mhurhangee/patent-ind-claim-en huggingface dataset:
An organic light-emitting device , comprising, in sequence: an anode ; a first light-emitting layer ; a second light-emitting layer ; and a cathode , wherein the first light-emitting layer contains a first host and a first guest that fluoresces, the second light-emitting layer contains a second host and a second guest that fluoresces, the first light-emitting layer and the second light-emitting layer contain no amine compound, and each of the first host and the second host is a hydrocarbon compound whose carbon atoms are SP 2 carbon atoms only and characterized in that each of the first host and the second host has any of structures represented by the following formulae to : where in formula to , A to C are each an anthracene residue, a pyrene residue, a benzanthracene residue, a benzpyrene residue, a phenanthrene residue, or a fluoranthene residue, and each of A to C optionally further contain a phenyl group, a biphenyl group, a terphenyl group, or a naphthyl group. an anode ; a first light-emitting layer ; a second light-emitting layer ; and a cathode , wherein the first light-emitting layer contains a first host and a first guest that fluoresces, the second light-emitting layer contains a second host and a second guest that fluoresces, the first light-emitting layer and the second light-emitting layer contain no amine compound, and each of the first host and the second host is a hydrocarbon compound whose carbon atoms are SP 2 carbon atoms only and characterized in that each of the first host and the second host has any of structures represented by the following formulae to : where in formula to , A to C are each an anthracene residue, a pyrene residue, a benzanthracene residue, a benzpyrene residue, a phenanthrene residue, or a fluoranthene residue, and each of A to C optionally further contain a phenyl group, a biphenyl group, a terphenyl group, or a naphthyl group.
A device management system for performing validation prior to commissioning at least one field device comprising: a commissioning tool operable to receive at least one source file relating to the at least one field device for import operation; a processor operable to check the source file for any error; wherein if at least one error is found in the source file, the processor is operable to refer to an error resolution database for providing guidance on resolution of error associated with the source file without terminating the import operation, wherein the error resolution database comprises a device error resolution database and a mapping error resolution database, wherein the commissioning tool is operable to provide an error handling interface for displaying the at least one error and the guidance is a suggested correction for the at least one error, and wherein if the at least one error is associated with a parameter which is mandatory, the suggested correction is based on a modification of the parameter which is mandatory to comply with a validation rule. a commissioning tool operable to receive at least one source file relating to the at least one field device for import operation; a processor operable to check the source file for any error; wherein if at least one error is found in the source file, the processor is operable to refer to an error resolution database for providing guidance on resolution of error associated with the source file without terminating the import operation, wherein the error resolution database comprises a device error resolution database and a mapping error resolution database, wherein the commissioning tool is operable to provide an error handling interface for displaying the at least one error and the guidance is a suggested correction for the at least one error, and wherein if the at least one error is associated with a parameter which is mandatory, the suggested correction is based on a modification of the parameter which is mandatory to comply with a validation rule.
A chimeric vesicular stomatitis virus (VSV) for use in reducing one or more symptoms of cancer, wherein the chimeric VSV comprises a VSV background with Chikungunya virus glycoproteins, in place of the VSV glycoprotein (G), wherein the chimeric VSV genome comprises nucleic acid sequences encoding a VSV nucleocapsid protein (N), a VSV phosphoprotein (P), a VSV matrix (M) protein, a VSV large (L) viral polymerase, and Chikungunya virus E3, E2, 6K, and E1 proteins.
Pneumatic tube or hose having a longitudinal axis along a longitudinal extension of the pneumatic tube or hose and having two ends each provided with a socket (30; 66) adapted for releasable airtight connection to a pneumatic port (26; 64) of a vacuum generation unit (2; 48) and/or to a pneumatic port (42; 64) of a vacuum utilization device (32; 44), respectively, wherein at least one of the sockets (30; 66) of the pneumatic tube or hose comprises at least one magnetic element adapted for interaction with at least one respective magnetic element provided in a vacuum generation unit (2; 48) and/or in a vacuum utilization device (32; 44) in order to secure the socket (30; 66) of the pneumatic tube or hose to the pneumatic port (26; 42; 64) of the vacuum generation unit (2; 48) or of the vacuum utilization device (32; 44) by means of magnetic force (82; 94; 100), characterized in that the magnetic force acts either in a circumferential direction extending in a plane running essentially obliquely, preferably perpendicular, to the longitudinal axis of the pneumatic tube or hose , and around the longitudinal axis or in a radial direction extending essentially obliquely, preferably perpendicular to the longitudinal axis of the pneumatic tube or hose . wherein at least one of the sockets (30; 66) of the pneumatic tube or hose comprises at least one magnetic element adapted for interaction with at least one respective magnetic element provided in a vacuum generation unit (2; 48) and/or in a vacuum utilization device (32; 44) in order to secure the socket (30; 66) of the pneumatic tube or hose to the pneumatic port (26; 42; 64) of the vacuum generation unit (2; 48) or of the vacuum utilization device (32; 44) by means of magnetic force (82; 94; 100), characterized in that the magnetic force acts either in a circumferential direction extending in a plane running essentially obliquely, preferably perpendicular, to the longitudinal axis of the pneumatic tube or hose , and around the longitudinal axis or in a radial direction extending essentially obliquely, preferably perpendicular to the longitudinal axis of the pneumatic tube or hose .
An apparatus for controlling an ink flow to a print head, comprising: a pathway between an ink reservoir and a print head and partially formed in a cover of said ink reservoir ; a flexible diaphragm positioned to selectively move into and out of a portion of the pathway, wherein in a closed position a front side of the diaphragm forms a seal between an outlet from the ink reservoir and a separate inlet of the pathway to the print head ; and a diaphragm control unit comprising a diaphragm actuator positioned on a back side of the diaphragm , characterized in that the diaphragm actuator comprises: a piston having a rounded surface in contact with the diaphragm; and a cam member coupled to a cam end of the piston , the cam member operable to rotate to move the diaphragm between the closed position and an open position. a pathway between an ink reservoir and a print head and partially formed in a cover of said ink reservoir ; a flexible diaphragm positioned to selectively move into and out of a portion of the pathway, wherein in a closed position a front side of the diaphragm forms a seal between an outlet from the ink reservoir and a separate inlet of the pathway to the print head ; and a diaphragm control unit comprising a diaphragm actuator positioned on a back side of the diaphragm , characterized in that the diaphragm actuator comprises: a piston having a rounded surface in contact with the diaphragm; and a cam member coupled to a cam end of the piston , the cam member operable to rotate to move the diaphragm between the closed position and an open position. a piston having a rounded surface in contact with the diaphragm; and a cam member coupled to a cam end of the piston , the cam member operable to rotate to move the diaphragm between the closed position and an open position.
A metal sheet for separators of polymer electrolyte fuel cells, comprising: a substrate made of a stainless steel sheet or a titanium sheet; and a surface-coating layer with which a surface of the substrate is coated, with a strike layer in between, wherein a coating weight of the strike layer is 0.001 g/m 2 to 1.0 g/m 2 and the surface-coating layer is made of a metal oxide layer, a metal carbide layer, a conductive polymer layer, or a mixed layer thereof. a substrate made of a stainless steel sheet or a titanium sheet; and a surface-coating layer with which a surface of the substrate is coated, with a strike layer in between, wherein a coating weight of the strike layer is 0.001 g/m 2 to 1.0 g/m 2 and the surface-coating layer is made of a metal oxide layer, a metal carbide layer, a conductive polymer layer, or a mixed layer thereof.
Method for measuring the flatness of a metal product in the form of either a strip or a plate from a metallurgical processing line, said product to be measured being, by default, free of external traction, said method comprising the following steps: a) illuminating a portion of at least one face of said product under uniform intensity b) capturing an image of a light line of the illuminated portion c) relatively moving the illuminated portion and the light line in a defined direction in relation to the product d) repeating steps a), b), c) e) collecting the images of lines in a two-dimensional distribution of intensities and selecting a strand direction of the product in which, if at least one wave of intensities is detected, a local amplitude variation of said wave delivers a local strand flatness defect value. a) illuminating a portion of at least one face of said product under uniform intensity b) capturing an image of a light line of the illuminated portion c) relatively moving the illuminated portion and the light line in a defined direction in relation to the product d) repeating steps a), b), c) e) collecting the images of lines in a two-dimensional distribution of intensities and selecting a strand direction of the product in which, if at least one wave of intensities is detected, a local amplitude variation of said wave delivers a local strand flatness defect value.
A circuit breaker comprising: a housing ; characterised by a first baffle (111; 301; 401; 501) and a second baffle (112; 302; 402; 502) provided on both sides of the housing , wherein the first baffle (111; 301; 401; 501) on one side of the housing is located inside an arc angle of a static contact, and the first baffle (111; 301; 401; 501) cuts off a space inside the arc angle of the static contact, the first and second baffles (111, 112; 301, 302; 401, 402; 501, 502) being symmetrically arranged to each other. a housing ; characterised by a first baffle (111; 301; 401; 501) and a second baffle (112; 302; 402; 502) provided on both sides of the housing , wherein the first baffle (111; 301; 401; 501) on one side of the housing is located inside an arc angle of a static contact, and the first baffle (111; 301; 401; 501) cuts off a space inside the arc angle of the static contact, the first and second baffles (111, 112; 301, 302; 401, 402; 501, 502) being symmetrically arranged to each other.
Copper ceramic substrate comprising - a ceramic carrier , and - a copper layer joined to a surface of the ceramic carrier , characterised in that - the copper layer comprises at least one first layer , which faces the ceramic carrier and has an average first grain size, and a second layer , which is arranged on the face of the copper layer facing away from the ceramic carrier and has an average second grain size, - the second grain size being smaller than the first grain size, and - the first layer having an average grain size of greater than 100 μm, preferably approximately 250 to 1000 μm, and - the second layer having an average grain size of less than 100 μm, preferably approximately 50 μm, or - the first layer having an average grain size of greater than 150 μm, preferably approximately 250 to 2000 μm, and - the second layer having an average grain size of less than 150 μm, preferably approximately 50 μm. - a ceramic carrier , and - a copper layer joined to a surface of the ceramic carrier , - the copper layer comprises at least one first layer , which faces the ceramic carrier and has an average first grain size, and a second layer , which is arranged on the face of the copper layer facing away from the ceramic carrier and has an average second grain size, - the second grain size being smaller than the first grain size, and - the first layer having an average grain size of greater than 100 μm, preferably approximately 250 to 1000 μm, and - the second layer having an average grain size of less than 100 μm, preferably approximately 50 μm, or - the first layer having an average grain size of greater than 150 μm, preferably approximately 250 to 2000 μm, and - the second layer having an average grain size of less than 150 μm, preferably approximately 50 μm.
A method, comprising: providing a structure having: (A) a silicon carbide layer and a first silicon dioxide layer over the silicon carbide layer; and (B) a silicon layer and a second silicon dioxide layer over the silicon layer; bonding the first silicon dioxide layer to the second silicon dioxide layer; wherein the first silicon dioxide layer and the second silicon dioxide layer provide a bonding structure; growing a Group III-V layer on an upper surface of the silicon carbide layer; forming an active device in the Group III-V layer together with a strip conductor connected to the formed device; successively removing the silicon layer and the first and second silicon dioxide layers to expose a bottom surface of the silicon carbide layer; and forming a ground plane conductor on the exposed bottom surface of the silicon carbide layer, the strip conductor, the ground plane conductor and a portion of the silicon carbide layer providing a portion of a microstrip transmission line; and wherein the method further comprises formation of Ohmic contacts in a rapid thermal anneal (RTA) process. providing a structure having: (A) a silicon carbide layer and a first silicon dioxide layer over the silicon carbide layer; and (B) a silicon layer and a second silicon dioxide layer over the silicon layer; bonding the first silicon dioxide layer to the second silicon dioxide layer; wherein the first silicon dioxide layer and the second silicon dioxide layer provide a bonding structure; growing a Group III-V layer on an upper surface of the silicon carbide layer; forming an active device in the Group III-V layer together with a strip conductor connected to the formed device; successively removing the silicon layer and the first and second silicon dioxide layers to expose a bottom surface of the silicon carbide layer; and forming a ground plane conductor on the exposed bottom surface of the silicon carbide layer, the strip conductor, the ground plane conductor and a portion of the silicon carbide layer providing a portion of a microstrip transmission line; and wherein the method further comprises formation of Ohmic contacts in a rapid thermal anneal (RTA) process.
A press machine (1; 2) comprising: a plurality of sensors (20-27, 34-37) collecting n pieces of correlated data; a learning-model generating unit configured to, for each of the n pieces of data, use one piece of data as an objective variable, and use all other n-1 pieces of data as an explanatory variable to perform machine learning to generate a learning model for the one piece of data; a predicted-value calculating unit configured to, for each of the n pieces of data, calculate a predicted value of the one piece of data by inputting actually measured values of all other n-1 pieces of data into the learning model for the one piece of data; a degree-of-abnormality calculating unit configured to calculate a degree of abnormality as a weighted sum of the differences between the actually measured values and the predicted values of each of the n pieces of data; and a degree-of-abnormality outputting unit configured to output the calculated degree of abnormality. a plurality of sensors (20-27, 34-37) collecting n pieces of correlated data; a learning-model generating unit configured to, for each of the n pieces of data, use one piece of data as an objective variable, and use all other n-1 pieces of data as an explanatory variable to perform machine learning to generate a learning model for the one piece of data; a predicted-value calculating unit configured to, for each of the n pieces of data, calculate a predicted value of the one piece of data by inputting actually measured values of all other n-1 pieces of data into the learning model for the one piece of data; a degree-of-abnormality calculating unit configured to calculate a degree of abnormality as a weighted sum of the differences between the actually measured values and the predicted values of each of the n pieces of data; and a degree-of-abnormality outputting unit configured to output the calculated degree of abnormality.
An optical amplification system, comprising: a first amplification module , wherein the first amplification module is configured to amplify at least a conventional band C band optical signal; a second amplification module , wherein the second amplification module is configured to amplify a longer wavelength band L band optical signal; an attenuator , wherein the attenuator is configured to attenuate at least a part of the C band optical signal amplified by the first amplification module , and transparently transmit the other part of the C band optical signal amplified by the first amplification module , to obtain a first optical signal and a second optical signal, the first optical signal is attenuated light of the C band optical signal amplified by the first amplification module , and the second optical signal is the C band optical signal transparently transmitted by the attenuator , and the attenuator is further configured to output the first optical signal to the second amplification module , and output the second optical signal to a wavelength division multiplexing module, wherein the first optical signal is used to perform auxiliary pumping for the second amplification module ; and the wavelength division multiplexing module is configured to combine the optical signal amplified and output by the first amplification module and the L band optical signal amplified and output by the second amplification module , and output a combined signal; wherein the attenuator is an adjustable attenuator. a second amplification module , wherein the second amplification module is configured to amplify a longer wavelength band L band optical signal; an attenuator , wherein the attenuator is configured to attenuate at least a part of the C band optical signal amplified by the first amplification module , and transparently transmit the other part of the C band optical signal amplified by the first amplification module , to obtain a first optical signal and a second optical signal, the first optical signal is attenuated light of the C band optical signal amplified by the first amplification module , and the second optical signal is the C band optical signal transparently transmitted by the attenuator , and the attenuator is further configured to output the first optical signal to the second amplification module , and output the second optical signal to a wavelength division multiplexing module, wherein the first optical signal is used to perform auxiliary pumping for the second amplification module ; and the wavelength division multiplexing module is configured to combine the optical signal amplified and output by the first amplification module and the L band optical signal amplified and output by the second amplification module , and output a combined signal; wherein the attenuator is an adjustable attenuator.
A piezoelectric energy harvesting device, comprising: - an anchored part ; - an inertial mass ; and - a movable flexible structure comprising a silicon substrate and a piezoelectric layer with a plurality of nanostructures; characterised in that the movable flexible structure further comprises: - a capacitor formed between a bottom electrode of a heavily doped region of the silicon substrate and a top electrode of a metal layer; and - a Schottky diode formed between said metal layer and a lightly doped region in the anchored part of the silicon substrate, the diode being in-series with the capacitor , wherein the movable flexible structure is configured to bend, thereby causing the piezoelectric nanostructures to generate a piezopotential-driven current rectified by the diode and stored by the capacitor . - an anchored part ; - an inertial mass ; and - a movable flexible structure comprising a silicon substrate and a piezoelectric layer with a plurality of nanostructures; - a capacitor formed between a bottom electrode of a heavily doped region of the silicon substrate and a top electrode of a metal layer; and - a Schottky diode formed between said metal layer and a lightly doped region in the anchored part of the silicon substrate, the diode being in-series with the capacitor , wherein the movable flexible structure is configured to bend, thereby causing the piezoelectric nanostructures to generate a piezopotential-driven current rectified by the diode and stored by the capacitor .
A header for an agricultural harvester, the header comprising: a frame ; a support bar connected to the frame ; a conveyor assembly including a cam track , an endless web extending across the cam track , and a plurality of tines connected to the endless web ; and, the header being characterized in that it further comprises a crank arm pivotably connected to the support bar and pivotably connected to the conveyor assembly , wherein the conveyor assembly is adjustable in position relative to the frame about at least two degrees of freedom including fore and aft motion and angular motion. a frame ; a support bar connected to the frame ; a conveyor assembly including a cam track , an endless web extending across the cam track , and a plurality of tines connected to the endless web ; and, the header being characterized in that it further comprises a crank arm pivotably connected to the support bar and pivotably connected to the conveyor assembly , wherein the conveyor assembly is adjustable in position relative to the frame about at least two degrees of freedom including fore and aft motion and angular motion.