mhurhangee/ep-ind-claims huggingface dataset:
A modular intercooler block fabricated by way of direct metal printing and configured to be assembled to form larger intercoolers, comprising: a multiplicity of cooling fins configured to allow passage of an airstream; a first core header and a second core header disposed on opposite sides of the multiplicity of cooling fins; an outwardly-facing surface comprising each of the first core header and the second core header that is configured to be sealed to an outwardly-facing surface of a core header of an adjacent modular intercooler block, in use; a multiplicity of countersunk holes arranged on the outwardly-facing surface of each of the first core header and the second core header; one or more seals for sealing the multiplicity of countersink holes with countersunk holes of the adjacent modular intercooler block, in use; and a core tube extending from each of the multiplicity of countersunk holes in the first core header, through the multiplicity of cooling fins, to a similarly disposed countersunk hole in the second core header. a multiplicity of cooling fins configured to allow passage of an airstream; a first core header and a second core header disposed on opposite sides of the multiplicity of cooling fins; an outwardly-facing surface comprising each of the first core header and the second core header that is configured to be sealed to an outwardly-facing surface of a core header of an adjacent modular intercooler block, in use; a multiplicity of countersunk holes arranged on the outwardly-facing surface of each of the first core header and the second core header; one or more seals for sealing the multiplicity of countersink holes with countersunk holes of the adjacent modular intercooler block, in use; and a core tube extending from each of the multiplicity of countersunk holes in the first core header, through the multiplicity of cooling fins, to a similarly disposed countersunk hole in the second core header.
Coil micromechanical device comprising: - a fixed frame, - a rotor movably mounted along an axis of rotation AA on said fixed frame by means of two torsion beams with an axis AA and - a coil made of conducting wire on a mobile frame, integrally mounted rotatable with said rotor, said coil being supplied with current from said fixed frame via two conducting segments that are connected to supply studs placed on said fixed frame, said conducting segments being formed by two metallic paths extending on a single torsion beam, characterized in that said torsion beam comprises a longitudinal slit that electrically separates said metallic paths and in that both ends of said coil are each connected to one of the metallic paths on both sides of one of the torsion beams on the mobile frame. - a fixed frame, - a rotor movably mounted along an axis of rotation AA on said fixed frame by means of two torsion beams with an axis AA and - a coil made of conducting wire on a mobile frame, integrally mounted rotatable with said rotor, said coil being supplied with current from said fixed frame via two conducting segments that are connected to supply studs placed on said fixed frame, said conducting segments being formed by two metallic paths extending on a single torsion beam,
A bone plate assembly with a bone anchor having a head with a spherically-shaped outer surface portion and a shank, the bone plate assembly comprising: a plate member (1, 1', 1") having a top side and a bottom side and at least one passage extending from the top side to the bottom side; wherein the at least one passage includes a first bore with a first end open towards the top side and a second end, a seat portion configured to receive the head of the bone anchor, and wherein the first bore comprises a first central axis and the seat portion comprises a second central axis, and wherein the first central axis and the second central axis intersect each other within the passage, and a second bore open towards the bottom side, wherein the seat portion has a spherically-shaped surface portion and is configured to receive the head of the bone anchor at different angular orientations of the head, characterized in that an annular edge is formed between the seat portion and the second bore which defines a plane perpendicular to the second central axis of the seat portion. a plate member (1, 1', 1") having a top side and a bottom side and at least one passage extending from the top side to the bottom side; wherein the at least one passage includes a first bore with a first end open towards the top side and a second end, a seat portion configured to receive the head of the bone anchor, and wherein the first bore comprises a first central axis and the seat portion comprises a second central axis, and wherein the first central axis and the second central axis intersect each other within the passage, and a second bore open towards the bottom side, wherein the seat portion has a spherically-shaped surface portion and is configured to receive the head of the bone anchor at different angular orientations of the head, characterized in that an annular edge is formed between the seat portion and the second bore which defines a plane perpendicular to the second central axis of the seat portion.
Method for enlarging at least one display region on a display unit (1.4) of a measuring device, with the following method steps: - definition of at least two enlargeable display regions (2.1), - evaluation of a touch of a touch screen (2.5), - assignment of the touch screen signal so received to an enlargeable display region to be enlarged (2.6) and - enlargement of this enlargeable display region to be enlarged (2.7), wherein a form of enlargement is fixed for each enlargeable display region individually, characterised in that the form of enlargement is fixed a priori dependent on the size and/or shape and/or orientation and/or location of the display region to be enlarged, and in that the form of enlargement comprises alteration of geometric factors, and at the same time alteration of the type style and/or type size and/or alteration of the line spacing and/or line make-up, wherein the alteration of the type style and/or the type size and/or the alteration of the line spacing and/or the line make-up is independent of the alteration of geometric factors of the display region to be enlarged. - definition of at least two enlargeable display regions (2.1), - evaluation of a touch of a touch screen (2.5), - assignment of the touch screen signal so received to an enlargeable display region to be enlarged (2.6) and - enlargement of this enlargeable display region to be enlarged (2.7), wherein a form of enlargement is fixed for each enlargeable display region individually,
A method for preparing azoxystrobin, the method being characterized in that the method comprising the steps (a) and (b): (a) mixing methyl -2-[2-(6-chloropyrimidin-4-yloxy)phenyl]-3-methoxyacrylate, 2-cyanophenol, potassium carbonate, and 10-80 mol% of 1-methylpyrrolidine as a catalyst in an aprotic solvent, to form a basic mixture; and reacting the basic mixture for 2-5 hrs at a temperature of 60-120°C; and (b) subjecting the basic mixture in Step (a) to a first distillation under a reduced pressure of 10666-15999 Pa (80-120 Torr) at 70-80°C, to obtain azoxystrobin. (a) mixing methyl -2-[2-(6-chloropyrimidin-4-yloxy)phenyl]-3-methoxyacrylate, 2-cyanophenol, potassium carbonate, and 10-80 mol% of 1-methylpyrrolidine as a catalyst in an aprotic solvent, to form a basic mixture; and reacting the basic mixture for 2-5 hrs at a temperature of 60-120°C; and (b) subjecting the basic mixture in Step (a) to a first distillation under a reduced pressure of 10666-15999 Pa (80-120 Torr) at 70-80°C, to obtain azoxystrobin.
An eggshell catalyst comprising an outer eggshell layer comprising nickel oxide and having a thickness of ≤ 1000μm on the surface of a calcined, shaped calcium aluminate cement support, wherein the nickel oxide is concentrated within the eggshell layer and not uniformly distributed within the calcined, shaped calcium aluminate cement support.
Method for controlling a flying object (2, 20) having a stiff airfoil and being connected by means of two tethers (2, 20) to a ground station, wherein the flying object (2, 20) is connected such to the ground station by means of only two tethers (3, 4), and wherein the flying object (2, 20) is rolled during flight by a differential movement of the tethers (3, 4), characterized in that the pivot points (22, 23; 53) for the tethers (3, 4) are disposed, along the longitudinal direction of the flying object (2, 20), at or before the position of the centre of gravity of the flying object (2, 20) and the flying object (2, 20) comprises vertical stabilizers, such that the stiff airfoil can be controlled by means of a roll movement for carrying out lateral turns and the flying object (2, 20) is enabled to be manoeuvred through a turning flight by mean of differential operation of the tethers (3, 4), and that the flying object (2, 20) is rolled during flight by such differential movements and is thus manoeuvred through the turning flight that is caused in this way. wherein the flying object (2, 20) is connected such to the ground station by means of only two tethers (3, 4), and wherein the flying object (2, 20) is rolled during flight by a differential movement of the tethers (3, 4), characterized in that the pivot points (22, 23; 53) for the tethers (3, 4) are disposed, along the longitudinal direction of the flying object (2, 20), at or before the position of the centre of gravity of the flying object (2, 20) and the flying object (2, 20) comprises vertical stabilizers, such that the stiff airfoil can be controlled by means of a roll movement for carrying out lateral turns and the flying object (2, 20) is enabled to be manoeuvred through a turning flight by mean of differential operation of the tethers (3, 4), and that the flying object (2, 20) is rolled during flight by such differential movements and is thus manoeuvred through the turning flight that is caused in this way.
A ganglioside carbohydrate multimer comprising 4 carbohydrate gangliosides covalently bonded to a PAMAM core molecule, wherein one or more of said ganglioside carbohydrates is a ganglioside carbohydrate of formula or
An epicyclic geartrain having a debris collection arrangement, the epicyclic geartrain comprising: a sun gear; a plurality of planet gears and a planet torque ring, the plurality of planet gears supported by the planet torque ring; and a ring gear, wherein the planet gears meshingly surround the sun gear, and the ring gear meshingly surrounds the planet gears, wherein at least one of the sun gear and the plurality of planet gears is provided with a plurality of permanent magnet portions for attracting ferromagnetic debris particles and a debris collection element, wherein the plurality of magnet portions is arranged as a circumferential array on a side face (112: 121) of the corresponding gear (110:120), wherein the debris collection element extends along the side face (112:121) of the corresponding gear (110:120), and wherein the debris collection element is slidably positioned against the side face (112:121), such that rotation of the gear (110:120) causes the debris collection element to remove any ferromagnetic debris particles that are magnetically attached to the side face (112:121) bearing the magnet portions. a sun gear; a plurality of planet gears and a planet torque ring, the plurality of planet gears supported by the planet torque ring; and a ring gear, wherein the planet gears meshingly surround the sun gear, and the ring gear meshingly surrounds the planet gears, wherein at least one of the sun gear and the plurality of planet gears is provided with a plurality of permanent magnet portions for attracting ferromagnetic debris particles and a debris collection element, wherein the plurality of magnet portions is arranged as a circumferential array on a side face (112: 121) of the corresponding gear (110:120), wherein the debris collection element extends along the side face (112:121) of the corresponding gear (110:120), and wherein the debris collection element is slidably positioned against the side face (112:121), such that rotation of the gear (110:120) causes the debris collection element to remove any ferromagnetic debris particles that are magnetically attached to the side face (112:121) bearing the magnet portions.
A cable distribution device for an intelligent optical distribution network, iODN, wherein the cable distribution device for the iODN comprises a tray and a cable distribution structure for the iODN, the tray is provided with multiple first interfaces, the cable distribution structure for the iODN comprises multiple attachment plates, an upper cover, a circuit board, and a bottom cover, the circuit board is installed between the upper cover and the bottom cover, one end of each attachment plate is installed on the bottom cover, and the other end of each attachment plate is inserted into the first interface of the tray, so that the cable distribution structure for the iODN is installed on the tray, characterised in that each of the first interfaces is provided with a first slot, a second slot, and a receiving groove, the first slot and the second slot are located at two sides of the receiving groove and are in communication with the receiving groove, the attachment plate comprises a first clamping portion, a second clamping portion, and a body, the first clamping portion and the second clamping portion protrude from two sides of one end of the body, the body is received in the receiving groove, the first clamping portion is clamped in the first slot, and the second clamping portion is clamped in the second slot, so that the attachment plate is installed on the tray.
A health care pot, comprising: a body portion defining a cooking cavity therein; a containing portion extending into the cooking cavity; a communication area communicating the containing portion and the cooking cavity is provided in a peripheral wall of the containing portion, a medium replacement portion provided in the cooking cavity, wherein the medium replacement portion is connected to the containing portion, and wherein that the medium replacement portion is configured to replace a second medium in a liquid state located in the medium replacement portion with a first medium so that the replaced second medium is allowed to be discharged out of the medium replacement portion to enable a liquid level in the cooking cavity to rise from a lower level to a higher level, the medium replacement portion is further configured to enable the second medium in the liquid state located outside the medium replacement portion to enter the medium replacement portion so as to occupy at least a part of space occupied by the first medium, and a lowest water entry point of the communication area is higher than the lower level and lower than the higher lever; characterized in that an upper edge of the containing portion is provided with a snap-fit flange, and the snap-fit flange is snap-fitted with the body portion. a body portion defining a cooking cavity therein; a containing portion extending into the cooking cavity; a communication area communicating the containing portion and the cooking cavity is provided in a peripheral wall of the containing portion, a medium replacement portion provided in the cooking cavity, wherein the medium replacement portion is connected to the containing portion, and wherein that the medium replacement portion is configured to replace a second medium in a liquid state located in the medium replacement portion with a first medium so that the replaced second medium is allowed to be discharged out of the medium replacement portion to enable a liquid level in the cooking cavity to rise from a lower level to a higher level, the medium replacement portion is further configured to enable the second medium in the liquid state located outside the medium replacement portion to enter the medium replacement portion so as to occupy at least a part of space occupied by the first medium, and a lowest water entry point of the communication area is higher than the lower level and lower than the higher lever; characterized in that an upper edge of the containing portion is provided with a snap-fit flange, and the snap-fit flange is snap-fitted with the body portion.
A method, comprising amplifying a radio frequency, RF, signal by a low noise amplifier, LNA, to generate an amplified RF signal; down-converting the amplified RF signal by a first mixer to generate a first low-frequency signal; amplifying and filtering the first low-frequency signal by a first trans-impedance filter to generate a first baseband signal, wherein the trans-impedance filter comprises a tunable inductor and capacitor, LC, network configured to be a portion of a LC ladder filter; and a trans-impedance amplifier, TIA, comprising an input coupled to the tunable LC network and configured to be open-loop; down-converting the amplified RF signal by a second mixer to generate a second low-frequency signal; and amplifying and filtering the second low-frequency signal by a second trans-impedance filter to generate a second baseband signal. amplifying a radio frequency, RF, signal by a low noise amplifier, LNA, to generate an amplified RF signal; down-converting the amplified RF signal by a first mixer to generate a first low-frequency signal; amplifying and filtering the first low-frequency signal by a first trans-impedance filter to generate a first baseband signal, wherein the trans-impedance filter comprises a tunable inductor and capacitor, LC, network configured to be a portion of a LC ladder filter; and a trans-impedance amplifier, TIA, comprising an input coupled to the tunable LC network and configured to be open-loop; a tunable inductor and capacitor, LC, network configured to be a portion of a LC ladder filter; and a trans-impedance amplifier, TIA, comprising an input coupled to the tunable LC network and configured to be open-loop; down-converting the amplified RF signal by a second mixer to generate a second low-frequency signal; and amplifying and filtering the second low-frequency signal by a second trans-impedance filter to generate a second baseband signal.
A method for manufacturing a light emitting device comprising, preparing a growth substrate, wherein the growth substrate is defined as a chip region and a scribing region; selectively forming a projection pattern on the scribing region of the growth substrate; forming a first conductivity type semiconductor layer on the growth substrate and the projection pattern; forming an active layer on the first conductivity type semiconductor layer; forming a second conductivity type semiconductor layer on the active layer; and forming a conductive support substrate on the second conductivity type semiconductor layer, removing the growth substrate before executing the isolation etching, and executing an isolation etching for selectively removing the first conductivity type semiconductor layer, the active layer, and the second conductivity type semiconductor layer including the projection pattern, wherein the projection pattern existing in the scribing region is removed, wherein the scribing region is removed during a process for dividing the semiconductor layer (30, 40, 50) into a chip unit, wherein a portion of a bottom surface of the conductive support substrate is exposed by the isolation etching, and wherein the projection pattern is formed to have a shape of a triangle pyramid or square pyramid.
A method for cleaning a paved ground area, in particular a paved ground area soiled with chewing gum, by mechanically acting on the stain using at least one brush moved beneath a hood, and by supplying hot steam to the stain to be cleaned, characterized by the following steps: - introducing pressurized hot steam as a precursor for a cleaning liquid into a treatment chamber that is open toward the ground area and sealed laterally at the bottom; - providing a hot cleaning liquid bath, which is in contact with the ground area to be cleaned, within the treatment chamber for the duration of the cleaning process by condensing supplied hot steam in the treatment chamber and accumulating the condensate as a cleaning liquid up to a fill level not exceeding a maximum fill level; and - carrying out the mechanical brush processing step of the ground area in the hot cleaning liquid bath, while removing by suction the dirty liquid exiting or having exited the treatment chamber, wherein cleaning liquid containing dirt particles therein removed from the ground area exits the treatment chamber as dirty liquid through one or more overflow openings and/or, upon advancement of the cleaning machine, through a lateral bottom seal of the treatment chamber. - introducing pressurized hot steam as a precursor for a cleaning liquid into a treatment chamber that is open toward the ground area and sealed laterally at the bottom; - providing a hot cleaning liquid bath, which is in contact with the ground area to be cleaned, within the treatment chamber for the duration of the cleaning process by condensing supplied hot steam in the treatment chamber and accumulating the condensate as a cleaning liquid up to a fill level not exceeding a maximum fill level; and - carrying out the mechanical brush processing step of the ground area in the hot cleaning liquid bath, while removing by suction the dirty liquid exiting or having exited the treatment chamber, wherein cleaning liquid containing dirt particles therein removed from the ground area exits the treatment chamber as dirty liquid through one or more overflow openings and/or, upon advancement of the cleaning machine, through a lateral bottom seal of the treatment chamber.
A method of automatically managing temperature in a vehicle, the method comprising: - obtaining, by a temperature monitoring controller, a current oil temperature value from an oil temperature sensor; - determining, by the temperature monitoring controller, an interval time representing a time period after which an oil temperature is predicted to drop below a low temperature threshold, wherein the determination is based on at least a previous interval time, a previous oil temperature value, and the current oil temperature value; - in response to determining that the interval time is greater than a threshold interval time, waiting, by the temperature monitoring controller, for the interval time before obtaining a subsequent oil temperature value from the oil temperature sensor; and - in response to determining that the interval time is not greater than the threshold interval time, causing, by the temperature monitoring controller, an engine of the vehicle to be started. - obtaining, by a temperature monitoring controller, a current oil temperature value from an oil temperature sensor; - determining, by the temperature monitoring controller, an interval time representing a time period after which an oil temperature is predicted to drop below a low temperature threshold, wherein the determination is based on at least a previous interval time, a previous oil temperature value, and the current oil temperature value; - in response to determining that the interval time is greater than a threshold interval time, waiting, by the temperature monitoring controller, for the interval time before obtaining a subsequent oil temperature value from the oil temperature sensor; and - in response to determining that the interval time is not greater than the threshold interval time, causing, by the temperature monitoring controller, an engine of the vehicle to be started.