mhurhangee/patent-ind-claim-en huggingface dataset:
A heat cycle facility comprising: a first vaporizer that vaporizes a first liquid heating medium by combusting gaseous ammonia to obtain a first gas heating medium; a first motive power generator that generates motive power by using as a drive fluid the first gas heating medium obtained at the first vaporizer; a condenser that condenses the first gas heating medium discharged from the first motive power generator by heat-exchanging the first gas heating medium for a second liquid heating medium to obtain the first liquid heating medium; a circulator that pressurizes the first liquid heating medium obtained at the condenser and supplies the pressurized first liquid heating medium to the first vaporizer; a second vaporizer that produces the gaseous ammonia by heat-exchanging the second liquid heating medium for liquid ammonia; and a supplier that supplies the liquid ammonia to the second vaporizer. a first vaporizer that vaporizes a first liquid heating medium by combusting gaseous ammonia to obtain a first gas heating medium; a first motive power generator that generates motive power by using as a drive fluid the first gas heating medium obtained at the first vaporizer; a condenser that condenses the first gas heating medium discharged from the first motive power generator by heat-exchanging the first gas heating medium for a second liquid heating medium to obtain the first liquid heating medium; a circulator that pressurizes the first liquid heating medium obtained at the condenser and supplies the pressurized first liquid heating medium to the first vaporizer; a second vaporizer that produces the gaseous ammonia by heat-exchanging the second liquid heating medium for liquid ammonia; and a supplier that supplies the liquid ammonia to the second vaporizer.
A welding machine of the flash welding type for welding a tail of a first longitudinal metal product to a head of a second longitudinal metal product along a feeding direction of said longitudinal metal products, the machine comprising a carriage adapted to slide along the feeding direction, said carriage supporting - a first structure fixed to said carriage ; - first clamping means , provided on said first structure , for clamping the tail of the first metal product or the head of the second metal product; - a second structure ; - second clamping means , provided on said second structure , for clamping the head of the second metal product or the tail of the first metal product; wherein first adjustment means are provided for moving the second structure close to, or away from the first structure along said feeding direction; characterised in that said second structure is connected to said first structure so as to slide, parallel to the feeding direction, with respect both to the first structure and the carriage ; and in that second adjustment means are provided for adjusting, along a plane transversal to said feeding direction, the position of the second structure with respect to the first structure by means of a lifting of the second structure , in order to align said tail and said head. - a first structure fixed to said carriage ; - first clamping means , provided on said first structure , for clamping the tail of the first metal product or the head of the second metal product; - a second structure ; - second clamping means , provided on said second structure , for clamping the head of the second metal product or the tail of the first metal product; wherein first adjustment means are provided for moving the second structure close to, or away from the first structure along said feeding direction; characterised in that said second structure is connected to said first structure so as to slide, parallel to the feeding direction, with respect both to the first structure and the carriage ; and in that second adjustment means are provided for adjusting, along a plane transversal to said feeding direction, the position of the second structure with respect to the first structure by means of a lifting of the second structure , in order to align said tail and said head.
An outer column with a bracket comprising: a tubular outer column ; and a column side bracket fixed to the outer column , wherein the outer column comprises slits configured to lower a rigidity of the outer column in a radial direction, wherein the slits are provided on both side portions in a width direction, which interpose a central portion in the width direction on a half portion of one side in an upper-lower direction, of the outer column in a state where the slits extend only in an axial direction respectively, and wherein the column side bracket comprises: a pair of side wall parts which fixed to positions, which interpose each of the slits therebetween from both sides in the width direction, of an outer peripheral surface of the outer column ; and a penetration hole provided on portions, which face each other in the width direction, of the two side wall parts characterized in that welding parts are provided to fix the two side wall parts to the outer peripheral surface of the outer column respectively in a state where the welding parts bridge between: portions, which is adjacent to an opposite side of the slits in the circumferential direction with respect to the two side wall parts , of the outer peripheral surface of the outer column ; and the two side wall parts . a tubular outer column ; and a column side bracket fixed to the outer column , wherein the outer column comprises slits configured to lower a rigidity of the outer column in a radial direction, wherein the slits are provided on both side portions in a width direction, which interpose a central portion in the width direction on a half portion of one side in an upper-lower direction, of the outer column in a state where the slits extend only in an axial direction respectively, and wherein the column side bracket comprises: a pair of side wall parts which fixed to positions, which interpose each of the slits therebetween from both sides in the width direction, of an outer peripheral surface of the outer column ; and a penetration hole provided on portions, which face each other in the width direction, of the two side wall parts characterized in that a pair of side wall parts which fixed to positions, which interpose each of the slits therebetween from both sides in the width direction, of an outer peripheral surface of the outer column ; and a penetration hole provided on portions, which face each other in the width direction, of the two side wall parts welding parts are provided to fix the two side wall parts to the outer peripheral surface of the outer column respectively in a state where the welding parts bridge between: portions, which is adjacent to an opposite side of the slits in the circumferential direction with respect to the two side wall parts , of the outer peripheral surface of the outer column ; and the two side wall parts . portions, which is adjacent to an opposite side of the slits in the circumferential direction with respect to the two side wall parts , of the outer peripheral surface of the outer column ; and the two side wall parts .
An insertion device for inserting a non-rotationally symmetrical hook-shaped fastener , having a fastener head with a hook-shaped part and a bolt portion connected to the fastener head , into a workpiece , in particular a wooden workpiece, having a device housing which has a receiving space for receiving the fastener , a movable sliding device by means of which the fastener can be transferred from an ejection position, in which the fastener is arranged in the receiving space , into an insertion position in the workpiece , and an anti-rotation device for limiting rotation of the fastener about a longitudinal axis (L) of the fastener when the fastener is transferred from the ejection position into the insertion position, characterised in that a slide of the sliding device has an anti-rotation means which can be brought into engagement with the fastener , in particular the fastener head . a device housing which has a receiving space for receiving the fastener , a movable sliding device by means of which the fastener can be transferred from an ejection position, in which the fastener is arranged in the receiving space , into an insertion position in the workpiece , and an anti-rotation device for limiting rotation of the fastener about a longitudinal axis (L) of the fastener when the fastener is transferred from the ejection position into the insertion position, characterised in that a slide of the sliding device has an anti-rotation means which can be brought into engagement with the fastener , in particular the fastener head .
A compound of formula (I) wherein R 1 is haloalkyl, halophenyl, alkoxyphenyl, alkyl-1,2,5-oxadiazolyl, haloalkylphenyl, alkylsulfonylphenyl, halopyridinyl or alkyltetrazolyl; R 2 is piperidinyl, azetidinyl, pyrrolidinyl, or morpholinyl; R 3 and R 4 are independently selected from hydrogen, halogen, hydroxyl, alkylcarbonylamino and alkyl, provided that R 3 and R 4 are not both hydrogen at the same time; and n is 1 or 2; or a pharmaceutically acceptable salt thereof. R 1 is haloalkyl, halophenyl, alkoxyphenyl, alkyl-1,2,5-oxadiazolyl, haloalkylphenyl, alkylsulfonylphenyl, halopyridinyl or alkyltetrazolyl; R 2 is piperidinyl, azetidinyl, pyrrolidinyl, or morpholinyl; R 3 and R 4 are independently selected from hydrogen, halogen, hydroxyl, alkylcarbonylamino and alkyl, provided that R 3 and R 4 are not both hydrogen at the same time; and n is 1 or 2;
A semiconductor die comprising: i. a first pad; ii. a second pad; iii. a control circuit configured to activate at least one trigger signal in response to detecting an electrical overstress event between the first pad and the second pad; and iv. a discharge circuit electrically connected between the first pad and the second pad and comprising a first silicon controlled rectifier (SCR) and a second SCR, wherein the first SCR is configured to turn on the second SCR in response to activation of the at least one trigger signal to thereby discharge the electrical overstress event, characterized in that an anode of the first SCR is electrically connected to a first control input of the second SCR, and a cathode of the first SCR is electrically connected to a second control input of the second SCR. i. a first pad; ii. a second pad; iii. a control circuit configured to activate at least one trigger signal in response to detecting an electrical overstress event between the first pad and the second pad; and iv. a discharge circuit electrically connected between the first pad and the second pad and comprising a first silicon controlled rectifier (SCR) and a second SCR, wherein the first SCR is configured to turn on the second SCR in response to activation of the at least one trigger signal to thereby discharge the electrical overstress event, characterized in that an anode of the first SCR is electrically connected to a first control input of the second SCR, and a cathode of the first SCR is electrically connected to a second control input of the second SCR.
Plug contact assembly for an electromotive linear actuation device, having an end closure by way of which a housing in which the electromotive linear actuation device is disposed is closed, having at an end of one or a plurality of cables that are routed from the outside to the housing a plug having one or a plurality of plug contacts that are able to be plugged into corresponding plug sockets disposed on the end closure , wherein an introduction opening which as a stepped opening leads from the outside into the housing interior is configured in the end closure , said stepped opening on the region thereof proximal to the housing interior having a small step with a minor radial extent, and in the region thereof opening towards the outside having a large step with a large radial extent, characterized in that the plug contact assembly has a plug element which, in the installed position thereof, by way of an axial stub part protrudes through the small step of the stepped opening into the housing interior and by way of an axial mounting region protrudes into the large step of the stepped opening , the cables being routed into said axial stub part and the latter being able to be introduced from the outside into the stepped opening up to an installed position and being able to be fixed in the installed position, and the plug contacts protruding axially from the end side of said axial stub part that faces the housing interior , the plug contact assembly having a socket mounting element which comprises the plug sockets and is disposed in the housing interior or the interior of the end closure , the plug contact assembly having a cable grommet , the cables from the plug element being routed through said cable grommet to the outside and the latter by way of the one end thereof enclosing the mounting region and by way of elastic pre-tensioning bearing in a radially encircling manner on the radially encircling shell face of the mounting region as well as on the radially encircling internal face of the large step of the stepped opening . the plug contact assembly having a socket mounting element which comprises the plug sockets and is disposed in the housing interior or the interior of the end closure , the plug contact assembly having a cable grommet , the cables from the plug element being routed through said cable grommet to the outside and the latter by way of the one end thereof enclosing the mounting region and by way of elastic pre-tensioning bearing in a radially encircling manner on the radially encircling shell face of the mounting region as well as on the radially encircling internal face of the large step of the stepped opening .
A method of manufacturing a biocompatible hermetic feedthrough with integrated ribbon cable, the method comprising: placing a glass composition over or between pillars of doped silicon; heating the glass composition to a reflow temperature such that at least a portion of the heated glass composition flows around the pillars; allowing the glass composition to solidify and encase the pillars in solidified glass; planarizing a top of the solidified glass sufficient to expose tops of the encased pillars; and characterized by , depositing a biocompatible insulative layer over the solidified glass; casting an uncured polymer over the biocompatible insulative layer and allowing the polymer to cure into a flat polymer sheet; patterning conductive traces on the polymer sheet to connect with the encased pillars; coating the conductive traces with polymer to form a ribbon cable; and planarizing a bottom of the solidified glass sufficient to expose bottoms of the encased pillars, thereby electrically isolating the pillars from each other and forming conductive vias through a hermetic feedthrough of solidified glass. placing a glass composition over or between pillars of doped silicon; heating the glass composition to a reflow temperature such that at least a portion of the heated glass composition flows around the pillars; allowing the glass composition to solidify and encase the pillars in solidified glass; planarizing a top of the solidified glass sufficient to expose tops of the encased pillars; and characterized by , depositing a biocompatible insulative layer over the solidified glass; casting an uncured polymer over the biocompatible insulative layer and allowing the polymer to cure into a flat polymer sheet; patterning conductive traces on the polymer sheet to connect with the encased pillars; coating the conductive traces with polymer to form a ribbon cable; and planarizing a bottom of the solidified glass sufficient to expose bottoms of the encased pillars, thereby electrically isolating the pillars from each other and forming conductive vias through a hermetic feedthrough of solidified glass.
A process for producing a liquefied natural gas stream from an inlet gas feed stream, the process comprising the steps of: cooling at least a portion of the inlet gas feed stream by heat exchange contact with first and second expanded refrigerants, whereby a liquefied natural gas stream is produced, characterised in that the first and second expanded refrigerants are circulated in first and second independent refrigeration cycles respectively, wherein the first and second expanded refrigerants are circulated in a gas phase such that the first and second refrigeration cycles are gas phase refrigeration cycles. cooling at least a portion of the inlet gas feed stream by heat exchange contact with first and second expanded refrigerants, whereby a liquefied natural gas stream is produced, characterised in that the first and second expanded refrigerants are circulated in first and second independent refrigeration cycles respectively, wherein the first and second expanded refrigerants are circulated in a gas phase such that the first and second refrigeration cycles are gas phase refrigeration cycles.
A powder composition comprising glucagon (SEQ ID NO:1), β-cyclodextrin, and a dodecylphosphocholine, wherein at least a portion of the powder is present in a phase characterized by an XRPD mesopeak as determined by x-ray powder diffraction.
A cooling system comprising: a cooling part which supplies a cooling fluid to a strip; and a boiling film removal part which physically comes into contact with the strip and removes a boiling film formed by the cooling fluid, wherein the cooling part includes a cooling tank in which a cooling fluid is contained, and the boiling film removal part is disposed inside of the cooling fluid, characterized in that the boiling film removal part includes a brush, disposed on an external circumferential surface of a roller, and the brush is partially brought into contact with the strip to remove the boiling film, and the cooling system is configured to cool the strip while vertically moving the strip and is disposed in such a manner that the strip passes through the cooling tank. a cooling part which supplies a cooling fluid to a strip; and a boiling film removal part which physically comes into contact with the strip and removes a boiling film formed by the cooling fluid, wherein the cooling part includes a cooling tank in which a cooling fluid is contained, and the boiling film removal part is disposed inside of the cooling fluid, characterized in that the boiling film removal part includes a brush, disposed on an external circumferential surface of a roller, and the brush is partially brought into contact with the strip to remove the boiling film, and the cooling system is configured to cool the strip while vertically moving the strip and is disposed in such a manner that the strip passes through the cooling tank.
A method of providing wafer access in a probe system , the method comprising: docking a first wafer cassette with the probe system , wherein the first wafer cassette includes a plurality of first slots , wherein the plurality of first slots is configured to contain a plurality of wafers , wherein at least one of the plurality of first slots contains a wafer , and further wherein, subsequent to the docking the first wafer cassette , the first wafer cassette is in physical contact with the probe system; removing a selected wafer from the first wafer cassette with the probe system ; performing a process operation on the selected wafer with the probe system , wherein the performing includes testing an operation of at least a portion of the selected wafer; undocking the first wafer cassette from the probe system during the performing, wherein, subsequent to the undocking, the first wafer cassette is not in physical contact with the probe system ; docking a second wafer cassette with the probe system ; inventorying the second wafer cassette with the probe system subsequent to the docking the second wafer cassette; and placing the selected wafer in the second wafer cassette subsequent to the performing, the undocking the first wafer cassette, the docking the second wafer cassette, and the inventorying. docking a first wafer cassette with the probe system , wherein the first wafer cassette includes a plurality of first slots , wherein the plurality of first slots is configured to contain a plurality of wafers , wherein at least one of the plurality of first slots contains a wafer , and further wherein, subsequent to the docking the first wafer cassette , the first wafer cassette is in physical contact with the probe system; removing a selected wafer from the first wafer cassette with the probe system ; performing a process operation on the selected wafer with the probe system , wherein the performing includes testing an operation of at least a portion of the selected wafer; undocking the first wafer cassette from the probe system during the performing, wherein, subsequent to the undocking, the first wafer cassette is not in physical contact with the probe system ; docking a second wafer cassette with the probe system ; inventorying the second wafer cassette with the probe system subsequent to the docking the second wafer cassette; and placing the selected wafer in the second wafer cassette subsequent to the performing, the undocking the first wafer cassette, the docking the second wafer cassette, and the inventorying.
A method for placing a client in a computer network system , the method comprising: collecting a plurality of resource utilization metrics for each candidate device from a group of candidate devices in the computer network system that can support the client ; and assigning continuously variable weights to the resource utilization metrics for each candidate device , wherein each of the resource utilization metrics is assigned one of the continuously variable weights, wherein each of the continuously variable weights is a continuous function which changes continuously as a function of the corresponding resource utilization metric, wherein assigning the continuously variable weights uses at least one non-linear convex function and wherein the assigning the continuously variable weights includes assigning the continuously variable weights using at least two different functions for two different continuously variable weights; computing the selection score using the resource utilization metrics with the continuously variable weights for each candidate device , wherein the selection score is computed by summing products of each one of the resource utilization metrics with the continuously variable weights assigned to that resource utilization metric; and selecting the target candidate device from the group of candidate devices for placement of the client based on the selection score of the target candidate device, to perform resource utilization balancing in the computer network system . collecting a plurality of resource utilization metrics for each candidate device from a group of candidate devices in the computer network system that can support the client ; and assigning continuously variable weights to the resource utilization metrics for each candidate device , wherein each of the resource utilization metrics is assigned one of the continuously variable weights, wherein each of the continuously variable weights is a continuous function which changes continuously as a function of the corresponding resource utilization metric, wherein assigning the continuously variable weights uses at least one non-linear convex function and wherein the assigning the continuously variable weights includes assigning the continuously variable weights using at least two different functions for two different continuously variable weights; computing the selection score using the resource utilization metrics with the continuously variable weights for each candidate device , wherein the selection score is computed by summing products of each one of the resource utilization metrics with the continuously variable weights assigned to that resource utilization metric; and selecting the target candidate device from the group of candidate devices for placement of the client based on the selection score of the target candidate device, to perform resource utilization balancing in the computer network system .