mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing 4-penten-2-ynal of the following formula : CH 2 =CHC=CCHO the process comprising a step of hydrolyzing a 5,5-dialkoxy-1-penten-3-yne compound of the following general formula : CH 2 =CHC=CCH(OR 1 )(OR 2 ) wherein R 1 and R 2 represent, independently of each other, a monovalent hydrocarbon group having 1 to 15 carbon atoms, preferably 1 to 8, more preferably 1 to 4, or R 1 and R 2 may be bonded to each other to form a divalent hydrocarbon group, R 1 -R 2 , having from 2 to 10 carbon atoms, to obtain 4-penten-2-ynal .
A non-transitory computer readable medium including instructions for aligning a cardiac model, the instructions executable by a computer to: receive an initial position signal from a proximal position sensor , a distal position sensor , and a medial position sensor , the proximal position sensor being disposed in a coronary sinus of a heart , wherein the medial position sensor is disposed orthogonally to a computed line extending between the proximal position sensor and the distal position sensor ; receive a subsequent position signal from the proximal position sensor , the distal position sensor , and the medial position sensor ; determine a change in position of the proximal position sensor based on the initial position signal and the subsequent position signal; determine a change in a position of the medial position sensor with respect to the line extending between the proximal position sensor and the distal position sensor ; and shift a cardiac model based on the change in position of the proximal position sensor and the change in the position of the medial position sensor with respect to the line extending between the proximal position sensor and the distal position sensor . receive an initial position signal from a proximal position sensor , a distal position sensor , and a medial position sensor , the proximal position sensor being disposed in a coronary sinus of a heart , wherein the medial position sensor is disposed orthogonally to a computed line extending between the proximal position sensor and the distal position sensor ; receive a subsequent position signal from the proximal position sensor , the distal position sensor , and the medial position sensor ; determine a change in position of the proximal position sensor based on the initial position signal and the subsequent position signal; determine a change in a position of the medial position sensor with respect to the line extending between the proximal position sensor and the distal position sensor ; and shift a cardiac model based on the change in position of the proximal position sensor and the change in the position of the medial position sensor with respect to the line extending between the proximal position sensor and the distal position sensor .
A method for managing virtual machines , comprising: obtaining (Step 400) a management request for a virtual machine of the virtual machines ; in response to obtaining the management request: performing (Step 402) a remote resource analysis of the virtual machine to obtain an application profile of the virtual machine comprising one or more dimensions, each dimension representing a type of an application executing on the virtual machine ; performing (Step 404) a multidimensional application analysis of the application profile to identify at least one tag; and applying (Step 406) the at least one tag to the virtual machine , storing backup/restoration policies in persistent storage wherein a first portion of the backup/restoration policies is keyed to a plurality of tags associated with the virtual machines . obtaining (Step 400) a management request for a virtual machine of the virtual machines ; in response to obtaining the management request: performing (Step 402) a remote resource analysis of the virtual machine to obtain an application profile of the virtual machine comprising one or more dimensions, each dimension representing a type of an application executing on the virtual machine ; performing (Step 404) a multidimensional application analysis of the application profile to identify at least one tag; and applying (Step 406) the at least one tag to the virtual machine , performing (Step 402) a remote resource analysis of the virtual machine to obtain an application profile of the virtual machine comprising one or more dimensions, each dimension representing a type of an application executing on the virtual machine ; performing (Step 404) a multidimensional application analysis of the application profile to identify at least one tag; and applying (Step 406) the at least one tag to the virtual machine , storing backup/restoration policies in persistent storage wherein a first portion of the backup/restoration policies is keyed to a plurality of tags associated with the virtual machines .
A treatment system comprising: a plurality of electrodes; a memory device configured to store instructions for evaluating electrical signals; and a processor configured to execute the instructions to perform a method including: determining which of the plurality of electrodes are in contact with internal tissue; measuring electrical activity at each of the plurality of electrodes in contact with internal tissue; and determining at least one of the plurality of electrodes for treatment based on the measured electrical activity; characterized in that said system further comprises a display, and the method further includes: communicating to the display a virtual map including a representative marking with a first indicia for each of the plurality of electrodes; communicating to the display the representative marking with a second indicia for each of the plurality of electrodes determined to be in contact with internal tissue; and communicating to the display the representative marking for the at least one of the plurality of electrodes for treatment as a third indicia. a plurality of electrodes; a memory device configured to store instructions for evaluating electrical signals; and a processor configured to execute the instructions to perform a method including: determining which of the plurality of electrodes are in contact with internal tissue; measuring electrical activity at each of the plurality of electrodes in contact with internal tissue; and determining at least one of the plurality of electrodes for treatment based on the measured electrical activity; determining which of the plurality of electrodes are in contact with internal tissue; measuring electrical activity at each of the plurality of electrodes in contact with internal tissue; and determining at least one of the plurality of electrodes for treatment based on the measured electrical activity; characterized in that said system further comprises a display, and the method further includes: communicating to the display a virtual map including a representative marking with a first indicia for each of the plurality of electrodes; communicating to the display the representative marking with a second indicia for each of the plurality of electrodes determined to be in contact with internal tissue; and communicating to the display the representative marking for the at least one of the plurality of electrodes for treatment as a third indicia. communicating to the display a virtual map including a representative marking with a first indicia for each of the plurality of electrodes; communicating to the display the representative marking with a second indicia for each of the plurality of electrodes determined to be in contact with internal tissue; and communicating to the display the representative marking for the at least one of the plurality of electrodes for treatment as a third indicia.
Ring gauge for inspecting toothings, in particular splines, having a ring gauge body , wherein the ring gauge body comprises a cutout in which an internal toothing is provided, wherein the internal toothing defines a root circle having a diameter D1 and a tip circle having a diameter D2, wherein the cutout has a circumferential ring-shaped centring portion , which is arranged coaxially as an extension with respect to the internal toothing , characterized in that the circumferential ring-shaped centring portion has a diameter D3 which is slightly smaller than the diameter D1.
Apparatus for non-cryogenic separation of a gas into two components, comprising: three stages, labeled Stage 1, Stage 2, and Stage 3, each of Stages 1-3 comprising a membrane module defining a path for an inlet gas to flow through a polymeric membrane , each module having an inlet connected to a high-pressure side upstream of the membrane , each module having a low-pressure side downstream of the membrane , the module including a permeate outlet for collecting gas which has permeated the membrane, and a retentate outlet for collecting gas which has not permeated the membrane, characterized in that the apparatus comprises: a) a conduit connecting the retentate outlet of Stage 1 to the low-pressure side of the membrane of Stage 1, a conduit connecting the retentate outlet of Stage 1 to an inlet of Stage 2, and a conduit connecting the permeate outlet of Stage 1 to an inlet of Stage 3, b) a conduit connecting the retentate outlet of Stage 2 to the low-pressure side of the membrane of Stage 2, and a conduit connecting the permeate outlet of Stage 2 to an inlet of Stage 1, c) a conduit connecting the retentate outlet of Stage 3 to the inlet of Stage 1, wherein product components are taken from the retentate outlet of Stage 2 and the permeate outlet of Stage 3. three stages, labeled Stage 1, Stage 2, and Stage 3, each of Stages 1-3 comprising a membrane module defining a path for an inlet gas to flow through a polymeric membrane , each module having an inlet connected to a high-pressure side upstream of the membrane , each module having a low-pressure side downstream of the membrane , the module including a permeate outlet for collecting gas which has permeated the membrane, and a retentate outlet for collecting gas which has not permeated the membrane, characterized in that the apparatus comprises: a) a conduit connecting the retentate outlet of Stage 1 to the low-pressure side of the membrane of Stage 1, a conduit connecting the retentate outlet of Stage 1 to an inlet of Stage 2, and a conduit connecting the permeate outlet of Stage 1 to an inlet of Stage 3, b) a conduit connecting the retentate outlet of Stage 2 to the low-pressure side of the membrane of Stage 2, and a conduit connecting the permeate outlet of Stage 2 to an inlet of Stage 1, c) a conduit connecting the retentate outlet of Stage 3 to the inlet of Stage 1, a) a conduit connecting the retentate outlet of Stage 1 to the low-pressure side of the membrane of Stage 1, a conduit connecting the retentate outlet of Stage 1 to an inlet of Stage 2, and a conduit connecting the permeate outlet of Stage 1 to an inlet of Stage 3, b) a conduit connecting the retentate outlet of Stage 2 to the low-pressure side of the membrane of Stage 2, and a conduit connecting the permeate outlet of Stage 2 to an inlet of Stage 1, c) a conduit connecting the retentate outlet of Stage 3 to the inlet of Stage 1, wherein product components are taken from the retentate outlet of Stage 2 and the permeate outlet of Stage 3.
A method for preparing the compound represented by formula (II), characterized by operating in either of the following two ways: reacting a compound represented by formula (IV) with a compound represented by formula (V) in which Z 1 is 2-cyanophenoxy group and Z 2 is halogen, in an organic solvent in the presence of sodium methoxide or potassium methoxide and catalyst; reacting a compound represented by formula (IV) with a compound represented by formula (V) in the presence of sodium methoxide or potassium methoxide and catalyst, and then reacting with 2-cyanophenol in the presence of alkali and catalyst, in formula (V), both Z 1 and Z 2 are halogen; in the formula, R 4 is C 1 -C 4 alkyl, and R 3 is hydrogen or C 1 -C 4 alkyl. reacting a compound represented by formula (IV) with a compound represented by formula (V) in which Z 1 is 2-cyanophenoxy group and Z 2 is halogen, in an organic solvent in the presence of sodium methoxide or potassium methoxide and catalyst; reacting a compound represented by formula (IV) with a compound represented by formula (V) in the presence of sodium methoxide or potassium methoxide and catalyst, and then reacting with 2-cyanophenol in the presence of alkali and catalyst, in formula (V), both Z 1 and Z 2 are halogen; in the formula, R 4 is C 1 -C 4 alkyl, and R 3 is hydrogen or C 1 -C 4 alkyl.
Method of manufacturing a spoke for a wheel of an at least partially muscle-powered bicycle , having a spoke body , wherein the spoke body in the installed position as intended in a wheel , comprises a hub-side, first end and a rim-side, second end , and wherein the spoke body comprises at least one central section extending between the ends , wherein one end portion is attributed to each of the ends , and wherein one transition section each is disposed between the central section and the end portions , comprising the following process steps: reshaping a wire material to obtain a spoke blank by means of a forging device , wherein the spoke blank includes pre-stages of the central section and the end portions and the transition sections , and wherein the pre-stages of the central section and of the end portions are forged cylindrically, so that the pre-stage of the central section shows a smaller diameter than do the pre-stages of the end portions , and wherein the pre-stages of the transition sections are forged conically, so that they show a diameter decreasing in the direction of the central section , characterized in that the pre-stages of the transition sections are each manufactured in a length which differs by a maximum of one fourth from the pertaining length of the transition sections , and characterized by the process steps: inserting the spoke blank in a shaping tool , which reproduces a negative mold of the spoke body , reshaping the spoke blank by means of the shaping tool , wherein at least the transition sections and the central section are each provided with a cross-sectional geometry different from their pre-stages . reshaping a wire material to obtain a spoke blank by means of a forging device , wherein the spoke blank includes pre-stages of the central section and the end portions and the transition sections , and wherein the pre-stages of the central section and of the end portions are forged cylindrically, so that the pre-stage of the central section shows a smaller diameter than do the pre-stages of the end portions , and wherein the pre-stages of the transition sections are forged conically, so that they show a diameter decreasing in the direction of the central section , characterized in that the pre-stages of the transition sections are each manufactured in a length which differs by a maximum of one fourth from the pertaining length of the transition sections , and characterized by the process steps: inserting the spoke blank in a shaping tool , which reproduces a negative mold of the spoke body , reshaping the spoke blank by means of the shaping tool , wherein at least the transition sections and the central section are each provided with a cross-sectional geometry different from their pre-stages .
A crystalline Form A of (S)-Quinuclidin-3-yl (2-(2-(4-fluorophenyl)thiazol-4-yl)propan-2-yl)carbamate malate, wherein said x-ray powder diffraction contains the following 2-theta peak measured using CuK α radiation: 18.095.
Method for preserving the fresh juice of citrus fruits and pomegranates, where following the cooling and subsequent disinfection of the fruit whose juice is intended to be obtained, through the squeezing or extrusion of the fruit, is characterised because prior to pouring the juice into the container in which it will be finally sold, this container is subject to a gasification process, introducing CO 2 in the form of carbonic snow until the oxygen in the container has been removed, and immediately afterwards adding the natural juice pumped from the preservation container, added to the container a drop of liquid nitrogen and immediately hermetically sealing the container for its preservation in a cold chamber at a temperature ranging between 1° and 4°C.
A method for operating a wellbore , comprising: performing a drilling operation by injecting fluid to the wellbore having a tubular string disposed therein to circulate the fluid in a path including a bore of the tubular string and an annulus between the tubular string and a wall of the wellbore, and while performing the drilling operation: drilling through a formation while a bottomhole pressure is at a target bottomhole pressure; engaging a seal of a rotating control device with the tubular string; increasing the bottomhole pressure from the target bottomhole pressure to an expected pressure while drilling through the formation, wherein the expected pressure is a pressure expected during cementing of the formation exposed to the wellbore; measuring a difference between an injection flow rate and a return flow rate in the path to detect leak and determine whether the formation withstands the expected pressure; and returning the bottomhole pressure to the target bottomhole pressure after maintaining the bottomhole pressure at the expected pressure while drilling through a depth or drilling for a period of time. drilling through a formation while a bottomhole pressure is at a target bottomhole pressure; engaging a seal of a rotating control device with the tubular string; increasing the bottomhole pressure from the target bottomhole pressure to an expected pressure while drilling through the formation, wherein the expected pressure is a pressure expected during cementing of the formation exposed to the wellbore; measuring a difference between an injection flow rate and a return flow rate in the path to detect leak and determine whether the formation withstands the expected pressure; and returning the bottomhole pressure to the target bottomhole pressure after maintaining the bottomhole pressure at the expected pressure while drilling through a depth or drilling for a period of time.
A battery connector comprising: a conductive plate configured to contact a first battery and a second battery so as to electrically connect the first battery and the second battery to each other; an upper fixing means for fixing the first battery ; and a lower fixing means for fixing the second battery ; wherein the conductive plate is configured to contact a negative electrode terminal of the first battery and to contact a positive electrode terminal of the second battery ; wherein the upper fixing means comprises: an extension member extending upwards from an upper surface of the conductive plate ; and a fixing protrusion formed on an inside of the extension member so as to be coupled to a groove or a step formed at a negative electrode side of the first battery ; and wherein the lower fixing means comprises a fixing latch extending downwards from a lower surface of the conductive plate , and the fixing latch is inserted into a recess formed in a top cap of the second battery , whereby the fixing latch is fixed to the second battery . a conductive plate configured to contact a first battery and a second battery so as to electrically connect the first battery and the second battery to each other; an upper fixing means for fixing the first battery ; and a lower fixing means for fixing the second battery ; an extension member extending upwards from an upper surface of the conductive plate ; and a fixing protrusion formed on an inside of the extension member so as to be coupled to a groove or a step formed at a negative electrode side of the first battery ; and the lower fixing means comprises a fixing latch extending downwards from a lower surface of the conductive plate , and the fixing latch is inserted into a recess formed in a top cap of the second battery , whereby the fixing latch is fixed to the second battery .
An electric switching device filled with a dielectric insulating medium, comprising at least an arrangement of arcing contacts with a first arcing contact and a corresponding second arcing contact , wherein for opening and closing the electric switching device at least one of the arcing contacts is movable parallel to a longitudinal axis (z) and cooperates with the other arcing contact , wherein at least a first exhaust volume is provided downstream of the first arcing contact , and/or at least a second exhaust volume is provided downstream of the second arcing contact , with respect to a local flow direction of the insulating medium, in such a way that dielectric insulating medium can flow from an arcing volume arranged between the first and the second arcing contact into the first and/or the second exhaust volume , wherein the first and/or the second exhaust volume comprise or comprises a plurality of first openings in its wall , through which the insulating medium can exit the first and/or the second exhaust volume into at least one third volume , wherein the at least one third volume is arranged around the first exhaust volume and/or around the second exhaust volume and is delimited in radial direction, with respect to the longitudinal axis (z), at least partially by the wall of the first exhaust volume and/or of the second exhaust volume and by an exterior wall , wherein the exterior wall has second openings through which the insulating medium exits the third volume towards an enclosure of the electric switching device , wherein at least one baffle device is provided inside the third volume ; characterized in that , the baffle device is arranged in such a way that a turbulent flow of the insulating medium is generated while the insulating medium passes the baffle device on its way towards the second openings , wherein the baffle device is a trap for particles transported by the dielectric insulating medium, wherein turbulent flow conditions are chosen such that gravitational force allows to trap or contributes to trap particles in the baffle device , wherein the baffle device comprises baffle plates or fins , that are arranged to form cavities for capturing the particles by gravitational force.
A method for flushing a lumen of a long, thin flexible oil pipe with a first end and a second end and a lumen between the first and second end, which method comprises: - adding a fluid to the lumen of the pipe , the lumen having a cross sectional area of less than 100 square mm and a length of more than 500 meter; - providing the fluid in a supercritical state inside the lumen; - subsequently, as a flushing step, while the fluid is in the supercritical state or in a liquid state, displacing the fluid in the lumen of the pipe and out of lumen of the pipe at a speed of at least 0.5 m/s that causes a turbulent flow of the fluid, thereby flushing particles out of the lumen. - adding a fluid to the lumen of the pipe , the lumen having a cross sectional area of less than 100 square mm and a length of more than 500 meter; - providing the fluid in a supercritical state inside the lumen; - subsequently, as a flushing step, while the fluid is in the supercritical state or in a liquid state, displacing the fluid in the lumen of the pipe and out of lumen of the pipe at a speed of at least 0.5 m/s that causes a turbulent flow of the fluid, thereby flushing particles out of the lumen.