mhurhangee/patent-ind-claim-en huggingface dataset:
A flexible display device comprising: a flexible substrate comprising a flat display portion , a circuit connection portion and a bending portion between the flat display portion and the circuit connection portion; a pixel array portion on a first side of the flat display portion of the flexible substrate; a first back plate attached to a first portion of a second side of the flexible substrate in the flat display portion; a second back plate attached to a second portion of the second side of the flexible substrate in the circuit connection portion, wherein an opening is provided between the first back plate and the second back plate in the bending portion; a first buffer member extending into the bending portion from a side of the first back plate adjacent the opening, wherein the first buffer member covers the side of the first back plate adjacent the opening, and wherein a space ('GS') is provided between the first buffer member and the bending portion at a curved portion of the bend formed when the bending portion is bent. a flexible substrate comprising a flat display portion , a circuit connection portion and a bending portion between the flat display portion and the circuit connection portion; a pixel array portion on a first side of the flat display portion of the flexible substrate; a first back plate attached to a first portion of a second side of the flexible substrate in the flat display portion; a second back plate attached to a second portion of the second side of the flexible substrate in the circuit connection portion, wherein an opening is provided between the first back plate and the second back plate in the bending portion; a first buffer member extending into the bending portion from a side of the first back plate adjacent the opening, wherein the first buffer member covers the side of the first back plate adjacent the opening, and wherein a space ('GS') is provided between the first buffer member and the bending portion at a curved portion of the bend formed when the bending portion is bent.
Endoscope device for automated inspection of an interior of a transmission, the endoscope device comprising a control unit and an evaluation unit , a feed unit with a swivel element , a changer magazine with a plurality of guide channels , and an endoscope , wherein the control unit is connected to the endoscope and is provided mainly for controlling the endoscope and transmitting images to the evaluation unit , wherein the swivel element is provided for aligning a distal end of the endoscope in relation to a respective guide channel , and wherein the feed unit is provided for passing the endoscope axially through the respective guide channel .
An acidic zinc or zinc-nickel alloy electroplating bath for depositing a zinc or zinc-nickel alloy layer characterized in that the electroplating bath comprises (i) at least a zinc ion source (ii) at least one triazole derivative having the general formula (I) wherein R 1 is selected from the group consisting of hydrogen, thiol, carboxylic acid, amino, methyl, methylsulfonyl, and methyl carboxylate; R 2 is hydrogen or phenyl; and R 3 is selected from the group consisting of hydrogen, amino, thiol, and phenyl; (iii) at least one first poly(ethylene glycol) derivative having the general formula (II) R 4 -[O-CH 2 -CH 2 ] n -O-R 5 (II) wherein n is ranging from 2 to 200; R 4 is selected from the group consisting of a linear or branched C 1 - C 18 alkyl, 4-nonylphenyl, and a linear or branched C 1 - C 18 alkyl having a carboxylic group; R 5 is selected from the group consisting of -CH 2 -CH 2 -CH 2 -SO 3 Z, -CH 2 -CH 2 -SH, and tosyl; wherein Z is a monovalent cation such as a potassium, sodium or ammonium ion; and (iv) in case of a zinc-nickel alloy electroplating bath at least a nickel ion source. (i) at least a zinc ion source (ii) at least one triazole derivative having the general formula (I) wherein R 1 is selected from the group consisting of hydrogen, thiol, carboxylic acid, amino, methyl, methylsulfonyl, and methyl carboxylate; R 2 is hydrogen or phenyl; and R 3 is selected from the group consisting of hydrogen, amino, thiol, and phenyl; R 1 is selected from the group consisting of hydrogen, thiol, carboxylic acid, amino, methyl, methylsulfonyl, and methyl carboxylate; R 2 is hydrogen or phenyl; and R 3 is selected from the group consisting of hydrogen, amino, thiol, and phenyl; (iii) at least one first poly(ethylene glycol) derivative having the general formula (II) R 4 -[O-CH 2 -CH 2 ] n -O-R 5 (II) wherein n is ranging from 2 to 200; R 4 is selected from the group consisting of a linear or branched C 1 - C 18 alkyl, 4-nonylphenyl, and a linear or branched C 1 - C 18 alkyl having a carboxylic group; R 5 is selected from the group consisting of -CH 2 -CH 2 -CH 2 -SO 3 Z, -CH 2 -CH 2 -SH, and tosyl; wherein Z is a monovalent cation such as a potassium, sodium or ammonium ion; and n is ranging from 2 to 200; R 4 is selected from the group consisting of a linear or branched C 1 - C 18 alkyl, 4-nonylphenyl, and a linear or branched C 1 - C 18 alkyl having a carboxylic group; R 5 is selected from the group consisting of -CH 2 -CH 2 -CH 2 -SO 3 Z, -CH 2 -CH 2 -SH, and tosyl; wherein Z is a monovalent cation such as a potassium, sodium or ammonium ion; and (iv) in case of a zinc-nickel alloy electroplating bath at least a nickel ion source.
A gas tank arrangement connectable to an internal combustion engine , said gas tank arrangement comprising a gas tank configured to contain a combustible gas, and a first additional gas tank positioned in downstream fluid communication with said gas tank , wherein the gas tank arrangement further comprises a second additional gas tank positioned in downstream fluid communication with the gas tank and in upstream fluid communication with said first additional gas tank , characterized in that the first additional gas tank is a high pressure gas vessel configured to contain compressed combustible gas adapted to, when the gas tank arrangement is connected to the internal combustion engine, be delivered to a fuel injection system of the internal combustion engine .
A lead-free solder alloy comprising: 2.4 to 2.6 wt. % silver; 0.5 to 0.8 wt. % copper; 1.5 to 3.2 wt. % bismuth; 0.03 to 0.05 wt. % cobalt; 0.03 to 0.07 wt. % antimony; 0.03 to 0.07 wt. % nickel; and balance tin, together with any unavoidable impurities. 2.4 to 2.6 wt. % silver; 0.5 to 0.8 wt. % copper; 1.5 to 3.2 wt. % bismuth; 0.03 to 0.05 wt. % cobalt; 0.03 to 0.07 wt. % antimony; 0.03 to 0.07 wt. % nickel; and balance tin, together with any unavoidable impurities.
Load-break or short-circuit current switch comprising a main circuit for the circulation of the electric current and a secondary circuit for the circulation of the shunt electric current, wherein the main circuit comprises a switch-disconnector provided with a fixed contact and a moving contact , and wherein the secondary circuit comprises a vacuum switch which in turn comprises a fixed contact and a moving contact , the vacuum switch being activated by the movement of the moving contact of the switch - disconnector , wherein the moving contact of the switch-disconnector of the main circuit comprises an actuating means that moves integral with said moving contact of the switch-disconnector , said actuating means being connected to the moving contact of the switch-disconnector by means of a first articulation element , so that the actuating means acts on the vacuum switch in the opening sequence of the load-break or short-circuit current switch , and characterized in that the vacuum switch is connected to a fixed part of the secondary circuit by means of a second articulation element , so that the vacuum switch comprises a movement around said second articulation element .
A method of transferring fluid using a fluid transfer device (10, 10', 10") comprising: a die having first and second opposed surfaces ; at least one nozzle formed in the first opposed surface ; a fluid slot formed in the second opposed surface , the fluid slot having an inlet in the second opposed surface , and a separate outlet through which fluid exits to the at least one nozzle ; and a member having a second fluid slot defined therein, the member being placed on the second opposed surface of the die such that an outlet of the second fluid slot is directly aligned with the inlet of the fluid slot , such that the second fluid slot is fluidly connected to the fluid slot thereby expanding a capillary volume of the fluid slot , wherein the at least one nozzle , the inlet of the fluid slot and the second fluid slot are configured to enable fluid to wick into the fluid slot via capillarity, the method comprising: at least partially immersing the die of the fluid transfer device (10, 10', 10") in a well of a well plate, wicking fluid into the fluid slot by capillarity via the at least one nozzle , the inlet of the fluid slot , and the second fluid slot , and using the device (10, 10', 10") to transfer the wicked fluid from the well to another location. a die having first and second opposed surfaces ; at least one nozzle formed in the first opposed surface ; a fluid slot formed in the second opposed surface , the fluid slot having an inlet in the second opposed surface , and a separate outlet through which fluid exits to the at least one nozzle ; and a member having a second fluid slot defined therein, the member being placed on the second opposed surface of the die such that an outlet of the second fluid slot is directly aligned with the inlet of the fluid slot , such that the second fluid slot is fluidly connected to the fluid slot thereby expanding a capillary volume of the fluid slot , wherein the at least one nozzle , the inlet of the fluid slot and the second fluid slot are configured to enable fluid to wick into the fluid slot via capillarity, the method comprising: at least partially immersing the die of the fluid transfer device (10, 10', 10") in a well of a well plate, wicking fluid into the fluid slot by capillarity via the at least one nozzle , the inlet of the fluid slot , and the second fluid slot , and using the device (10, 10', 10") to transfer the wicked fluid from the well to another location. at least partially immersing the die of the fluid transfer device (10, 10', 10") in a well of a well plate, wicking fluid into the fluid slot by capillarity via the at least one nozzle , the inlet of the fluid slot , and the second fluid slot , and using the device (10, 10', 10") to transfer the wicked fluid from the well to another location.
An antifouling composition comprising one or more dispersant polymers and one or more inhibitors, wherein the one or more dispersant polymers comprise the polymerized residues of one or more α-olefins and maleic anhydride, further wherein 80 mol% - 100 mol% of the maleic anhydride residues are reacted with a primary amine defined by the formula R-NH 2 , wherein R is a linear or branched hydrocarbon moiety comprising 6 to 30 carbon atoms or a mixture of two or more such moieties, further wherein the one or more dispersant polymers are characterized by the absence of anhydride moieties and imide moieties; and the one or more inhibitors comprise a functionalized p -phenylene diamine defined by the formula wherein R' are independently selected to be linear, branched, aromatic, or alicyclic moieties comprising 1 to 12 carbon atoms optionally including one or more O, S, N, or halogen atoms with the proviso that the functionalized p -phenylene diamine includes no primary amine moieties.
An ultrasonic electromechanical system for an ultrasonic surgical instrument , the ultrasonic electromechanical system comprising: an ultrasonic blade ; an ultrasonic transducer acoustically coupled to the ultrasonic blade, the ultrasonic transducer configured to ultrasonically oscillate the ultrasonic blade in response to a drive signal; and a control circuit coupled to the ultrasonic transducer, the control circuit configured to: determine a first resonant frequency of the ultrasonic electromechanical system; determine a second resonant frequency of the ultrasonic electromechanical system as the ultrasonic blade oscillates against a tissue; and, determine a state of the ultrasonic surgical instrument according to a comparison between the first resonant frequency and the second resonant frequency; wherein the state of the ultrasonic surgical instrument comprises a temperature of the ultrasonic blade; and, wherein the control circuit is configured to adjust the amplitude of the ultrasonic blade to maintain the temperature of the ultrasonic blade at a predefined temperature. an ultrasonic blade ; an ultrasonic transducer acoustically coupled to the ultrasonic blade, the ultrasonic transducer configured to ultrasonically oscillate the ultrasonic blade in response to a drive signal; and a control circuit coupled to the ultrasonic transducer, the control circuit configured to: determine a first resonant frequency of the ultrasonic electromechanical system; determine a second resonant frequency of the ultrasonic electromechanical system as the ultrasonic blade oscillates against a tissue; and, determine a state of the ultrasonic surgical instrument according to a comparison between the first resonant frequency and the second resonant frequency; determine a first resonant frequency of the ultrasonic electromechanical system; determine a second resonant frequency of the ultrasonic electromechanical system as the ultrasonic blade oscillates against a tissue; and, determine a state of the ultrasonic surgical instrument according to a comparison between the first resonant frequency and the second resonant frequency; wherein the state of the ultrasonic surgical instrument comprises a temperature of the ultrasonic blade; and, wherein the control circuit is configured to adjust the amplitude of the ultrasonic blade to maintain the temperature of the ultrasonic blade at a predefined temperature.
A computer-implemented method comprising: receiving a domain name resolution request from a requesting process operating on a device ; determining that a domain name included in the domain name resolution request is indicative of malicious activity; responding to the domain name resolution request with a network address of a monitored server to cause the requesting process to communicate with the monitored server instead of an adversary server ; the computer-implemented method characterised in that it further comprises: transitioning an attack associated with the requesting process from the device to a monitored device , wherein the monitored device poses as the device originally impacted by the attack. receiving a domain name resolution request from a requesting process operating on a device ; determining that a domain name included in the domain name resolution request is indicative of malicious activity; responding to the domain name resolution request with a network address of a monitored server to cause the requesting process to communicate with the monitored server instead of an adversary server ; the computer-implemented method characterised in that it further comprises: transitioning an attack associated with the requesting process from the device to a monitored device , wherein the monitored device poses as the device originally impacted by the attack.
A washing machine, comprising at least two mutually independent washing units and a control module connected with the at least two washing units, wherein the at least two washing units comprise a first washing unit and a second washing unit ; characterized in that : the washing machine further comprises a touch display screen connected to the control module; the touch display screen is configured to split into at least two split-screens to simultaneously display a control menu of the first washing unit and a control menu of the second washing unit , respectively; a switching icon is further provided on the touch display screen and is configured to switch interfaces of the two washing units; and the touch display screen is further configured to split into the at least two split-screens under a control of the control module to simultaneously display operating states of the at least two washing units, respectively.
A dual mode radiation detector comprising: an x-ray detector layer to convert incident x-ray radiation into x-ray electrical data, said x-ray detector layer forming an incident face of said dual mode radiation detector; a collimator disposed below the x-ray detector layer; and a gamma photon detector layer disposed below the collimator to convert incident gamma photons into gamma photon electrical data, wherein an x-ray filter layer is arranged between the x-ray detector layer and the collimator. an x-ray detector layer to convert incident x-ray radiation into x-ray electrical data, said x-ray detector layer forming an incident face of said dual mode radiation detector; a collimator disposed below the x-ray detector layer; and a gamma photon detector layer disposed below the collimator to convert incident gamma photons into gamma photon electrical data, wherein an x-ray filter layer is arranged between the x-ray detector layer and the collimator.
An extruded magnesium alloy: comprising Ca in an amount of "a" atomic %, Al in an amount of "b" atomic % and a residue of Mg and an optional impurity, and optionally comprising Zn in an amount of "x" atomic %, wherein "x" satisfies the below equation , and optionally containing at least one element selected from the group consisting of Mn, Zr, Si, Sc, Sn, Ag, Cu, Li, Be, Mo, Nb, W and a rare-earth metal in an amount of "i" atomic %, where "i" satisfies the below equation , and optionally containing at least one compound selected from the group consisting of Mg 2 Si, SiC, MgO and CaO in an amount of "j" atomic % as an amount of metal atom in the compound, where "j" satisfies the below equation , comprising (Mg, Al) 2 Ca in an amount of "c" volume %, wherein "a", "b" and "c" satisfy the following equations , , and , and having a compound-free region in which said (Mg, Al) 2 Ca is not dispersed and a compound-dispersed region in which said (Mg, Al) 2 Ca is dispersed, wherein a volume fraction of the compound-dispersed region is "f" %, wherein "f" satisfies the following equation , wherein a crystal particle size of said dispersed (Mg, Al) 2 Ca is "e", wherein "e" satisfies the following equation , 4 ≤ a ≤ 6.5 7.5 ≤ b ≤ 11 1.2 ≤ b / a ≤ 3.0 10 ≤ c ≤ 35 1 nm ≤ e ≤ 2 μm 35 ≤ f ≤ 65 0 < i ≤ 0.3 0 < j ≤ 5 0 < x ≤ 3 . comprising Ca in an amount of "a" atomic %, Al in an amount of "b" atomic % and a residue of Mg and an optional impurity, and optionally comprising Zn in an amount of "x" atomic %, wherein "x" satisfies the below equation , and optionally containing at least one element selected from the group consisting of Mn, Zr, Si, Sc, Sn, Ag, Cu, Li, Be, Mo, Nb, W and a rare-earth metal in an amount of "i" atomic %, where "i" satisfies the below equation , and optionally containing at least one compound selected from the group consisting of Mg 2 Si, SiC, MgO and CaO in an amount of "j" atomic % as an amount of metal atom in the compound, where "j" satisfies the below equation , comprising (Mg, Al) 2 Ca in an amount of "c" volume %, wherein "a", "b" and "c" satisfy the following equations , , and , and having a compound-free region in which said (Mg, Al) 2 Ca is not dispersed and a compound-dispersed region in which said (Mg, Al) 2 Ca is dispersed, wherein a volume fraction of the compound-dispersed region is "f" %, wherein "f" satisfies the following equation , wherein a crystal particle size of said dispersed (Mg, Al) 2 Ca is "e", wherein "e" satisfies the following equation , 4 ≤ a ≤ 6.5 7.5 ≤ b ≤ 11 1.2 ≤ b / a ≤ 3.0 10 ≤ c ≤ 35 1 nm ≤ e ≤ 2 μm 35 ≤ f ≤ 65 0 < i ≤ 0.3 0 < j ≤ 5 0 < x ≤ 3 .
Optoelectronic device including at least: - a first p-doped semiconductor layer and a second n-doped semiconductor layer placed one on top of the other and together forming a p-n junction; - a first electrode electrically connected to the first semiconductor layer and forming an anode of the optoelectronic device ; - a gate , comprising at least one gate dielectric and a layer of electrically conductive material of the gate, arranged against at least one lateral side of at least a portion of the first semiconductor layer ; - a second electrode arranged against at least one lateral side of at least a portion of the second semiconductor layer , electrically connected to said portion of the second semiconductor layer and electrically insulated from the first semiconductor layer ; and wherein at least one portion of the second electrode is arranged against the electrically conducting material of the gate in such a way that the second electrode is electrically connected to the electrically conducting material of the gate and forms both a gate electrode and a cathode of the optoelectronic device . - a first p-doped semiconductor layer and a second n-doped semiconductor layer placed one on top of the other and together forming a p-n junction; - a first electrode electrically connected to the first semiconductor layer and forming an anode of the optoelectronic device ; - a gate , comprising at least one gate dielectric and a layer of electrically conductive material of the gate, arranged against at least one lateral side of at least a portion of the first semiconductor layer ; - a second electrode arranged against at least one lateral side of at least a portion of the second semiconductor layer , electrically connected to said portion of the second semiconductor layer and electrically insulated from the first semiconductor layer ;
A method for laser microdissection, the method comprising: detecting at least a portion of an object to be dissected in an image-producing manner in a laser microdissection system and generating a first digital object image ; defining a first processing specification including a first cutting line specification based on the first digital object image ; processing the object , in a first processing step in accordance with the first processing specification, using a laser beam of the laser microdissection system , wherein the first processing step includes cutting the object by means of the laser beam; detecting at least a portion of the object in an image-producing manner and generating a second digital object image ; defining a second processing specification including a second cutting line specification, during execution of the first processing step, based on the second digital object image ; and processing the object , in a second processing step in accordance with the second processing specification, using the laser beam of the laser microdissection system , wherein the second processing step includes cutting the object by means of the laser beam. detecting at least a portion of an object to be dissected in an image-producing manner in a laser microdissection system and generating a first digital object image ; defining a first processing specification including a first cutting line specification based on the first digital object image ; processing the object , in a first processing step in accordance with the first processing specification, using a laser beam of the laser microdissection system , wherein the first processing step includes cutting the object by means of the laser beam; detecting at least a portion of the object in an image-producing manner and generating a second digital object image ; defining a second processing specification including a second cutting line specification, during execution of the first processing step, based on the second digital object image ; and processing the object , in a second processing step in accordance with the second processing specification, using the laser beam of the laser microdissection system , wherein the second processing step includes cutting the object by means of the laser beam.