mhurhangee/ep-ind-claims huggingface dataset:
Process for separating a C 2+ -rich fraction from liquefied natural gas, comprising the following process steps: a) partial vaporization (E1, E2) of the liquefied natural gas (1, 1'), b) separation of the partially vaporized natural gas into a first C 1 -rich gas fraction and a first C 2+ -rich liquid fraction, c) separation by rectification of the first C 2+ -rich liquid fraction into a second C 1 -rich gas fraction and a second C 2+ -rich liquid fraction, d) reliquefaction of the first C 1 -rich gas fraction by heat exchange with the liquefied natural gas to be vaporized, characterized in that e) at least one substream of the reliquefied C 1 -rich gas fraction is fed as runback to the separation by rectification. a) partial vaporization (E1, E2) of the liquefied natural gas (1, 1'), b) separation of the partially vaporized natural gas into a first C 1 -rich gas fraction and a first C 2+ -rich liquid fraction, c) separation by rectification of the first C 2+ -rich liquid fraction into a second C 1 -rich gas fraction and a second C 2+ -rich liquid fraction, d) reliquefaction of the first C 1 -rich gas fraction by heat exchange with the liquefied natural gas to be vaporized, characterized in that e) at least one substream of the reliquefied C 1 -rich gas fraction is fed as runback to the separation by rectification.
A process for electrically contacting a coated lead comprising the following steps: a. Providing a coated lead comprising an electrically conductive core and an electrically insulating coating; b. Providing a via hole in the electrically insulating coating in order to expose a section of the electrically conductive core; c. Introducing a first electrically conductive material into the via hole such that it contacts at least a part of the exposed section of the electrically conductive core; d. Applying a further electrically conductive material to the coated lead such that it contacts at least a part of the first conductive material. a. Providing a coated lead comprising an electrically conductive core and an electrically insulating coating; b. Providing a via hole in the electrically insulating coating in order to expose a section of the electrically conductive core; c. Introducing a first electrically conductive material into the via hole such that it contacts at least a part of the exposed section of the electrically conductive core; d. Applying a further electrically conductive material to the coated lead such that it contacts at least a part of the first conductive material.
A method of increasing vasodilation of the mammary glands, the method comprising feeding a monogastric mammal, wherein feeding the monogastric mammal comprises: providing to the monogastric mammal a complete animal feed comprising at least a lactation feed, whereby the feed comprises a nitric oxide producing compound in an amount of less than 10 kg/metric ton (10 g/kg) of the total weight of the feed; feeding the feed to a mono gastric mammal 110 days after the start of gestation of the monogastric mammal; whereby the nitric oxide producing compound is a nitrate compound, wherein the mono-gastric mammal is a sow. providing to the monogastric mammal a complete animal feed comprising at least a lactation feed, whereby the feed comprises a nitric oxide producing compound in an amount of less than 10 kg/metric ton (10 g/kg) of the total weight of the feed; feeding the feed to a mono gastric mammal 110 days after the start of gestation of the monogastric mammal; whereby the nitric oxide producing compound is a nitrate compound, wherein the mono-gastric mammal is a sow.
A display module comprising: a display panel comprising a base surface; and an input sensing unit TS) directly disposed on the base surface, characterized by the following features: the input sensing unit comprises: a first electrode extending in a first direction, the first electrode comprising a first opening area (SP-OP1); a second electrode extending in a second direction intersecting the first direction, the second electrode being longer than the first electrode, the second electrode comprising a second opening area (SP-OP2) of a size greater than a size of the first opening area (SP-OP1); and an insulation layer configured to insulate the first electrode from the second electrode. a display panel comprising a base surface; and an input sensing unit TS) directly disposed on the base surface, characterized by the following features: the input sensing unit comprises: a first electrode extending in a first direction, the first electrode comprising a first opening area (SP-OP1); a second electrode extending in a second direction intersecting the first direction, the second electrode being longer than the first electrode, the second electrode comprising a second opening area (SP-OP2) of a size greater than a size of the first opening area (SP-OP1); and an insulation layer configured to insulate the first electrode from the second electrode. a first electrode extending in a first direction, the first electrode comprising a first opening area (SP-OP1); a second electrode extending in a second direction intersecting the first direction, the second electrode being longer than the first electrode, the second electrode comprising a second opening area (SP-OP2) of a size greater than a size of the first opening area (SP-OP1); and an insulation layer configured to insulate the first electrode from the second electrode.
A friction and wear reducing agent for lubricating oil consisting of a copolymer comprising an alkyl acrylate (a) represented by the following general -formula and a hydroxyalkyl acrylate (b) represented by the following general formula as essential constituent monomers, wherein the constitutive ratio of (a) to (b) is 50/50 to 90/10 (molar ratio) and the weight average molecular weight thereof is 2,000 to less than 40,000 wherein in the above formula, R 1 represents an alkyl group having 10 to 18 carbon atoms wherein in the above formula, R 2 represents an alkylene group having 2 to 4 carbon atoms.
An adjustment ring comprising an adjustment section for the axial alignment of a radially inwardly disposed first bearing section of a bearing of a vacuum pump, in particular a turbomolecular pump, in the direction of a longitudinal center axis of the bearing relative to a radially outwardly disposed second bearing section of the bearing of the vacuum pump, wherein a circumferential collar emerges from the adjustment section of the adjustment ring and has a radially outwardly extending radial collar section, characterized in that an axial collar section emerges in an angled manner from the radial collar section.
A stand-by power system comprising at least a relay, which comprises at least one switch connected to line and/or neutral of mains input, an infrared receiver, a main power supply, a stand-by power supply and a remote control, comprising a stand-by button and an infrared transmitter, and wherein said system comprises a microcontroller, characterized in that it further comprises; - a relay controller connected in series with a coil of said relay, wherein said relay controller cuts a first current passing through said coil of said relay when said relay controller inputs a control signal - a reed switch connected in parallel with said switch of said relay, wherein said reed switch passes a second current when said reed switch is actuated - a magnetic coil which actuates said reed switch when a third current passes through said magnetic coil, - an ultrasonic receiver connected to said magnetic coil, wherein said ultrasonic receiver energizes said magnetic coil when said ultrasonic receiver receives an ultrasonic signal - a stand-by controller connected to said stand-by power supply and said relay controller, wherein said stand-by controller controls said stand-by power supply and said relay controller - an ultrasonic transmitter on said remote control, wherein said ultrasonic transmitter sends an ultrasonic signal to the said ultrasonic receiver. - a relay controller connected in series with a coil of said relay, wherein said relay controller cuts a first current passing through said coil of said relay when said relay controller inputs a control signal - a reed switch connected in parallel with said switch of said relay, wherein said reed switch passes a second current when said reed switch is actuated - a magnetic coil which actuates said reed switch when a third current passes through said magnetic coil, - an ultrasonic receiver connected to said magnetic coil, wherein said ultrasonic receiver energizes said magnetic coil when said ultrasonic receiver receives an ultrasonic signal - a stand-by controller connected to said stand-by power supply and said relay controller, wherein said stand-by controller controls said stand-by power supply and said relay controller - an ultrasonic transmitter on said remote control, wherein said ultrasonic transmitter sends an ultrasonic signal to the said ultrasonic receiver.
Fuel injection valve, comprising - a valve needle, - a magnet actuator with a magnet armature and an inner pole, and - a restoring element, characterized in that the valve needle is produced at least partially from a duplex steel, wherein the duplex steel has a first, ferritic or martensitic microstructure and a second, austenitic microstructure. - a valve needle, - a magnet actuator with a magnet armature and an inner pole, and - a restoring element,
A method for controlling a valve actuator when it is disconnected from a grid, said method comprising the steps of: providing a valve actuator control device being portable and connectable with a signal transmitting wire to the valve actuator; connecting the valve actuator control device to the valve actuator with the signal transmitting wire; supplying operating power to the valve actuator from an energy storage unit connected to the valve actuator control device; transmitting control signals from the valve actuator control device to the valve actuator via said signal transmitting wire in order to control the valve actuator; characterized in that said method further comprises: receiving information signals from the valve actuator to the valve actuator control device via said signal transmitting wire in order to retrieve a set of internal parameters of the valve actuator; and detecting a model type of said valve actuator from the received information signals from the valve actuator. providing a valve actuator control device being portable and connectable with a signal transmitting wire to the valve actuator; connecting the valve actuator control device to the valve actuator with the signal transmitting wire; supplying operating power to the valve actuator from an energy storage unit connected to the valve actuator control device; transmitting control signals from the valve actuator control device to the valve actuator via said signal transmitting wire in order to control the valve actuator; characterized in that said method further comprises: receiving information signals from the valve actuator to the valve actuator control device via said signal transmitting wire in order to retrieve a set of internal parameters of the valve actuator; and detecting a model type of said valve actuator from the received information signals from the valve actuator. receiving information signals from the valve actuator to the valve actuator control device via said signal transmitting wire in order to retrieve a set of internal parameters of the valve actuator; and detecting a model type of said valve actuator from the received information signals from the valve actuator.
A compound of formula I: wherein: n is 1 or 2; p is 0 or 1; R 1 is optionally one or more halo or methyl groups; R 2a and R 2b are independently selected from the group consisting of: (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; R 2c and R 2d are independently selected from the group consisting of: (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; R 3a and R 3b are independently selected from H and Me; R 4 is either H or Me; R 5 is either H or Me; R 6a and R 6b are independently selected from H and Me; A is either (i) optionally substituted phenyl; (ii) optionally substituted naphthyl; or (iii) optionally substituted C 5-12 heteroaryl; wherein the optional substituents on A are independently selected from the group consisting of: C 1-4 alkyl, C 1-4 fluoroalkyl, C 3-6 cycloalkyl, C 5-6 heteroaryl, C 5-6 heteroaryl methyl, C 4-6 heterocyclyl, C 4-6 heterocyclyl methyl, phenyl, benzyl, halo, amido, amidomethyl, acylamido, acylamidomethyl, C 1-4 alkyl ester, C 1-4 alkyl ester methyl, C 1-4 alkyl carbamoyl, C 1-4 alkyl carbamoyl methyl, C 1-4 alkylacyl, C 1-4 alkylacyl methyl, phenylcarbonyl, carboxy, carboxymethyl, ether, amino, aminomethyl, sulfonamido, sulfonamino, sulfone, sulfoxide, nitrile and nitrilemethyl and when A is phenyl, the optional substituent may also be a fused C 5-6 N 1 -containing heterocyclic ring. n is 1 or 2; p is 0 or 1; R 1 is optionally one or more halo or methyl groups; R 2a and R 2b are independently selected from the group consisting of: (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; R 2c and R 2d are independently selected from the group consisting of: (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; (i) F; (ii) H; (iii) Me; and (iv) CH 2 OH; R 3a and R 3b are independently selected from H and Me; R 4 is either H or Me; R 5 is either H or Me; R 6a and R 6b are independently selected from H and Me; A is either (i) optionally substituted phenyl; (ii) optionally substituted naphthyl; or (iii) optionally substituted C 5-12 heteroaryl; (i) optionally substituted phenyl; (ii) optionally substituted naphthyl; or (iii) optionally substituted C 5-12 heteroaryl; wherein the optional substituents on A are independently selected from the group consisting of: C 1-4 alkyl, C 1-4 fluoroalkyl, C 3-6 cycloalkyl, C 5-6 heteroaryl, C 5-6 heteroaryl methyl, C 4-6 heterocyclyl, C 4-6 heterocyclyl methyl, phenyl, benzyl, halo, amido, amidomethyl, acylamido, acylamidomethyl, C 1-4 alkyl ester, C 1-4 alkyl ester methyl, C 1-4 alkyl carbamoyl, C 1-4 alkyl carbamoyl methyl, C 1-4 alkylacyl, C 1-4 alkylacyl methyl, phenylcarbonyl, carboxy, carboxymethyl, ether, amino, aminomethyl, sulfonamido, sulfonamino, sulfone, sulfoxide, nitrile and nitrilemethyl and when A is phenyl, the optional substituent may also be a fused C 5-6 N 1 -containing heterocyclic ring.
A light emitting device (100-1, 200-1), comprising: a light emitting structure comprising a plurality of light emitting regions comprising a first semiconductor layer, an active layer and a second semiconductor layer; a first distributed bragg reflective layer disposed on the light emitting regions; a first electrode unit (150, 250) disposed on the first semiconductor layer in one of the light emitting regions; a second electrode unit (170, 272) disposed on the second semiconductor layer in another of the light emitting regions; an intermediate pad (182, 184, 252, 254) disposed on the second semiconductor layer in at least still another of the light emitting regions; at least one connection electrode (160-1 ∼ 160-8, 260-1∼ 260-8) disposed on the first distributed bragg reflective layer such that the connection electrode sequentially connects the light emitting regions in series; and a substrate disposed under the light emitting structure, characterized by further comprising: a second distributed bragg reflective layer disposed on the first distributed bragg reflective layer, the second distributed bragg reflective layer covering the connection electrode. a light emitting structure comprising a plurality of light emitting regions comprising a first semiconductor layer, an active layer and a second semiconductor layer; a first distributed bragg reflective layer disposed on the light emitting regions; a first electrode unit (150, 250) disposed on the first semiconductor layer in one of the light emitting regions; a second electrode unit (170, 272) disposed on the second semiconductor layer in another of the light emitting regions; an intermediate pad (182, 184, 252, 254) disposed on the second semiconductor layer in at least still another of the light emitting regions; at least one connection electrode (160-1 ∼ 160-8, 260-1∼ 260-8) disposed on the first distributed bragg reflective layer such that the connection electrode sequentially connects the light emitting regions in series; and a substrate disposed under the light emitting structure, characterized by further comprising: a second distributed bragg reflective layer disposed on the first distributed bragg reflective layer, the second distributed bragg reflective layer covering the connection electrode.
A coffee puck removal device to remove a coffee puck from a portafilter having an open compartment containing the coffee puck, the coffee puck having an exposed major outer face and a major inner face when the coffee puck is located in the open compartment, the device including: a body having a rim surrounding an aperture and an interior chamber in communication with the aperture, with the rim being configured to engage the portafilter, with the open compartment facing the body to inhibit air passing between the portafilter and the rim; and a vacuum source connected to the interior chamber to remove air from the interior chamber and the aperture so that air pressure applied to the major inner face is greater than air pressure applied to the exposed major outer face so that the coffee puck is removed from the portafilter, the device being characterized by the vacuum source being located inside the interior chamber of the body. a body having a rim surrounding an aperture and an interior chamber in communication with the aperture, with the rim being configured to engage the portafilter, with the open compartment facing the body to inhibit air passing between the portafilter and the rim; and a vacuum source connected to the interior chamber to remove air from the interior chamber and the aperture so that air pressure applied to the major inner face is greater than air pressure applied to the exposed major outer face so that the coffee puck is removed from the portafilter, the device being characterized by the vacuum source being located inside the interior chamber of the body.
A soap bar composition comprising (i) 45 to 80% total amount of soap by weight of the composition; (ii) 2 to 15% of total free fatty acid by weight of the composition; and (iii) 14 to 21% water by weight of the composition, wherein the free fatty acid includes 0.3 to 10% of hydroxystearic acid by weight of the composition; wherein the hydroxystearic acid is 12-hydroxystearic acid. (i) 45 to 80% total amount of soap by weight of the composition; (ii) 2 to 15% of total free fatty acid by weight of the composition; and (iii) 14 to 21% water by weight of the composition,
An ink jet recording apparatus comprising: an ink jet head which is configured to form an image on a recording medium in response to a drive signal applied to multiple piezoelectric elements, the drive signal causing multiple pressure chambers corresponding to the multiple piezoelectric elements to expand or to contract in volume and causing ink in the multiple pressure chambers to be discharged from multiple nozzles; and a drive circuit which is configured to generate a drive signal for discharging multiple liquid droplets to one pixel for combining the multiple liquid droplets together and to apply the drive signal to each of the multiple piezoelectric elements of the ink jet head, wherein the drive signal includes multiple discharge pulses (P1, P2, P3) which make velocities of tips of respective liquid columns substantially same after a predetermined time from starting of ink discharge from the nozzles; wherein, in the drive signal, an absolute value of voltage from a bottom voltage to a reference voltage for each of the multiple discharge pulses (P1, P2, P3) is kept constant, and wherein the velocities of tips of respective liquid columns is substantially same by adjustment of at least one standby time between the multiple discharge pulses; and wherein, in the drive signal, if a first standby time of the at least one standby time is less than 0.5 AL, a subsequent standby time is set to be sequentially longer, and if a first standby time of the at least one standby time is 0.5 AL or more, a subsequent standby time is set to be sequentially shorter. an ink jet head which is configured to form an image on a recording medium in response to a drive signal applied to multiple piezoelectric elements, the drive signal causing multiple pressure chambers corresponding to the multiple piezoelectric elements to expand or to contract in volume and causing ink in the multiple pressure chambers to be discharged from multiple nozzles; and a drive circuit which is configured to generate a drive signal for discharging multiple liquid droplets to one pixel for combining the multiple liquid droplets together and to apply the drive signal to each of the multiple piezoelectric elements of the ink jet head, wherein the drive signal includes multiple discharge pulses (P1, P2, P3) which make velocities of tips of respective liquid columns substantially same after a predetermined time from starting of ink discharge from the nozzles; wherein, in the drive signal, an absolute value of voltage from a bottom voltage to a reference voltage for each of the multiple discharge pulses (P1, P2, P3) is kept constant, and wherein the velocities of tips of respective liquid columns is substantially same by adjustment of at least one standby time between the multiple discharge pulses; and wherein, in the drive signal, if a first standby time of the at least one standby time is less than 0.5 AL, a subsequent standby time is set to be sequentially longer, and if a first standby time of the at least one standby time is 0.5 AL or more, a subsequent standby time is set to be sequentially shorter.
A method for imaging tissue, comprising: - causing a macroscopic image of a tissue surface captured by a macroscopic imager to be displayed on a visual display; - receiving a selection of at least one portion of the macroscopic image; - for each selected portion of the macroscopic image, causing a plurality of confocal images captured by a confocal imager at different depths in a corresponding portion of the tissue to be displayed on the visual display; - receiving a selection, from among the plurality of confocal images, of at least one target depth image; and - for each selected target depth image, instructing the confocal imager to capture a plurality of additional images at different locations over a selected region of the tissue and at a common depth with the target depth image. - causing a macroscopic image of a tissue surface captured by a macroscopic imager to be displayed on a visual display; - receiving a selection of at least one portion of the macroscopic image; - for each selected portion of the macroscopic image, causing a plurality of confocal images captured by a confocal imager at different depths in a corresponding portion of the tissue to be displayed on the visual display; - receiving a selection, from among the plurality of confocal images, of at least one target depth image; and - for each selected target depth image, instructing the confocal imager to capture a plurality of additional images at different locations over a selected region of the tissue and at a common depth with the target depth image.