mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid ejecting module comprising: an element arranged face on which a plurality of ejecting elements are arranged, each of the ejecting elements including a pressure chamber in which liquid is contained, an energy generating element for applying energy to liquid in the pressure chamber , and an ejection port for ejecting liquid to which energy is applied by the energy generating element ; a circulation flow path including a supply flow path which supplies liquid to the pressure chamber and a collection flow path which collects liquid from the pressure chamber ; and a liquid delivery mechanism provided in the circulation flow path for circulating liquid in the pressure chamber , characterized in that in the liquid ejecting module , the liquid is ejected from the ejection port from a lower side to an upper side, and the liquid delivery mechanism is disposed lower than the element arranged face. an element arranged face on which a plurality of ejecting elements are arranged, each of the ejecting elements including a pressure chamber in which liquid is contained, an energy generating element for applying energy to liquid in the pressure chamber , and an ejection port for ejecting liquid to which energy is applied by the energy generating element ; a pressure chamber in which liquid is contained, an energy generating element for applying energy to liquid in the pressure chamber , and an ejection port for ejecting liquid to which energy is applied by the energy generating element ; a circulation flow path including a supply flow path which supplies liquid to the pressure chamber and a collection flow path which collects liquid from the pressure chamber ; and a liquid delivery mechanism provided in the circulation flow path for circulating liquid in the pressure chamber , in the liquid ejecting module , the liquid is ejected from the ejection port from a lower side to an upper side, and the liquid delivery mechanism is disposed lower than the element arranged face.
Method for operating a machine tool and/or production machine , having a spindle and a tool for processing a workpiece , wherein the tool , when the spindle rotates and the feed rate of the tool is below a defined feed rate, is moved to a retracted position (R) such that the tool no longer touches the workpiece .
A method of operating a mobile payment application in a mobile device , comprising: executing the mobile payment application in a user domain of the mobile device , the user domain comprising an operating environment in which mobile applications are executed and accessed by a user of the mobile device ; importing a plurality of encryption keys for use with the mobile payment application from the user domain into a keystore in a system domain of the mobile device , the system domain comprising a secure operating environment controlled by an operating system of the mobile device and not accessible by the user of the mobile device ; the mobile payment application making an application programming interface (API) call from the user domain to the system domain for performing a cryptographic operation comprising a cryptographic function using an alias of the keystore and data to be processed, the data to be processed being payment information; encrypting payment information of the mobile payment application in the system domain using one or more of the imported encryption keys while executing the mobile payment application in the user domain ; and transferring the encrypted payment information from the system domain directly to the merchant without transferring the encrypted payment information through the user domain . executing the mobile payment application in a user domain of the mobile device , the user domain comprising an operating environment in which mobile applications are executed and accessed by a user of the mobile device ; importing a plurality of encryption keys for use with the mobile payment application from the user domain into a keystore in a system domain of the mobile device , the system domain comprising a secure operating environment controlled by an operating system of the mobile device and not accessible by the user of the mobile device ; the mobile payment application making an application programming interface (API) call from the user domain to the system domain for performing a cryptographic operation comprising a cryptographic function using an alias of the keystore and data to be processed, the data to be processed being payment information; encrypting payment information of the mobile payment application in the system domain using one or more of the imported encryption keys while executing the mobile payment application in the user domain ; and transferring the encrypted payment information from the system domain directly to the merchant without transferring the encrypted payment information through the user domain .
A power equipment protection system comprising: a plurality of trip units comprising at least a first trip unit and a second trip unit , each of said plurality of trip units configured to monitor operation data relating to a respective circuit breaker ; and a shared memory device communicatively coupled to said plurality of trip units via a network , said shared memory device configured to: transmit a synchronization request to at least said second trip unit ; receive a response from said second trip unit , the response including operation data associated with a circuit breaker that is communicatively coupled to said second trip unit ; characterized in receive a data request from said first trip unit ; and transmit the operation data associated with said second trip unit to said first trip unit via said network , wherein said first trip unit is configured to execute at least one function using the operation data associated with said second trip unit . a plurality of trip units comprising at least a first trip unit and a second trip unit , each of said plurality of trip units configured to monitor operation data relating to a respective circuit breaker ; and a shared memory device communicatively coupled to said plurality of trip units via a network , said shared memory device configured to: transmit a synchronization request to at least said second trip unit ; receive a response from said second trip unit , the response including operation data associated with a circuit breaker that is communicatively coupled to said second trip unit ; characterized in receive a data request from said first trip unit ; and transmit the operation data associated with said second trip unit to said first trip unit via said network , wherein said first trip unit is configured to execute at least one function using the operation data associated with said second trip unit . transmit a synchronization request to at least said second trip unit ; receive a response from said second trip unit , the response including operation data associated with a circuit breaker that is communicatively coupled to said second trip unit ; characterized in receive a data request from said first trip unit ; and transmit the operation data associated with said second trip unit to said first trip unit via said network , wherein said first trip unit is configured to execute at least one function using the operation data associated with said second trip unit .
A pattern forming device for quartz surface comprising: a transfer part for transferring a semi-finished product of quartz surface; a pattern forming part for forming a pattern on the semi-finished product of quartz surface conveyed by the transfer part ; an additional pattern forming part for further forming at least one pattern on the semi-finished product of quartz surface in which the pattern is formed in the pattern forming part ; a color forming part for forming a color in the pattern of the semi-finished product of quartz surface formed in the pattern forming part and the additional pattern forming part , characterised in that , the pattern forming part , the additional pattern forming part and the color forming part are sequentially positioned on the transfer part ; wherein the pattern forming part comprises: a roller in which a disc shape or a spring shape with at least one curve is embossed; a motor for adjusting a speed of the roller ; a first up-down adjustment unit for adjusting a height of the roller ; and a first sensor for sensing a pattern formation position on a surface of the quartz surface. a transfer part for transferring a semi-finished product of quartz surface; a pattern forming part for forming a pattern on the semi-finished product of quartz surface conveyed by the transfer part ; a roller in which a disc shape or a spring shape with at least one curve is embossed; a motor for adjusting a speed of the roller ; a first up-down adjustment unit for adjusting a height of the roller ; and a first sensor for sensing a pattern formation position on a surface of the quartz surface.
A drive-force transmitting apparatus that is to be installed in a vehicle including a drive force source and drive wheels , said drive-force transmitting apparatus comprising: a casing ; a drive-force transmitting mechanism which is disposed in said casing and which is configured to transmit a drive force from the drive force source and to the drive wheels ; and first and second oil pumps (P1, P2) which are disposed in said casing and which are configured to suck, through respective inlet ports thereof, oil stored in a bottom portion of said casing , such that said drive-force transmitting mechanism is lubricated by the oil pumped up by said first and second oil pumps (P1, P2), wherein said casing is provided with a drain hole through which the oil stored in said bottom portion of said casing is to be discharged to an exterior of said casing , and characterized in that a position (Lp1) of opening of said inlet port of said first oil pump (P1) is lower than a position (Ld) of a lower end of said drain hole , and a position (Lp2) of opening of said inlet port of said second oil pump (P2) is higher than the position (Ld) of the lower end of said drain hole , in an apparatus installed state in which said drive-force transmitting apparatus is installed in the vehicle . a casing ; a drive-force transmitting mechanism which is disposed in said casing and which is configured to transmit a drive force from the drive force source and to the drive wheels ; and first and second oil pumps (P1, P2) which are disposed in said casing and which are configured to suck, through respective inlet ports thereof, oil stored in a bottom portion of said casing , such that said drive-force transmitting mechanism is lubricated by the oil pumped up by said first and second oil pumps (P1, P2), wherein said casing is provided with a drain hole through which the oil stored in said bottom portion of said casing is to be discharged to an exterior of said casing , and characterized in that a position (Lp1) of opening of said inlet port of said first oil pump (P1) is lower than a position (Ld) of a lower end of said drain hole , and a position (Lp2) of opening of said inlet port of said second oil pump (P2) is higher than the position (Ld) of the lower end of said drain hole , in an apparatus installed state in which said drive-force transmitting apparatus is installed in the vehicle .
A moisture-curable hot melt urethane composition comprising: a hot melt urethane prepolymer (A) having an isocyanate group; and a foaming agent composition (B) containing N,N'-dinitrosopentamethylenetetramine (b1), urea (b2) and a polyol (b3), wherein the foaming agent composition (B) further contains boric acid (b4). a hot melt urethane prepolymer (A) having an isocyanate group; and a foaming agent composition (B) containing N,N'-dinitrosopentamethylenetetramine (b1), urea (b2) and a polyol (b3), wherein the foaming agent composition (B) further contains boric acid (b4).
A method comprising: depositing a quantum dot solution onto a first substrate ; providing one or more electrical components on a second substrate , wherein the second substrate is a silicon substrate, solidifying the quantum dot solution on the first substrate to form a solid layer of quantum dots ; arranging the first substrate overlaying the second substrate so that an electrical connection is established between the solid layer of quantum dots and the one or more electrical components on the second substrate , and leaving the first substrate overlaying the second substrate , wherein the first substrate forms an encapsulation layer configured to protect the solid layer of quantum dots and the one or more electrical components. depositing a quantum dot solution onto a first substrate ; providing one or more electrical components on a second substrate , wherein the second substrate is a silicon substrate, solidifying the quantum dot solution on the first substrate to form a solid layer of quantum dots ; arranging the first substrate overlaying the second substrate so that an electrical connection is established between the solid layer of quantum dots and the one or more electrical components on the second substrate , and leaving the first substrate overlaying the second substrate , wherein the first substrate forms an encapsulation layer configured to protect the solid layer of quantum dots and the one or more electrical components.
Syringe with a retractable needle comprising a barrel having a nozzle integrated in a female Luer adapter element; a piston slidably arranged in the barrel and coupled to a sealing element , said sealing element having a central channel ; a needle assembly comprising a needle , a needle holder and a female Luer adapter element ; a spring assembly arranged in the piston comprising a spring sleeve , a spring mounted on the spring sleeve , a spring tensioning element located on the spring sleeve and held in position by the piston wall, and a plunger mounted within the spring sleeve ; and a piston cap ; said piston being coupled to the sealing element by means of the spring tensioning element ; said spring sleeve being held in position within the piston by a ring element protruding from the inner wall of the piston and supporting the proximal end of the spring sleeve , the spring sleeve extending into the channel of the sealing element to the distal end thereof; said spring sleeve comprising at its distal end a circular protrusion on the inside designed to engage a circular recess at the proximal end of the needle holder ; wherein upon exertion of pressure to the piston in its advanced position results in the engagement of the spring sleeve and the needle holder and the release of the spring sleeve thus actuating the spring and retracting the needle holder and the needle , the piston comprising a holding ring on its inner surface in the proximal part of the piston , characterized in that the holding ring is designed to engage with an outer flange of the spring sleeve where, after actuation of the spring the retraction mechanism stays locked, the spring is a compression spring comprising at least one closed ring element at the ends where spring windings form parallel double rings that runs perpendicular to the centerline of the spring , the spring sleeve comprises an outer flange supporting the proximal end of the spring and comprises a widened section adjacent to the outer flange for accommodating the proximal end of the spring .
Process for the non-oxidative preparation of dimethoxymethane from methanol in the presence of a heterogeneous catalyst, by contacting gaseous methanol with the catalyst, characterized in that the catalyst is a bifunctional catalyst comprising: a) molybdenum sulfide, or b) - a metal or a metal compound selected from the group encompassing copper, silver, platinum and/or molybdenum sulfide, and - an aluminosilicate, preferably a zeolite, or a metal oxide selected from the group encompassing titanium oxide, zirconium oxide and/or aluminium oxide. a) molybdenum sulfide, or b) - a metal or a metal compound selected from the group encompassing copper, silver, platinum and/or molybdenum sulfide, and - an aluminosilicate, preferably a zeolite, or a metal oxide selected from the group encompassing titanium oxide, zirconium oxide and/or aluminium oxide. - a metal or a metal compound selected from the group encompassing copper, silver, platinum and/or molybdenum sulfide, and - an aluminosilicate, preferably a zeolite, or a metal oxide selected from the group encompassing titanium oxide, zirconium oxide and/or aluminium oxide.
A combined power generation system comprising: a gas turbine combusting fuel to generate rotational force; a heat recovery steam generator, HRSG, configured to heat feedwater using combustion gases discharged from the gas turbine and having a high-pressure section (BP3), a medium-pressure section (BP2), and a low-pressure section (BP1) having different pressure levels; an ammonia decomposer configured for decomposing ammonia with the combustion gases discharged from the gas turbine ; a first exhaust gas line through which the exhaust gases discharged from the gas turbine are transferred to the HRSG ; a second exhaust gas line through which the exhaust gases discharged from the gas turbine are transferred to the ammonia decomposer ; a decomposed gas transfer tube connecting the ammonia decomposer and a combustor of the gas turbine to transfer decomposed gases generated with decomposition of ammonia to the combustor ; characterized in that the system further comprises a third exhaust gas line through which the exhaust gases discharged from the ammonia decomposer are transferred to the HRSG . a gas turbine combusting fuel to generate rotational force; a heat recovery steam generator, HRSG, configured to heat feedwater using combustion gases discharged from the gas turbine and having a high-pressure section (BP3), a medium-pressure section (BP2), and a low-pressure section (BP1) having different pressure levels; an ammonia decomposer configured for decomposing ammonia with the combustion gases discharged from the gas turbine ; a first exhaust gas line through which the exhaust gases discharged from the gas turbine are transferred to the HRSG ; a second exhaust gas line through which the exhaust gases discharged from the gas turbine are transferred to the ammonia decomposer ; a decomposed gas transfer tube connecting the ammonia decomposer and a combustor of the gas turbine to transfer decomposed gases generated with decomposition of ammonia to the combustor ; characterized in that the system further comprises a third exhaust gas line through which the exhaust gases discharged from the ammonia decomposer are transferred to the HRSG .
Method for depicting a marker which is applied to an examination object in an imaging system , comprising the following steps: - ascertaining the position of the marker by means of a first measuring method; - providing an image of the examination object on the basis of a second measuring method; - ascertaining the position of a graphical object , which represents the marker in the image , on the basis of the first measuring method; characterised in that the method further comprises the following step: - depicting the graphical object at the ascertained position in the image , wherein the graphical object is not contained in the image of the examination object on the basis of the second measuring method and wherein measured data from the second measuring method comprises no data of the marker , although the marker is situated in the field of view of the second measuring method. - ascertaining the position of the marker by means of a first measuring method; - providing an image of the examination object on the basis of a second measuring method; - ascertaining the position of a graphical object , which represents the marker in the image , on the basis of the first measuring method; - depicting the graphical object at the ascertained position in the image , wherein the graphical object is not contained in the image of the examination object on the basis of the second measuring method and wherein measured data from the second measuring method comprises no data of the marker , although the marker is situated in the field of view of the second measuring method.
A method of synthesizing a molecular sieve of *MRE framework type, the method comprising: (a) providing a reaction mixture comprising: a zeolite of FAU framework type; a source of a Group 1 or Group 2 metal (M); a source of hydroxide ions; a structure directing agent (Q) comprising hexamethonium cations; water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to convert the zeolite of FAU framework type to a molecular sieve of *MRE framework type; wherein the reaction mixture has a composition, in terms of molar ratios, as follows: SiO 2 /Al 2 O 3 60 to 80 M/SiO 2 0.05 to 0.20 Q/SiO 2 0.01 to 0.10 OH/SiO 2 0.12 to 0.20 H 2 O/SiO 2 15 to 40. (a) providing a reaction mixture comprising: a zeolite of FAU framework type; a source of a Group 1 or Group 2 metal (M); a source of hydroxide ions; a structure directing agent (Q) comprising hexamethonium cations; water; and a zeolite of FAU framework type; a source of a Group 1 or Group 2 metal (M); a source of hydroxide ions; a structure directing agent (Q) comprising hexamethonium cations; water; and (b) subjecting the reaction mixture to crystallization conditions sufficient to convert the zeolite of FAU framework type to a molecular sieve of *MRE framework type; wherein the reaction mixture has a composition, in terms of molar ratios, as follows: SiO 2 /Al 2 O 3 60 to 80 M/SiO 2 0.05 to 0.20 Q/SiO 2 0.01 to 0.10 OH/SiO 2 0.12 to 0.20 H 2 O/SiO 2 15 to 40.
Adjusting device for a rear axle steering system of a chassis of a motor vehicle, comprising an actuator with a housing and a spindle drive which has an axially displaceable spindle , with a vehicle-side fastening bearing and a chassis-side connecting member , characterized in that the spindle is extended in the axial direction (a) by an extension piece , and which extension piece is supported on the chassis by means of a guide element outside the housing of the actuator, in order to absorb forces and torques which can lead to buckling of the extension piece , the connecting member being fastened to the outer end of the extension piece .
Spar cap (40.1, 40.2) for a wind turbine blade of a wind turbine , the spar cap (40.1, 40.2) comprising at least one elongated beam (41.1, 41.2), the spar cap (40.1, 40.2) comprising at least one electrically isolating material cover and at least one electrically conductive material cover , wherein an entire circumference of the beam (41.1, 41.2) is enclosed by at least one electrically isolating material cover and the entire circumference of the at least one electrically isolating material cover is enclosed by at least one electrically conductive material cover , whereby the electrically conductive material cover has at least one electrical interface for electrically connecting it to a down conductor of the wind turbine blade .