mhurhangee/patent-ind-claim-en huggingface dataset:
Device comprising - a machine tool for machining gear-workpieces with a tool, the machine tool comprising several numerically controlled drives, - a machine control which is designed to control the drives, - a computer , which computer is in communication connection with the machine tool or which computer can be brought in communication connection with the machine tool , - at least one microphone , which microphone is in communication connection with the computer (10 or which microphone can be brought in communication connection with the computer , - a speech recognition software (SW), which is executable on the computer , and which is designed to convert an analog voice input (Sp) into a digital voice input (SpD), which analog voice input (Sp) takes place by means of the at least one microphone , - wherein the device has a memory for storing the digital voice input (SpD), characterized in that - the speech recognition software (SW) is designed to treat the digital voice inputs (SpD) that are made during maintenance of the machine tool and that are made and during an operation of the machine tool differently. - a machine tool for machining gear-workpieces with a tool, the machine tool comprising several numerically controlled drives, - a machine control which is designed to control the drives, - a computer , which computer is in communication connection with the machine tool or which computer can be brought in communication connection with the machine tool , - at least one microphone , which microphone is in communication connection with the computer (10 or which microphone can be brought in communication connection with the computer , - a speech recognition software (SW), which is executable on the computer , and which is designed to convert an analog voice input (Sp) into a digital voice input (SpD), which analog voice input (Sp) takes place by means of the at least one microphone , - wherein the device has a memory for storing the digital voice input (SpD), characterized in that - the speech recognition software (SW) is designed to treat the digital voice inputs (SpD) that are made during maintenance of the machine tool and that are made and during an operation of the machine tool differently.
A semiconductor device, comprising: an element isolation structure having a first sidewall and a second sidewall extending in a first direction, the first sidewall being opposite to the second sidewall of in a second direction; a first fin-shaped pattern in contact with the first sidewall of the element isolation structure, the first fin-shaped pattern extending in the second direction; a second fin-shaped pattern in contact with the second sidewall of the element isolation structure, the second fin-shaped pattern extending in the second direction and being spaced from the first fin-shaped pattern in the first direction; a first gate electrode extending in the first direction on the first fin-shaped pattern; a first source/drain contact on the first fin-shaped pattern and the second fin-shaped pattern, the first source/drain contact extending in the first direction between the first gate electrode and the element isolation structure; and a wiring structure connected to the first source/drain contact on the first source/drain contact, wherein the first source/drain contact includes a first lower contact region intersecting the first fin-shaped pattern and the second fin-shaped pattern, a first upper contact region protruding from the first lower contact region, and a first dummy contact region, the wiring structure being in contact with an upper surface of the first upper contact region and not being in contact with an upper surface of the first dummy contact region. an element isolation structure having a first sidewall and a second sidewall extending in a first direction, the first sidewall being opposite to the second sidewall of in a second direction; a first fin-shaped pattern in contact with the first sidewall of the element isolation structure, the first fin-shaped pattern extending in the second direction; a second fin-shaped pattern in contact with the second sidewall of the element isolation structure, the second fin-shaped pattern extending in the second direction and being spaced from the first fin-shaped pattern in the first direction; a first gate electrode extending in the first direction on the first fin-shaped pattern; a first source/drain contact on the first fin-shaped pattern and the second fin-shaped pattern, the first source/drain contact extending in the first direction between the first gate electrode and the element isolation structure; and a wiring structure connected to the first source/drain contact on the first source/drain contact, wherein the first source/drain contact includes a first lower contact region intersecting the first fin-shaped pattern and the second fin-shaped pattern, a first upper contact region protruding from the first lower contact region, and a first dummy contact region, the wiring structure being in contact with an upper surface of the first upper contact region and not being in contact with an upper surface of the first dummy contact region.
Method for checking the accuracy of the focus positioning of a laser device configured for emitting pulsed focused laser radiation, with the focus position thereof being adjustable both in the propagation direction of the laser radiation and also transversely to said propagation direction, wherein the laser device has a contact element which is transparent to the laser radiation and has a placement surface for placement of an object to be processed, wherein the method comprises the steps of: - placing a test object that is transparent to the laser radiation at least in one processing region against the placement surface, - radiating the laser radiation into the test object lying against the placement surface and, in the process, moving the focus position in accordance with a specified test pattern to produce permanent processing structures in the test object, characterized in that the processing structures comprise at least one first colouration structure that contrasts visually with surrounding material regions of the test object and that rises in the test object along a structure extent direction, which extends transversely, in particular rectilinearly at an angle, to the propagation direction of the laser radiation, up to an outer surface of the test object facing the placement surface , in that the processing structures furthermore comprise a second colouration structure that contrasts visually with surrounding material regions of the test object and forms one or more reference markings for marking a target penetration region of the first colouration structure through the outer surface of the test object , and in that a check is performed as to whether the first colouration structure penetrates the outer surface of the test object inside or outside of the target penetration region . - placing a test object that is transparent to the laser radiation at least in one processing region against the placement surface, - radiating the laser radiation into the test object lying against the placement surface and, in the process, moving the focus position in accordance with a specified test pattern to produce permanent processing structures in the test object, characterized in that the processing structures comprise at least one first colouration structure that contrasts visually with surrounding material regions of the test object and that rises in the test object along a structure extent direction, which extends transversely, in particular rectilinearly at an angle, to the propagation direction of the laser radiation, up to an outer surface of the test object facing the placement surface , in that the processing structures furthermore comprise a second colouration structure that contrasts visually with surrounding material regions of the test object and forms one or more reference markings for marking a target penetration region of the first colouration structure through the outer surface of the test object , and in that a check is performed as to whether the first colouration structure penetrates the outer surface of the test object inside or outside of the target penetration region .
Process for preparing a solid electrolyte or a composite electrode incorporating a solid electrolyte, intended for an electrochemical system, in particular with a rechargeable battery, comprising at least the following steps: (i) synthesis, in a solvent medium, of at least one (co)polymer by ring-opening (co)polymerization (ROP) of at least one five- to eight-membered cyclic carbonate and, optionally, of at least one five- to eight-membered lactone, said (co)polymerization reaction being catalysed by at least one Brønsted superacid capable of forming, after neutralization in step (ii) of the process of the invention, an ion-conducting alkali metal or alkaline earth metal salt; (ii) addition to the reaction medium obtained in step (i) of a sufficient amount of an alkali metal or alkaline earth metal hydride, in particular lithium hydride (LiH), in order to neutralize all of said catalyst and obtain an alkali metal or alkaline earth metal salt, and in order to protect said terminal hydroxyl group(s) of said synthesized (co)polymer(s); (iii) addition or not to the mixture obtained in step (ii) of at least one salt of said alkali metal or alkaline earth metal, in particular a lithium salt; and (iv) formation of a solid electrolyte by evaporation of the solvent medium or a composite electrode incorporating said solid electrolyte. (i) synthesis, in a solvent medium, of at least one (co)polymer by ring-opening (co)polymerization (ROP) of at least one five- to eight-membered cyclic carbonate and, optionally, of at least one five- to eight-membered lactone, said (co)polymerization reaction being catalysed by at least one Brønsted superacid capable of forming, after neutralization in step (ii) of the process of the invention, an ion-conducting alkali metal or alkaline earth metal salt; (ii) addition to the reaction medium obtained in step (i) of a sufficient amount of an alkali metal or alkaline earth metal hydride, in particular lithium hydride (LiH), in order to neutralize all of said catalyst and obtain an alkali metal or alkaline earth metal salt, and in order to protect said terminal hydroxyl group(s) of said synthesized (co)polymer(s); (iii) addition or not to the mixture obtained in step (ii) of at least one salt of said alkali metal or alkaline earth metal, in particular a lithium salt; and (iv) formation of a solid electrolyte by evaporation of the solvent medium or a composite electrode incorporating said solid electrolyte.
A method for coating an aluminum alloy heat exchanger, comprising: subjecting at least one surface of the heat exchanger to a pre-treatment process including cleaning; then conversion coating the at least one surface of the heat exchanger with a trivalent chromium compound; then subjecting the at least one conversion coated surface to an electro-coating in an aqueous solution containing an organic corrosion inhibitor, wherein the aqueous solution is de-ionized water containing resin and the organic corrosion inhibitor; and then subjecting the at least one surface to a surface coating including application of a solvent borne solution containing a liquid polyurethane coating having pigments and a corrosion inhibitor. subjecting at least one surface of the heat exchanger to a pre-treatment process including cleaning; then conversion coating the at least one surface of the heat exchanger with a trivalent chromium compound; then subjecting the at least one conversion coated surface to an electro-coating in an aqueous solution containing an organic corrosion inhibitor, wherein the aqueous solution is de-ionized water containing resin and the organic corrosion inhibitor; and then subjecting the at least one surface to a surface coating including application of a solvent borne solution containing a liquid polyurethane coating having pigments and a corrosion inhibitor.
A method of joining a metal component to a metallized portion of a ceramic component , the method comprising: providing the metallized portion of the ceramic component, wherein the metallized portion of the ceramic component comprises a metallization layer comprising titanium, tantalum, vanadium, tungsten, molybdenum or combinations thereof, disposing a metallic barrier layer on a metallized portion of a ceramic component , wherein the metallic barrier layer comprises nickel and a melting point depressant; and joining a metal component to the metallized portion of the ceramic component through the metallic barrier layer , characterized in that disposing the metallic barrier layer comprises disposing a metallic layer by a screen printing process and sintering the metallic layer at a temperature below 1000 degrees Celsius so as to dispose a metallic barrier layer of a thickness from 1 micron to 10 microns and a porosity less than 10 percent by volume after sintering. providing the metallized portion of the ceramic component, wherein the metallized portion of the ceramic component comprises a metallization layer comprising titanium, tantalum, vanadium, tungsten, molybdenum or combinations thereof, disposing a metallic barrier layer on a metallized portion of a ceramic component , wherein the metallic barrier layer comprises nickel and a melting point depressant; and joining a metal component to the metallized portion of the ceramic component through the metallic barrier layer , characterized in that disposing the metallic barrier layer comprises disposing a metallic layer by a screen printing process and sintering the metallic layer at a temperature below 1000 degrees Celsius so as to dispose a metallic barrier layer of a thickness from 1 micron to 10 microns and a porosity less than 10 percent by volume after sintering.
An aircraft hydraulic thermal management system , comprising: a hydraulic system including a hydraulic reservoir and a hydraulic pump , the hydraulic pump having a case drain flow of hydraulic fluid at a first temperature T1, the hydraulic system further including a return of the hydraulic fluid to the reservoir at a second temperature T2; a fuel system including a fuel tank and a fuel pump , the fuel pump configured to circulate fuel from the fuel tank and back to the fuel tank ; and a heat exchanger having first and second channels configured to receive the hydraulic fluid and the fuel, respectively, and to transfer heat from the hydraulic fluid to the fuel, the heat exchanger being positioned remotely of the fuel tank ; wherein the thermal management system is configured to assure that a) the hydraulic pump circulates the hydraulic fluid to the reservoir at the second temperature T2, and b) the second temperature T2 is always lower than the first temperature T1; wherein the hydraulic system further comprises a hydraulic motor and a hydraulic bypass valve , wherein the hydraulic pump draws the hydraulic fluid from the reservoir , wherein the case drain flow drives the hydraulic motor ; and wherein the hydraulic bypass valve is disposed between the hydraulic pump and the hydraulic motor , and is configured to channel the case drain flow to the reservoir in a first operational mode, and to channel the case drain flow to the hydraulic motor in a second operational mode. a hydraulic system including a hydraulic reservoir and a hydraulic pump , the hydraulic pump having a case drain flow of hydraulic fluid at a first temperature T1, the hydraulic system further including a return of the hydraulic fluid to the reservoir at a second temperature T2; a fuel system including a fuel tank and a fuel pump , the fuel pump configured to circulate fuel from the fuel tank and back to the fuel tank ; and a heat exchanger having first and second channels configured to receive the hydraulic fluid and the fuel, respectively, and to transfer heat from the hydraulic fluid to the fuel, the heat exchanger being positioned remotely of the fuel tank ; wherein the thermal management system is configured to assure that a) the hydraulic pump circulates the hydraulic fluid to the reservoir at the second temperature T2, and b) the second temperature T2 is always lower than the first temperature T1; wherein the hydraulic system further comprises a hydraulic motor and a hydraulic bypass valve , wherein the hydraulic pump draws the hydraulic fluid from the reservoir , wherein the case drain flow drives the hydraulic motor ; and wherein the hydraulic bypass valve is disposed between the hydraulic pump and the hydraulic motor , and is configured to channel the case drain flow to the reservoir in a first operational mode, and to channel the case drain flow to the hydraulic motor in a second operational mode.
A radiation detection module comprising: a cooling and mounting structure ; and a plurality of tiles , each tile comprising: an array of radiation detectors which are configured to generate signals in response to receiving radiation events and associated electronics; and a mount which is configured to mount the tile to and in thermal communication with the cooling and mounting structure , and which mount is configured to position a mounting face of the tile relative to the cooling and mounting structure ; and wherein the cooling and mounting structure defines a complementary mounting face to which the mounting face of the tile is mounted. a cooling and mounting structure ; and a plurality of tiles , each tile comprising: an array of radiation detectors which are configured to generate signals in response to receiving radiation events and associated electronics; and a mount which is configured to mount the tile to and in thermal communication with the cooling and mounting structure , and which mount is configured to position a mounting face of the tile relative to the cooling and mounting structure ; and an array of radiation detectors which are configured to generate signals in response to receiving radiation events and associated electronics; and a mount which is configured to mount the tile to and in thermal communication with the cooling and mounting structure , and which mount is configured to position a mounting face of the tile relative to the cooling and mounting structure ; and wherein the cooling and mounting structure defines a complementary mounting face to which the mounting face of the tile is mounted.
Rack support having at least one weighing device , which rack support is suitable for being secured in a vertically arranged rack rail and has an anchoring device and an extension arm for supporting a shelf , wherein, in the state in which the rack support is secured in a rack rail, the extension arm projects from the rack rail in a substantially horizontal direction and is formed, in particular, by a vertically arranged plate, wherein, in a Cartesian coordinate system, the extent of the extension arm in the horizontal plane defines a Y-direction, the vertical direction defines a Z-direction and the direction perpendicular to the Y-direction and the Z-direction defines an X-direction, wherein the at least one weighing device has a force-introducing section , a joint section and a force-absorbing section , and that the joint section consists of two weighing plates which run horizontally and parallel to one another, characterized in that the force-absorbing section and the force-introducing section consist at least partially of vertically running plates , and in that the width of the weighing plates in the X direction is narrowest in the region of the middle of the joint section and increases in the direction of the force-introducing section and the force-absorbing section , and in that the thickness of the upper weighing plate and the thickness of the lower weighing plate in the Z-direction is the same.
Push-resistant thrust chain activated with a chain drive, which has an inner part made up of toothed segment discs , an intermediate part made up of toothed segment discs and an outer part made up of chain tension anchors , wherein the intermediate part surrounds the inner part in a sandwich-like manner and the outer part surrounds the intermediate part in a sandwich-like manner, and wherein the toothed segment discs and the chain tension anchors have aligned pin receiving holes and are connected to one another by means of pins inserted through the pin receiving holes , and wherein the pins do not protrude beyond the outer surfaces of the chain tension anchors , wherein the shape and arrangement of the toothed segment discs is selected in such a way that two toothed segment discs lying next to each other in a plane form an end stop and thus an overstretch protection for the thrust chain when the thrust chain is stretched, characterized in that the shape and arrangement of the chain tension anchors is selected in such a way that two chain tension anchors lying next to each other in a plane form an end stop and thus an overstretch protection for the thrust chain when the thrust chain is stretched.
An air inhalation device for insertion within the nostrils, comprising: a pair of hollow frusto-conical tube members each having an air passageway: a pair of power driven fans; a pair of motors ; and a power source ; wherein each of said frusto-conical tube members has a forward end which tapers to form a rearward end, and is fitted with one of said power-driven fans for enhancing the inhalation and exhalation of air; wherein each of the frusto-conical tube members houses one of the fans; wherein each of the fans accommodates one of the said motors within the hub of each of the said fans; and wherein a connection member joins said pair of frusto-conical tube members. a pair of power driven fans; a pair of motors ; and a power source ; wherein each of said frusto-conical tube members has a forward end which tapers to form a rearward end, and is fitted with one of said power-driven fans for enhancing the inhalation and exhalation of air; wherein each of the frusto-conical tube members houses one of the fans; wherein each of the fans accommodates one of the said motors within the hub of each of the said fans; and wherein a connection member joins said pair of frusto-conical tube members.
A magnetic micro-particle comprising one or more magnetic nano-wires ; wherein the magnetic nano-wires are immobilised within the micro-particle ; and characterised in that the micro-particle is substantially an ellipsoid with an eccentricity between 0.3 and 1.0. the magnetic nano-wires are immobilised within the micro-particle ; and characterised in that the micro-particle is substantially an ellipsoid with an eccentricity between 0.3 and 1.0.
A battery module comprising: a battery cell stack in which a plurality of battery cells are stacked; first and second busbar frames formed respectively on front and rear surfaces of the battery cell stack; and a flexible printed circuit board connecting the first and second busbar frames , wherein the flexible printed circuit board includes a first flexible printed circuit board part and a second flexible printed circuit board part which are separated from each other, and the first flexible printed circuit board part and the second flexible printed circuit board part are connected to each other via a connector . a battery cell stack in which a plurality of battery cells are stacked; first and second busbar frames formed respectively on front and rear surfaces of the battery cell stack; and a flexible printed circuit board connecting the first and second busbar frames , wherein the flexible printed circuit board includes a first flexible printed circuit board part and a second flexible printed circuit board part which are separated from each other, and the first flexible printed circuit board part and the second flexible printed circuit board part are connected to each other via a connector .