mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; said process comprising the steps of (i) preparing a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; and R4 is selected from alkyl, aryl and arylalkyl; by reacting a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; first with a base and then with a compound of the formula R4COY, wherein R4 is selected from alkyl, aryl and arylalkyl and Y is halogen or -OR', wherein R' is selected from alkyl, aryl and arylalkyl, to obtain the compound of formula, or salt thereof; and (ii) reacting the obtained compound of formula, or salt thereof, with a base and formaldehyde, optionally in the presence of a phase transfer catalyst, to obtain the compound of formula, or salt thereof. (i) preparing a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; and R4 is selected from alkyl, aryl and arylalkyl; by reacting a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; first with a base and then with a compound of the formula R4COY, wherein R4 is selected from alkyl, aryl and arylalkyl and Y is halogen or -OR', wherein R' is selected from alkyl, aryl and arylalkyl, to obtain the compound of formula, or salt thereof; and R1 is hydrogen or a nitrogen protecting group; and R4 is selected from alkyl, aryl and arylalkyl; (ii) reacting the obtained compound of formula, or salt thereof,
A film comprising: a polyethylene composition, comprising: an ethylene content and from 0 to 25 mol% of a C 3 -C 40 olefin comonomer content, based upon the total weight of the polyethylene composition, the polyethylene composition having a total internal plus terminal unsaturation greater than 0.7 unsaturations per 1000 carbon atoms and a terminal unsaturation of 50% or more of the total unsaturations, internal, terminal and total unsaturations being determined by 1 H NMR, wherein the film has: an Elmendorf Tear value in the machine direction, as determined by ASTM D-1922, of from 0.39 g/micron to 11.81 g/micron (10 g/mil to 300 g/mil), and a Dart Drop Impact, as determined by ASTM D-1709, modified as described in the specification, of from 3.94 g/micron to 31.50 g/micron (100 g/mil to 800 g/mil). an ethylene content and from 0 to 25 mol% of a C 3 -C 40 olefin comonomer content, based upon the total weight of the polyethylene composition, the polyethylene composition having a total internal plus terminal unsaturation greater than 0.7 unsaturations per 1000 carbon atoms and a terminal unsaturation of 50% or more of the total unsaturations, internal, terminal and total unsaturations being determined by 1 H NMR, wherein the film has: an Elmendorf Tear value in the machine direction, as determined by ASTM D-1922, of from 0.39 g/micron to 11.81 g/micron (10 g/mil to 300 g/mil), and a Dart Drop Impact, as determined by ASTM D-1709, modified as described in the specification, of from 3.94 g/micron to 31.50 g/micron (100 g/mil to 800 g/mil). an Elmendorf Tear value in the machine direction, as determined by ASTM D-1922, of from 0.39 g/micron to 11.81 g/micron (10 g/mil to 300 g/mil), and a Dart Drop Impact, as determined by ASTM D-1709, modified as described in the specification, of from 3.94 g/micron to 31.50 g/micron (100 g/mil to 800 g/mil).
A method of producing fine fibers, the method comprising: discharging a flowable polymer compound from a discharge port provided at an extruder; forming fibers having a fiber diameter of from 50 nm to 15 μm by spraying, in a direction intersecting with a discharge direction of the flowable polymer compound, a pressurized gas discharged from an air nozzle to the discharged flowable polymer compound, the air nozzle being provided on a gravity-direction lower side of the discharge port and comprising a temperature control member and a spindle-shaped nozzle or a De Laval nozzle, wherein the diameter is defined by controlling at least the temperature and the flow rate of the discharged gas; and collecting the fibers using a collection member provided downstream in a gas spraying direction. discharging a flowable polymer compound from a discharge port provided at an extruder; forming fibers having a fiber diameter of from 50 nm to 15 μm by spraying, in a direction intersecting with a discharge direction of the flowable polymer compound, a pressurized gas discharged from an air nozzle to the discharged flowable polymer compound, the air nozzle being provided on a gravity-direction lower side of the discharge port and comprising a temperature control member and a spindle-shaped nozzle or a De Laval nozzle, wherein the diameter is defined by controlling at least the temperature and the flow rate of the discharged gas; and collecting the fibers using a collection member provided downstream in a gas spraying direction.
A control circuit (20,120,220,320,420) comprising: first and second terminals (22,24) for respective connection to first and second power transmission lines (26,28); a current transmission path extending between the first and second terminals (22,24) and having first and second current transmission path portions (30,32) separated by a third terminal, either or both of the first and second current transmission path portions (30,32) including at least one module (36,68,70), the or each module (36,68,70) including at least one energy storage device, an auxiliary terminal for connection to ground or the second power transmission line; an energy conversion block for removing energy from the power transmission lines (26,28), the energy conversion block extending between the third and auxiliary terminals (34,42) such that the energy conversion block branches from the current transmission path, the energy conversion block including at least one energy conversion element; and a control unit which selectively removes the or each energy storage device from the current transmission path. first and second terminals (22,24) for respective connection to first and second power transmission lines (26,28); a current transmission path extending between the first and second terminals (22,24) and having first and second current transmission path portions (30,32) separated by a third terminal, either or both of the first and second current transmission path portions (30,32) including at least one module (36,68,70), the or each module (36,68,70) including at least one energy storage device, an auxiliary terminal for connection to ground or the second power transmission line; an energy conversion block for removing energy from the power transmission lines (26,28), the energy conversion block extending between the third and auxiliary terminals (34,42) such that the energy conversion block branches from the current transmission path, the energy conversion block including at least one energy conversion element; and a control unit which selectively removes the or each energy storage device from the current transmission path.
A battery module, comprising: a plurality of battery cells each including an electrode tabs; and at least one bus bar connected to the electrode tab of the battery cells to electrically connect the plurality of battery cells to each other, wherein the bus bar includes a plate in which a plurality of holes are formed, the electrode tabs of each of the battery cells are inserted into at least a part of the plurality of holes of the plate, the electrode tab inserted into the hole and the plate are coupled to each other by a welding bead, and the welding bead satisfies Equations 1 and 2 below, 0 < W < 7 T wherein in Equation 1, W is a width of the welding bead based on a cross section of the welding bead in a thickness direction of the plate, and T is a thickness of the electrode tab, 0 < H < 3 T wherein in Equation 2, H is a height of the welding bead based on the cross section of the welding bead in the thickness direction of the plate, and T is the thickness of the electrode tab. a plurality of battery cells each including an electrode tabs; and at least one bus bar connected to the electrode tab of the battery cells to electrically connect the plurality of battery cells to each other, wherein the bus bar includes a plate in which a plurality of holes are formed, the electrode tabs of each of the battery cells are inserted into at least a part of the plurality of holes of the plate, the electrode tab inserted into the hole and the plate are coupled to each other by a welding bead, and
A compressor comprising: a first scroll; a second scroll performing an orbiting motion in engagement with the first scroll and forming a compression chamber along with the first scroll; a stator provided at one side of the second scroll and including a stator core; a rotor including a rotor core rotatably disposed inside the stator core; and a rotary shaft, wherein the rotor core is formed with at least one space portion axially recessed by a predetermined depth, characterized in that the rotary shaft has one portion eccentrically coupled to the second scroll and passing through the second scroll, wherein one end portion of the rotary shaft is rotatably inserted into the first scroll, which is a fixed scroll and the other end portion of the rotary shaft is coupled to the rotor core. a first scroll; a second scroll performing an orbiting motion in engagement with the first scroll and forming a compression chamber along with the first scroll; a stator provided at one side of the second scroll and including a stator core; a rotor including a rotor core rotatably disposed inside the stator core; and a rotary shaft, wherein the rotor core is formed with at least one space portion axially recessed by a predetermined depth, characterized in that the rotary shaft has one portion eccentrically coupled to the second scroll and passing through the second scroll, wherein one end portion of the rotary shaft is rotatably inserted into the first scroll, which is a fixed scroll and the other end portion of the rotary shaft is coupled to the rotor core.
Method for distributing an audiovisual content stored or produced live by a source to a display terminal in an audiovisual distribution system, said content being received by the terminal in the form of a succession of consecutive files, called chunks, each chunk being distributed to the terminal following a transmission of a request by said terminal and being obtained via an application of a workflow to a segment of said content, characterized in that the method comprises a procedure for launching the workflow, which is executed by the terminal or by an intermediate device located between the terminal and the workflow, the procedure for launching the workflow comprising, for each chunk: - obtaining a list of at least one processing operation representative of the workflow to be applied to a segment of the content to obtain said chunk, the workflow having been defined on the basis of a profile selected from a manifest comprising a set of profiles, in particular depending on transmission and processing constraints obtained by said terminal or the intermediate device; - scanning the list and, for each processing operation, choosing a module from a set of modules able to execute said processing operation and adding an identifier composed of an address and of a port number of the chosen module to a request, the identifier appearing first in the request corresponding to a first module to which said request is addressed; - for each processing operation, adding, to the request, information representative of the segment of content and information representative of configuration parameters of the corresponding module, the configuration parameters having been obtained, in particular, on the basis of the profile; and - transmitting said request to the addressee first module in order to launch the execution of the workflow. - obtaining a list of at least one processing operation representative of the workflow to be applied to a segment of the content to obtain said chunk, the workflow having been defined on the basis of a profile selected from a manifest comprising a set of profiles, in particular depending on transmission and processing constraints obtained by said terminal or the intermediate device; - scanning the list and, for each processing operation, choosing a module from a set of modules able to execute said processing operation and adding an identifier composed of an address and of a port number of the chosen module to a request, the identifier appearing first in the request corresponding to a first module to which said request is addressed; - for each processing operation, adding, to the request, information representative of the segment of content and information representative of configuration parameters of the corresponding module, the configuration parameters having been obtained, in particular, on the basis of the profile; and - transmitting said request to the addressee first module in order to launch the execution of the workflow.
Medium- or high-voltage equipment including a leaktight enclosure in which there are located electrical components covered with a solid dielectric layer and a gaseous medium for providing electrical insulation and/or for extinguishing electric arcs that are likely to occur in said enclosure, the gaseous medium comprising heptafluoroisobutyronitrile in a mixture with a dilution gas; characterized in that the thickness of the solid dielectric layer on the electrical components where the utilization factor of the electric field is greater than or eaqual to 0.2 is less than 1 mm; and in that said dielectric layer is made of a material comprising a polyepoxide resin optionally containing a filler, a polyurethane resin optionally containing a filler, or aluminum oxide.
Aqueous formulation comprising between 0.1% and 50% by weight of lipophilic composition, said formulation being characterised in that it further comprises: - between 0.1% and 10% by weight of homogenising component comprising at least microcrystalline cellulose; - between 0.01% and 2% by weight of clay; - the remainder in water. - between 0.1% and 10% by weight of homogenising component comprising at least microcrystalline cellulose; - between 0.01% and 2% by weight of clay; - the remainder in water.
Insulating glazing unit that has at least two glass panes (4a, 4b) and a circumferential spacer profile between them near their edges, for use in a window, a door, or a façade glazing, which has in each case a frame, in particular a metallic frame, surrounding the edges of the insulating glazing, wherein at least one RFID transponder (9, 9a-9d) is attached to the insulating glazing unit as an identification element, characterised in that the or at least one transponder is arranged on an inner surface of one of the glass panes in the spaced region between the spacer profile and the edge of the glass pane. wherein at least one RFID transponder (9, 9a-9d) is attached to the insulating glazing unit as an identification element, characterised in that the or at least one transponder is arranged on an inner surface of one of the glass panes in the spaced region between the spacer profile and the edge of the glass pane.
A surgical camera system comprising: a camera head including a housing; an image sensor within the housing; and the housing including a liquid lens therein for focusing an image received in the housing prior to transmission of the image to the image sensor, and a fixed solid lens adjacent the liquid lens, characterized in that the surgical camera system is configured for determining sensor coverage projected by a surgical scope into the camera using one or more regions of interest, and automatically adjusting the one or more regions of interest size, location and centering. a camera head including a housing; an image sensor within the housing; and the housing including a liquid lens therein for focusing an image received in the housing prior to transmission of the image to the image sensor, and a fixed solid lens adjacent the liquid lens, characterized in that the surgical camera system is configured for determining sensor coverage projected by a surgical scope into the camera using one or more regions of interest, and automatically adjusting the one or more regions of interest size, location and centering.
A method comprising: obtaining, at an electronic device, a device password associated with a new enrollee device to be configured for a communication network; providing the device password to a network registrar to cause the network registrar to configure the new enrollee device for the communication network; receiving a network feedback indication from the network registrar indicating whether or not the new enrollee device has been configured for the communication network in response to said providing the device password to the network registrar; and presenting user feedback via a user interface of the electronic device, wherein the user feedback indicates whether or not the new enrollee device has been configured for the communication network. obtaining, at an electronic device, a device password associated with a new enrollee device to be configured for a communication network; providing the device password to a network registrar to cause the network registrar to configure the new enrollee device for the communication network; receiving a network feedback indication from the network registrar indicating whether or not the new enrollee device has been configured for the communication network in response to said providing the device password to the network registrar; and presenting user feedback via a user interface of the electronic device,
A laser cataract surgery control system, the system comprising: a controller configured to receive information from an imaging system; a fragmentation module configured to determine a safety zone where no focused radiation is to be delivered and fragmentation zones where focused laser radiation is to be delivered, the fragmentation zones comprising a high numerical aperture, NA, zone where a cone angle of a laser beam with a high numerical aperture is not shadowed by an iris of the patient's eye and a low NA zone radially closer to the iris than the high NA zone where the cone angle of the laser beam with a low numerical aperture is not shadowed by the iris; and a laser control module configured to cause a laser system to deliver a laser beam with the high numerical aperture to the high NA zone and to deliver a laser beam with the low numerical aperture to the low NA zone. a controller configured to receive information from an imaging system; a fragmentation module configured to determine a safety zone where no focused radiation is to be delivered and fragmentation zones where focused laser radiation is to be delivered, the fragmentation zones comprising a high numerical aperture, NA, zone where a cone angle of a laser beam with a high numerical aperture is not shadowed by an iris of the patient's eye and a low NA zone radially closer to the iris than the high NA zone where the cone angle of the laser beam with a low numerical aperture is not shadowed by the iris; and a laser control module configured to cause a laser system to deliver a laser beam with the high numerical aperture to the high NA zone and to deliver a laser beam with the low numerical aperture to the low NA zone.
A tryptophan-2,3-dioxygenase and/or indoleamine-2,3-dioxygenase inhibitor compound for use in treating a cancer, which compound comprises a formula selected from one of the following:
Pipe tapping saddle for a main pipe conveying a medium, which is preferably made from plastic and has a centre axis, wherein the pipe tapping saddle is arranged on a main pipe, containing a saddle piece, a branch pipe, the branch pipe having a centre axis, a drill socket, a drill, preferably with a thread, being arranged displaceably in the drill socket for tapping the main pipe and the drill socket having a centre axis, characterized in that the centre axis of the branch pipe extends horizontally and through the borehole drilled through the main pipe by the drill and is arranged below the upper crown point of the main pipe, wherein the branch pipe is connected to or enters the main pipe directly without any deviation, wherein the centre axis of the drill socket is oriented perpendicularly to the centre axis of the main pipe and the centre axis of the drill socket intersects the centre axis of the main pipe at right angles.
A system, comprising: an acoustic monitoring, analysis, and diagnostic system comprising a processor configured to: receive NF noise signals from a near field microphone array, wherein the NF microphone array measures noises generated from a power generation system in a near field, which comprises a turbine system inside an enclosure; receive FF noise signals from a far field microphone array, wherein the FF microphone array measures noises generated from the power generation system in a far field; derive NF noise measurements and FF noise measurements based on the signals; synchronize the NF noise measurements and the FF noise measurements to create synchronized NF noise data and synchronized FF noise data; analyze the synchronized NF noise data and synchronized FF noise data to create a NF noise signature and an FF noise signature; diagnose one or more root causes of noises generated from the power generation system based on the NF noise signature and FF noise signature; and report the one or more root causes of the noises generated from the power generation system; characterised in that: at least a portion of the NF microphone array is positioned inside the enclosure of the turbine system. receive NF noise signals from a near field microphone array, wherein the NF microphone array measures noises generated from a power generation system in a near field, which comprises a turbine system inside an enclosure; receive FF noise signals from a far field microphone array, wherein the FF microphone array measures noises generated from the power generation system in a far field; derive NF noise measurements and FF noise measurements based on the signals; synchronize the NF noise measurements and the FF noise measurements to create synchronized NF noise data and synchronized FF noise data; analyze the synchronized NF noise data and synchronized FF noise data to create a NF noise signature and an FF noise signature; diagnose one or more root causes of noises generated from the power generation system based on the NF noise signature and FF noise signature; and report the one or more root causes of the noises generated from the power generation system;
A method for certification by a control unit of a vehicle, comprising the steps of: - generation of a first signed certificate, comprising at least one public key and containing a vehicle-specific feature, and a private key associated therewith; - one-time introduction of the first signed certificate and the associated private key into the control unit; - signing of a second certificate, comprising an additional public key (36, 38), in the control unit, by means of the private key associated with the first signed certificate; and - provision of the second signed certificate together with the first signed certificate. - generation of a first signed certificate, comprising at least one public key and containing a vehicle-specific feature, and a private key associated therewith; - one-time introduction of the first signed certificate and the associated private key into the control unit; - signing of a second certificate, comprising an additional public key (36, 38), in the control unit, by means of the private key associated with the first signed certificate; and - provision of the second signed certificate together with the first signed certificate.