mhurhangee/ep-ind-claims huggingface dataset:
A free space optical communication system comprising: a plurality of optical beam expanders arranged to receive incoming optical signals from ground sites and neighboring satellites; a plurality of optical preamplifiers arranged to preamplify the received optical signals; a single optical main amplifier arranged to amplify the preamplified optical signals; and an optical crossbar switch arranged to direct respective amplified optical signals to respective destinations via a respective optical beam expander, wherein respective amplified optical signals are inputted to a respective optical beam expander arranged to transmit to said respective destinations outgoing optical signals. a plurality of optical beam expanders arranged to receive incoming optical signals from ground sites and neighboring satellites; a plurality of optical preamplifiers arranged to preamplify the received optical signals; a single optical main amplifier arranged to amplify the preamplified optical signals; and an optical crossbar switch arranged to direct respective amplified optical signals to respective destinations via a respective optical beam expander, wherein respective amplified optical signals are inputted to a respective optical beam expander arranged to transmit to said respective destinations outgoing optical signals.
Method for actuating an injector of a fuel injection system in an internal combustion engine, wherein the fuel injection system comprises a multiplicity of injectors, and wherein a quantity of fuel which is injected by means of an injector depends on the actuation period (ti; 50) of the injector, characterized in that an injector-specific correction value (dtv) for the actuation period (ti; 50) is determined for at least one injector as a function of a pressure (p_act) of the fuel to be injected and of a temperature of the fuel to be injected and is stored at a temperature-dependent and pressure-dependent characteristic diagram, and the actuation for this injector takes place in the partial stroke operating mode, taking into account the injector-specific correction value (dtv) which results from the temperature-dependent and pressure-dependent characteristic diagram, wherein the injector-specific correction value (dtv) is determined during the operation, at predetermined times and/or regularly and/or when predetermined conditions occur.
A motor assembly for a tape measure comprising: a motor body; a spring; and a backer plate; characterised by: a protrusion formed on one of the motor body and the backer plate; wherein a first end of the spring is connected to a hub received in the motor body; wherein a second end of the spring is received between the backer plate and the motor body adjacent to the protrusion; and wherein a protrusion weld is applied between motor body, the spring, and the backer plate at the protrusion to weld the spring, motor body, and backer plate together. a motor body; a spring; and a backer plate; characterised by: a protrusion formed on one of the motor body and the backer plate; wherein a first end of the spring is connected to a hub received in the motor body; wherein a second end of the spring is received between the backer plate and the motor body adjacent to the protrusion; and wherein a protrusion weld is applied between motor body, the spring, and the backer plate at the protrusion to weld the spring, motor body, and backer plate together. a protrusion formed on one of the motor body and the backer plate; wherein a first end of the spring is connected to a hub received in the motor body; wherein a second end of the spring is received between the backer plate and the motor body adjacent to the protrusion; and wherein a protrusion weld is applied between motor body, the spring, and the backer plate at the protrusion to weld the spring, motor body, and backer plate together.
A combined bone cutting guide and spreader device comprising first and second arms (51, 52) and a hinge connecting first ends of said first and second arms (51, 52) together, in which second ends of said first and second arms (51, 52) each comprise a bone attachment mechanism (69, 70), in which said first and second arms (51, 52) are moveable about said hinge between a guide position in which they are arranged parallel with one another and define a bone cutting guide slot therebetween, and such that said bone attachment mechanisms (69, 70) are adjacent to one another, and a spread position in which they are arranged at an angle to one another and said bone attachment mechanisms (69, 70) are spaced apart, wherein an angle positioning mechanism is mounted between said second ends (55, 56) of said first and second arms (51, 52), and is operable to move said first and second arms (51, 52) about said hinge between said guide position and said spread position, characterised in that said bone attachment mechanisms (69, 70) are located a first distance from said hinge and said angle positioning mechanism is located a second distance from said hinge which is greater than said first distance.
A delivery nozzle (100, 200, 300, 400, 500) for aerosol and solvent comprising: a substantially cylindrical nozzle body (102, 202, 302, 402, 502) defining an aerosol passage (104, 204, 304, 404, 504) and a solvent passage (106, 206, 306, 406, 506) therethrough, wherein the aerosol and solvent passages (104, 204, 304, 404, 504, 106, 206, 306, 406,506) each extend from an inlet end of the nozzle body to an outlet end at the opposite end of the nozzle body to the inlet end thereof, wherein the inlet end of the nozzle body includes a mounting flange configured to mount the nozzle body (102, 202, 302, 402, 502) in a device for delivering aerosol through the aerosol passage (104, 204, 304, 404, 504) and for delivering solvent through the solvent passage (106, 206, 306, 406, 506); wherein the aerosol passage is lined with a gold coating layer; and/or the delivery nozzle further comprises a capillary disposed within the solvent passage. a substantially cylindrical nozzle body (102, 202, 302, 402, 502) defining an aerosol passage (104, 204, 304, 404, 504) and a solvent passage (106, 206, 306, 406, 506) therethrough, wherein the aerosol and solvent passages (104, 204, 304, 404, 504, 106, 206, 306, 406,506) each extend from an inlet end of the nozzle body to an outlet end at the opposite end of the nozzle body to the inlet end thereof, wherein the inlet end of the nozzle body includes a mounting flange configured to mount the nozzle body (102, 202, 302, 402, 502) in a device for delivering aerosol through the aerosol passage (104, 204, 304, 404, 504) and for delivering solvent through the solvent passage (106, 206, 306, 406, 506); wherein the aerosol passage is lined with a gold coating layer; and/or the delivery nozzle further comprises a capillary disposed within the solvent passage.
Conveying device comprising an upstream conveying means for receiving products from at least one upstream station, an accumulation surface along which the upstream conveying means circulates, in which conveying device said upstream conveying means extends against said accumulation surface and takes the form of at least one endless belt conveyor, on the surface of which the products are placed, a loading means for moving the products from said upstream conveying means onto the accumulation surface, a downstream conveying means for removing the products, and an unloading means for moving the products from the accumulation surface onto the downstream conveying means, the accumulation surface being located between, on the one hand, the upstream conveying means and, on the other hand, the downstream conveying means, the upstream conveying means and the downstream conveying means thus driving the products in a conveying direction, said downstream conveying means being on the other side of the accumulation surface with respect to the upstream conveying means, characterized in that the loading means and the unloading means move the products transversely with respect to said conveying direction; the downstream conveying means comprises a plurality of independent movement means that receive the products in receiving zones successively distributed from the edge of the accumulation surface that is opposite the edge along which the upstream conveying means extends; and in that said device comprises, for at least one pair of successive receiving zones, a transfer surface that is mounted between them, the unloading means being able to dump products onto the at least one transfer surface. the loading means and the unloading means move the products transversely with respect to said conveying direction; the downstream conveying means comprises a plurality of independent movement means that receive the products in receiving zones successively distributed from the edge of the accumulation surface that is opposite the edge along which the upstream conveying means extends; and in that said device comprises, for at least one pair of successive receiving zones, a transfer surface that is mounted between them, the unloading means being able to dump products onto the at least one transfer surface.
Method for driving a polyphase machine having n phases which is connected to a DC voltage source and which has a DC link provided with a DC link capacitor, phase windings and, per phase a highside switch and a low-side switch, wherein control signals are applied to the switches assigned to the individual phases by a control unit, characterized in that the control unit, in order to reduce the DC link current, provides lock-type control signals for the switches assigned to the individual phases in such a way that trapezoidal or pulsed phase currents are predefined, that at least one phase current is connected at each point in time in each drive cycle, wherein the amplitude ratio of the predefined phase currents is chosen in terms of absolute value such that the following relationship holds true for the amplitude ratio of the predefined phase currents: A = n − x / n − y, wherein x + y = n, n = 3, 4, 5, 6, 7,... 0 < x < n 0 < y < n.
An electrolyte comprising: a non-aqueous solvent, which is a solvent mixture containing at least diethyl carbonate; a lithium salt; and a fluorine-containing ether compound represented by the following Formula, R 1 -O-R 2... in the formula, R 1 represents an alkyl group having 3 to 8 carbon atoms; R 2 represents an alkyl group having 1 carbon atom; at least 6 hydrogen atoms among hydrogen atoms bonded to the alkyl group represented by R 1 are substituted with fluorine atoms; and at least one hydrogen atom among hydrogen atoms bonded to the alkyl group represented by R 2 is substituted with a fluorine atom, and characterized in that the electrolyte further comprises a boron-based compound represented by the following Formula (B-1), in the formula, R 3 represents an alkyl group having 1 to 4 carbon atoms or an alkenyl group having 2 to 4 carbon atoms, and R 4 represents an alkyl group having 1 to 4 carbon atoms. a non-aqueous solvent, which is a solvent mixture containing at least diethyl carbonate; a lithium salt; and a fluorine-containing ether compound represented by the following Formula, R 1 -O-R 2... in the formula, R 1 represents an alkyl group having 3 to 8 carbon atoms; R 2 represents an alkyl group having 1 carbon atom; at least 6 hydrogen atoms among hydrogen atoms bonded to the alkyl group represented by R 1 are substituted with fluorine atoms; and at least one hydrogen atom among hydrogen atoms bonded to the alkyl group represented by R 2 is substituted with a fluorine atom, and characterized in that the electrolyte further comprises a boron-based compound represented by the following Formula (B-1), in the formula, R 3 represents an alkyl group having 1 to 4 carbon atoms or an alkenyl group having 2 to 4 carbon atoms, and R 4 represents an alkyl group having 1 to 4 carbon atoms.
A power semiconductor module comprising a support with electric contact surfaces, at least one power semiconductor component located on the support and at least two contact elements (1, 1', 1"), which each have a first and a second lug (5, 6), which are electrically connected to a contact surface of the at least one power semiconductor component or to a contact surface of the support, characterised in that the at least two contact elements have an elongated connecting portion at the ends of which the first and the second lug (5, 6) are provided, in that the elongated connecting portion with the first and second lugs (5, 6) is designed as a flat, bent metal piece, wherein the lugs (5, 6) of the at least two contact elements (1, 1', 1") are designed such that on one contact surface of the power semiconductor component or of the support the first lug of the one contact element (1; 1') is at least partially surrounded around the circumference by the second lug of the other contact element (1'; 1"), and in that the first and second lugs (5, 6) are shaped onto the elongated connecting portion so that they protrude to one side.
A gas spring safety apparatus comprising a carrier body with a gas gap (1.1) formed inside, where pressurized gas is stored by means of filling kit, - a shaft moved upwards and downwards in a linear manner within the gas gap (1.1) of said carrier body, - and seal rings, wire ring and neck bearing positioned between said carrier body and operating surfaces of the shaft characterized in that it comprises - at least one safety channel formed on inner surface (1.2) of the carrier body and/or outer surface (3.1) of neck bearing, - and a safety elevation formed such that top surface (3.2) of said neck bearing is positioned higher than top surface (1.3) of carrier body to provide exit of the pressurized gas from said safety channel and to affect via the top surface (3.2) of the neck bearing, thereby providing the downward movement of the neck bearing, - at least one sealing element, positioned next to said safety channels, seated into said channel as a result of a force being applied from the top onto the neck bearing, with the aim of preventing the pressurized gas within the carrier body from destroying the body due to the pressure, as a result of a more than necessary course-force being applied on said shaft and enabling the release of the gas inside the gas gap (1.1) to the outside. - a shaft moved upwards and downwards in a linear manner within the gas gap (1.1) of said carrier body, - and seal rings, wire ring and neck bearing positioned between said carrier body and operating surfaces of the shaft - at least one safety channel formed on inner surface (1.2) of the carrier body and/or outer surface (3.1) of neck bearing, - and a safety elevation formed such that top surface (3.2) of said neck bearing is positioned higher than top surface (1.3) of carrier body to provide exit of the pressurized gas from said safety channel and to affect via the top surface (3.2) of the neck bearing, thereby providing the downward movement of the neck bearing, - at least one sealing element, positioned next to said safety channels, seated into said channel as a result of a force being applied from the top onto the neck bearing, with the aim of preventing the pressurized gas within the carrier body from destroying the body due to the pressure, as a result of a more than necessary course-force being applied on said shaft and enabling the release of the gas inside the gas gap (1.1) to the outside. - at least one sealing element, positioned next to said safety channels, seated into said channel as a result of a force being applied from the top onto the neck bearing,
A joint connector (C; 60), comprising: a connector housing formed with a plurality of cavities capable of at least partly accommodating mating terminals, at least one joint terminal in which a plurality of terminal portions project at specified intervals from a strip-like base portion, wherein: terminal-portion insertion openings communicating with the cavities are formed in a part of the connector housing substantially corresponding to the cavities, the joint terminal is to be mounted into the connector housing in a mounting direction with the terminal portions in the lead, characterized in that the strip-like base portion is formed with one or more engaging holes located between the terminal portions, and one or more engaging projections (19A; 61 A) engageable with the one or more respective engaging holes project from the connector housing. a connector housing formed with a plurality of cavities capable of at least partly accommodating mating terminals, at least one joint terminal in which a plurality of terminal portions project at specified intervals from a strip-like base portion, wherein: terminal-portion insertion openings communicating with the cavities are formed in a part of the connector housing substantially corresponding to the cavities, the joint terminal is to be mounted into the connector housing in a mounting direction with the terminal portions in the lead, characterized in that the strip-like base portion is formed with one or more engaging holes located between the terminal portions, and one or more engaging projections (19A; 61 A) engageable with the one or more respective engaging holes project from the connector housing. terminal-portion insertion openings communicating with the cavities are formed in a part of the connector housing substantially corresponding to the cavities, the joint terminal is to be mounted into the connector housing in a mounting direction with the terminal portions in the lead, characterized in that the strip-like base portion is formed with one or more engaging holes located between the terminal portions, and one or more engaging projections (19A; 61 A) engageable with the one or more respective engaging holes project from the connector housing.
An automated immersion cooking method using at least one bag for cooking food comprising more than one individual sections, wherein the method comprises the steps to: - insert a plurality of food components in the more than one individual sections of the at least one bag in a sequence according to predetermined cooking instructions, the food components requiring longer cooking time being placed in lower individual sections of the bag; - immerse non-immersed sections of the at least one bag in liquid at a predetermined time according to the predetermined cooking instructions, wherein the temperature of the liquid is maintained at a temperature for cooking food and wherein the lower individual sections of the bag are immersed at first during the cooking process; - leave the immersed sections of the at least one bag in the liquid for a specific duration according to the predetermined cooking instructions associated to the at least one bag; - retract the immersed sections of the at least one bag from the liquid at a predetermined time according to the predetermined cooking instructions. - insert a plurality of food components in the more than one individual sections of the at least one bag in a sequence according to predetermined cooking instructions, the food components requiring longer cooking time being placed in lower individual sections of the bag; - immerse non-immersed sections of the at least one bag in liquid at a predetermined time according to the predetermined cooking instructions, wherein the temperature of the liquid is maintained at a temperature for cooking food and wherein the lower individual sections of the bag are immersed at first during the cooking process; - leave the immersed sections of the at least one bag in the liquid for a specific duration according to the predetermined cooking instructions associated to the at least one bag; - retract the immersed sections of the at least one bag from the liquid at a predetermined time according to the predetermined cooking instructions.
A die, comprising: one or more fins; a first gate formed over a first portion of the one or more fins; a first source/drain contact formed over a second portion of the one or more fins, wherein the first source/drain contact includes an extended portion that does not overlap the one or more fins; a second source/drain contact formed over a third portion of the one or more fins; a second gate formed over a fourth portion of the one or more fins, wherein the second source/drain contact is between the first gate and the second gate; a third source/drain contact formed over a fifth portion of the one or more fins, wherein the third source/drain contact includes an extended portion that does not overlap the one or more fins; first and second metal lines (235, 236) formed from a first metal layer, wherein the first and second metal lines are spaced apart; a first via connecting the first source/drain contact to the first metal line; a second via connecting the first source/drain contact to the second metal line, wherein the second via lies within the extended portion of the first source/drain contact; a third via connecting the third source/drain contact to the first metal line; and a fourth via connecting the third source/drain contact to the second metal line, wherein the fourth via lies within the extended portion of the third source/drain contact. one or more fins; a first gate formed over a first portion of the one or more fins; a first source/drain contact formed over a second portion of the one or more fins, wherein the first source/drain contact includes an extended portion that does not overlap the one or more fins; a second source/drain contact formed over a third portion of the one or more fins; a second gate formed over a fourth portion of the one or more fins, wherein the second source/drain contact is between the first gate and the second gate; a third source/drain contact formed over a fifth portion of the one or more fins, wherein the third source/drain contact includes an extended portion that does not overlap the one or more fins; first and second metal lines (235, 236) formed from a first metal layer, wherein the first and second metal lines are spaced apart; a first via connecting the first source/drain contact to the first metal line; a second via connecting the first source/drain contact to the second metal line, wherein the second via lies within the extended portion of the first source/drain contact; a third via connecting the third source/drain contact to the first metal line; and a fourth via connecting the third source/drain contact to the second metal line, wherein the fourth via lies within the extended portion of the third source/drain contact.