaced apart from each other at least by a spacer and at least a cordon of sealant fastening said glass plates (5,3) together, at least a weather sealing means being provided between the static frame and the external glass plate, and at least one drip groove (10,20) being provided on the glazing, wherein said at least one drip groove (10,20) is provided between the plan defined by the external surface of the external glass plate and the plan defined by the internal surface of the internal glass plate, and wherein said at least one drip groove (10,20) is provided between the plan defined by the external surface of the external glass plate and before the hardware means for actuating the arrangement.
A method of identifying a layer boundary (146; 708-710; 2204) of a subterranean formation by using a downhole tool, comprising: introducing the downhole tool (22; 144; 200; 700; 2000) into a borehole (12; 102; 702; 2002) that traverses the subsurface formation, wherein the downhole tool comprises a dipole or monopole transmitter to transmit an acoustic signal into the borehole of the subterranean formation, receivers spaced from the transmitter to receive at least a portion of the acoustic signal, and means for identifying the layer boundary of the subterranean formation based on the transmission of the acoustic signal between the transmitter and the receivers; transmitting an acoustic signal from the dipole or monopole transmitter (28-34; 148; 204; 714;2206) of the downhole tool into the borehole of the subterranean formation; receiving the acoustic signal at the receivers (36; 150-151;216-218; 716-722;2208-2218) coupled to the downhole tool and longitudinally spaced from the transmitter; logging energy values associated with the acoustic signal received by the receiver as the downhole tool is moved in the borehole, wherein the energy values are associated with the sum of the squared amplitudes of the acoustic signal received over a time period; the method being characterized in that it includes: identifying an angle associated with contrasting logged energy values with respect to depth and receiver to transmitter distance as being associated with receipt of transmitted acoustic signal energy subject to an impedance change in the subterranean formation to identify the layer boundary. introducing the downhole tool (22; 144; 200; 700; 2000) into a borehole (12; 102; 702; 2002) that traverses the subsurface formation, wherein the downhole tool comprises a dipole or monopole transmitter to transmit an acoustic signal into the borehole of the subterranean formation, receivers spaced from the transmitter to receive at least a portion of the acoustic signal, and means for identifying the layer boundary of the subterranean formation based on the transmission of the acoustic signal between the transmitter and the receivers; transmitting an acoustic signal from the dipole or monopole transmitter (28-34; 148; 204; 714;2206) of the downhole tool into the borehole of the subterranean formation; receiving the acoustic signal at the receivers (36; 150-151;216-218; 716-722;2208-2218) coupled to the downhole tool and longitudinally spaced from the transmitter; logging energy values associated with the acoustic signal received by the receiver as the downhole tool is moved in the borehole, wherein the energy values are associated with the sum of the squared amplitudes of the acoustic signal received over a time period; the method being characterized in that it includes: identifying an angle associated with contrasting logged energy values with respect to depth and receiver to transmitter distance as being associated with receipt of transmitted acoustic signal energy subject to an impedance change in the subterranean formation to identify the layer boundary.
A system for measuring a property at a surface or subsurface, the system comprising: • a plurality of survey probes, each having a unique identifier; and each connected at a respective position along a survey controller cable; and • a survey controller coupled to the survey probes via the survey controller cable and configured to automatically poll the survey probes to obtain each identifier and determine the relative order of the probes as connected along the survey controller cable, wherein each survey probe is configured to, as part of a startup protocol: • disconnect a downstream neighbor survey probe and enter an idle state; • report its unique identifier to the survey controller if in the idle state and in response to a polling command from the survey controller; and • change to a state other than the idle state after reporting its unique identifier and connect the next downstream survey probe, characterized in that the survey controller is configured to individually program plural of the survey probes to inject current into the surface or subsurface simultaneously or according to a programmed timing scheme, and wherein the survey controller is configured to individually program respective ones of the survey probes to acquire data according to a programmed timing scheme. • a plurality of survey probes, each having a unique identifier; and each connected at a respective position along a survey controller cable; and • a survey controller coupled to the survey probes via the survey controller cable and configured to automatically poll the survey probes to obtain each identifier and determine the relative order of the probes as connected along the survey controller cable, • disconnect a downstream neighbor survey probe and enter an idle state; • report its unique identifier to the survey controller if in the idle state and in response to a polling command from the survey controller; and • change to a state other than the idle state after reporting its unique identifier and connect the next downstream survey probe,
An electronic device, comprising: an enclosure, including a front cover, a rear cover defining an opening, and a sidewall coupled to the front cover and the rear cover; an input/output, I/O, assembly comprising a first camera module and a second camera module; a trim enclosing the first camera module and the second camera module; a brace including a first brace portion coupled to the enclosure, and a second brace portion coupled to the I/O assembly; and a turret positioned on the rear cover, the turret being separate from the brace, wherein a bottom surface of the trim is disposed on a top surface of the brace. an enclosure, including a front cover, a rear cover defining an opening, and a sidewall coupled to the front cover and the rear cover; an input/output, I/O, assembly comprising a first camera module and a second camera module; a trim enclosing the first camera module and the second camera module; a brace including a first brace portion coupled to the enclosure, and a second brace portion coupled to the I/O assembly; and a turret positioned on the rear cover, the turret being separate from the brace, wherein a bottom surface of the trim is disposed on a top surface of the brace.
A receptacle (100, 200) comprising: a first support and a second support joined by liquid-tight seal running continuously or semi-continuously along a first side edge, a bottom edge and a second side edge of the receptacle (100, 200), and a cavity for receiving an electrophoresis slab gel (102, 202), wherein the first support and the second support are formed from cyclic olefin copolymer or cyclic olefin polymer, and wherein the first support and the second support are secured together by ultrasonic welding or are fabricated as a single piece of plastic. a first support and a second support joined by liquid-tight seal running continuously or semi-continuously along a first side edge, a bottom edge and a second side edge of the receptacle (100, 200), and a cavity for receiving an electrophoresis slab gel (102, 202), wherein the first support and the second support are formed from cyclic olefin copolymer or cyclic olefin polymer, and wherein the first support and the second support are secured together by ultrasonic welding or are fabricated as a single piece of plastic.
Device for application of a sanitary item in piece form for the sanitary field, wherein the sanitary item in piece form has an underside by means of which the sanitary item can be applied to a sanitary article, and wherein the device comprises a housing part, wherein the housing part comprises an opening for receiving the sanitary item, through which the sanitary item can be discharged from or pushed out of the housing, and wherein the opening of the housing part lies in a first plane of the housing part, wherein the housing part comprises holding elements (17, 17', 18, 18') on the side walls of the housing part and a push edge or surface, characterised in that the housing part comprises the holding elements (17, 17', 18, 18') which can be overcome by the sanitary item in piece form by pressing on the push edge or surface, and a counterbearing (22, 24) for the sanitary item in piece form, wherein the push edge or surface is positioned substantially orthogonally to the side walls (26, 26'), and the housing part is configured in such a way that the sanitary item is so positioned in the device by the holding elements (17, 17', 18, 18') which are capable of being overcome that the angle α between the first plane of the housing part and the underside of the item is between 5° and 90° and the sanitary item can be discharged from or pushed out of the housing part by operation of the push edge or surface, wherein the device is deformed.
A method for selectively operating a dense phase powder pump in a powder conveying operating mode or a flushing operating mode, wherein the dense phase powder pump comprises at least one conveying chamber having a powder inlet valve and a powder outlet valve, and wherein the powder inlet valve and the powder outlet valve are each configured as a pneumatically actuable pinch valve able to be closed upon application of an actuating pressure, wherein a pressure regulator having a control valve and a pressure sensor is provided, wherein the powder inlet valve and/or the powder outlet valve is/are fluidically connectable to a compressed air source, wherein the pressure sensor detects the pressure level of the actuating air for the powder inlet valve and/or the powder outlet valve, wherein in the powder conveying operating mode of the dense phase powder pump, the pressure value of the actuating air is set to a first pressure level by the control valve which is sufficient enough to be able to close the powder inlet valve configured as a pinch valve or respectively the powder outlet valve configured as a pinch valve in gas-tight manner during the powder conveying operating mode, and wherein in the flushing operating mode of the dense phase powder pump, the pressure value of the actuating air is set to a second pressure level by the control valve which is sufficient enough to be able to close the powder inlet valve configured as a pinch valve or respectively the powder outlet valve configured as a pinch valve in gas-tight manner during the flushing operating mode, wherein the second pressure level is higher than the first pressure level, and wherein the pressure value of the actuating pressure selected to close the powder inlet valve and/or powder outlet valve is regulated, and namely: - as a function of the respective operating mode of the dense phase powder pump; - as a function of a pressure prevailing within the conveying chamber; - as a function of an amount of compressed carrier gas supplied to the conveying chamber per unit of time in the powder conveying operating mode; and/or - as a function of an amount of coating powder conveyed by the dense phase powder pump per unit of time in the powder conveying operating mode. - as a function of the respective operating mode of the dense phase powder pump; - as a function of a pressure prevailing within the conveying chamber; - as a function of an amount of compressed carrier gas supplied to the conveying chamber per unit of time in the powder conveying operating mode; and/or - as a function of an amount of coating powder conveyed by the dense phase powder pump per unit of time in the powder conveying operating mode.
A regioselectively substituted cellulose ester comprising a plurality of alkyl-acyl substituents and a plurality of aryl-acyl substituents, wherein said regioselectively substituted cellulose ester has a hydroxyl degree of substitution ("DS OH ") of at least 0.30, wherein the regioselectivity of said regioselectively substituted cellulose ester is such that the sum of the aryl-acyl degrees of substitution at C2 and C3 ("C2DS aryl " and "C3DS aryl ") minus the aryl-acyl degree of substitution at C6 ("C6DS aryl ") is greater than 0.20; wherein the degree of substitution DS aryl is determined by 1 H NMR as defined in the description; and wherein the regioselectivity is determined by 13 C NMR and 1 H NMR as defined in the description.
An imaging device comprising: an imaging unit adapted to successively capture images in an image shooting environment; the imaging device further comprising a display unit adapted to display, at a predetermined frame rate, the images captured by the imaging unit and a guide frame in each of the displayed images; a characteristic acquiring unit adapted to acquire characteristic information, wherein the characteristic information shows a characteristic of a face image which is a part of each of the displayed images and is fitted into the guide frame by the operator of the imaging device while capturing the images, and includes brightness information; a determination unit adapted to determine, based on illumination condition of the image shooting environment, whether the characteristic information has been successfully acquired by the characteristic acquiring unit; an image acquiring unit adapted to acquire the face image for storing on condition that the determination unit determines that the characteristic information has been successfully acquired; and a file generating unit adapted to generate a single registration file containing the characteristic information acquired by the characteristic acquiring unit and the face image acquired by the image acquiring unit, wherein the file generating unit is adapted to generate the single registration file on condition that the determination unit determines that the characteristic information has been acquired; and a file storage unit (11,18) for storing the single registration file generated by the file generating unit. an imaging unit adapted to successively capture images in an image shooting environment; the imaging device further comprising a display unit adapted to display, at a predetermined frame rate, the images captured by the imaging unit and a guide frame in each of the displayed images; a characteristic acquiring unit adapted to acquire characteristic information, wherein the characteristic information shows a characteristic of a face image which is a part of each of the displayed images and is fitted into the guide frame by the operator of the imaging device while capturing the images, and includes brightness information; a determination unit adapted to determine, based on illumination condition of the image shooting environment, whether the characteristic information has been successfully acquired by the characteristic acquiring unit; an image acquiring unit adapted to acquire the face image for storing on condition that the determination unit determines that the characteristic information has been successfully acquired; and a file generating unit adapted to generate a single registration file containing the characteristic information acquired by the characteristic acquiring unit and the face image acquired by the image acquiring unit, wherein the file generating unit is adapted to generate the single registration file on condition that the determination unit determines that the characteristic information has been acquired; and a file storage unit (11,18) for storing the single registration file generated by the file generating unit.