mhurhangee/ep-ind-claims huggingface dataset:
An airflow generation device comprising: a first dielectric substrate made from a rubber elastic material, a first electrode provided on or nearby a first surface of the first dielectric substrate, a second electrode provided on a second surface (15down) of the first dielectric substrate as a different side surface from the first surface, and a second dielectric substrate made from a rubber elastic material so as to cover the second electrode, wherein the device is configured to generate the airflow by plasma caused from a gas present nearby the first surface of the first dielectric substrate through an applied voltage between the first electrode and the second electrode; the device further comprises bonding portions between the first electrode and the second electrode and the first dielectric substrate, and bonding portions between the second electrode and the second dielectric substrate that are bonded by chemical bonds with chemically crosslinking through the unsaturated groups or vinylsilyl-containing-silyl groups, and bonding portions between the first dielectric substrate and the second dielectric substrate that are bonded by chemical bonds with chemically crosslinking through unsaturated groups or vinylsilyl-containing-silylgroups which bond to surface of those substrates and/or exist on the surface thereof, characterized in that the second electrode comprises a conductive rubber layer or a conductive resin layer which extends to a side of the first electrode. a first dielectric substrate made from a rubber elastic material, a first electrode provided on or nearby a first surface of the first dielectric substrate, a second electrode provided on a second surface (15down) of the first dielectric substrate as a different side surface from the first surface, and a second dielectric substrate made from a rubber elastic material so as to cover the second electrode, wherein the device is configured to generate the airflow by plasma caused from a gas present nearby the first surface of the first dielectric substrate through an applied voltage between the first electrode and the second electrode; the device further comprises bonding portions between the first electrode and the second electrode and the first dielectric substrate, and bonding portions between the second electrode and the second dielectric substrate that are bonded by chemical bonds with chemically crosslinking through the unsaturated groups or vinylsilyl-containing-silyl groups, and bonding portions between the first dielectric substrate and the second dielectric substrate that are bonded by chemical bonds with chemically crosslinking through unsaturated groups or vinylsilyl-containing-silylgroups which bond to surface of those substrates and/or exist on the surface thereof, characterized in that the second electrode comprises a conductive rubber layer or a conductive resin layer which extends to a side of the first electrode.
Device for simultaneously driving a plurality of semiconductor power switches (S12, S21) for pulsed loads (Load 1, Load 2) in the high-voltage range, wherein driver voltages (Uh 1, Uh 2) for the semiconductor power switches (S12, S21) can be provided via a transformer, wherein the driver voltages (Uh 1, Uh 2) for the semiconductor power switches (S12, S21) are derived from the voltage of a single secondary winding of the transformer, wherein electronic voltage level converter circuits are provided in order to obtain the driver voltages (Uh 1, Uh 2) at a required level from the secondary winding of the transformer, wherein the electronic voltage level converter circuits each comprise a charge pump (C1, R1, D1; C2, R2, D2), characterized in that the clocking of the respective load (Load1, Load2) serves for clocking the respective charge pump, wherein the respective charge pump for providing the corresponding driver voltage (Uh 1, Uh 2) comprises a capacitor (C1, C2) which can be connected on the one hand to that side of the load (Load1, Load2) which cannot be connected to the corresponding semiconductor power switch (S12, S21), and which on the other hand is connected via a series resistor (R1, R2) to a diode D1 and can be connected via the latter to the secondary winding of the transformer. wherein driver voltages (Uh 1, Uh 2) for the semiconductor power switches (S12, S21) can be provided via a transformer, wherein the driver voltages (Uh 1, Uh 2) for the semiconductor power switches (S12, S21) are derived from the voltage of a single secondary winding of the transformer, wherein electronic voltage level converter circuits are provided in order to obtain the driver voltages (Uh 1, Uh 2) at a required level from the secondary winding of the transformer, wherein the electronic voltage level converter circuits each comprise a charge pump (C1, R1, D1; C2, R2, D2), characterized in that the clocking of the respective load (Load1, Load2) serves for clocking the respective charge pump, wherein the respective charge pump for providing the corresponding driver voltage (Uh 1, Uh 2) comprises a capacitor (C1, C2) which can be connected on the one hand to that side of the load (Load1, Load2) which cannot be connected to the corresponding semiconductor power switch (S12, S21), and which on the other hand is connected via a series resistor (R1, R2) to a diode D1 and can be connected via the latter to the secondary winding of the transformer.
A unitary one-piece radially crushable ferrule (100; 600; 700; 800; 900) comprising: a crushable socket portion; a deformable attachment portion; and a polygonal torque communication portion, defined between and axially contiguous with said socket portion and said attachment portion, and providing torque communication to an attached fluid power component, said socket portion further comprising a lip (107; 907) defined in an extent of said socket portion opposite said torque communication portion; and wherein the outer diameter of the torque communication portion is less than that of the crushable socket portion and greater than that of the attachment portion, in a state in which the socket portion is not crushed. a crushable socket portion; a deformable attachment portion; and a polygonal torque communication portion, defined between and axially contiguous with said socket portion and said attachment portion, and providing torque communication to an attached fluid power component, said socket portion further comprising a lip (107; 907) defined in an extent of said socket portion opposite said torque communication portion; and wherein the outer diameter of the torque communication portion is less than that of the crushable socket portion and greater than that of the attachment portion, in a state in which the socket portion is not crushed.
A heater for heating a consumable comprising a solid aerosol generating substrate, the heater comprising: a base; and a heating element attached to a support surface of the base, wherein the heating element comprises a moulding surface configured to deform and heat the aerosol generating substrate, and wherein the heating element comprises a thick conductive track extending along and protruding from the support surface. a base; and a heating element attached to a support surface of the base, wherein the heating element comprises a moulding surface configured to deform and heat the aerosol generating substrate, and wherein the heating element comprises a thick conductive track extending along and protruding from the support surface.
A method of reducing microbes on cutting tools used in slaughtering animals and/or carcass processing comprising contacting the tools with a biocide comprised of at least 0.15 wt % organic acid containing a fatty acid at a temperature of 11 to 15 degrees C for 1.0 to 3.0 seconds.
A combustor for a gas turbine engine comprising: a plurality of liner heat shields (72, 74); a plurality of bulkhead heat shields; and an interface shield between each of the bulkhead heat shields and the respective liner heat shields, wherein the interface shield is manufactured of a sheet metal, ceramic metal or other heat resistant material, characterised in that the interface shield abuts a cold side of the liner heat shields and a cold side of the bulkhead heat shields. a plurality of liner heat shields (72, 74); a plurality of bulkhead heat shields; and an interface shield between each of the bulkhead heat shields and the respective liner heat shields,
Localization system for localizing an underground object, such as a supply line, for an earth-moving machine (2a, 2b) which has a working part, in particular an excavator arm (3b, 3c, 3d), comprising at least one lower boom component (12a, 12c, 12e, 12f) and an earth-moving part (13a, 13b, 13c, 13e), comprising ▪ a fastening component (4a, 4b, 4c, 4e, 4f), ▪ a detector component (5a, 5b, 5c, 5d, 5e, 5f) arranged indirectly or directly on the fastening component (4a, 4b, 4c, 4e, 4f) and intended for detecting the object on the basis of an electromagnetic field which can be assigned to the object, ▪ optionally an arithmetic component for evaluating the detector signal, in particular for deriving and storing distance information with regard to the object, and ▪ a display component (6f, 6g) for displaying or forwarding the detector signal and/or the evaluations of the detector signal, in particular the distance information, characterized in that the detector component has a defined detection direction and is arranged by means of the fastening component on the lower boom component (12a, 12c, 12e, 12f) in such a way that the detection direction is aligned substantially parallel to the longitudinal direction of the lower boom component (12a, 12c, 12e, 12f) and points in the direction of the earth-moving part (13a, 13b, 13c, 13e). ▪ a fastening component (4a, 4b, 4c, 4e, 4f), ▪ a detector component (5a, 5b, 5c, 5d, 5e, 5f) arranged indirectly or directly on the fastening component (4a, 4b, 4c, 4e, 4f) and intended for detecting the object on the basis of an electromagnetic field which can be assigned to the object, ▪ optionally an arithmetic component for evaluating the detector signal, in particular for deriving and storing distance information with regard to the object, and ▪ a display component (6f, 6g) for displaying or forwarding the detector signal and/or the evaluations of the detector signal, in particular the distance information,
Method for operating a refrigeration system for a vehicle, having a refrigerant circuit which has a heat pump function, in which - the refrigerant circuit is designed with an exterior heat exchanger which is either operated as a condenser or gas cooler in order to perform a refrigeration system mode or as a heat-pump evaporator in order to perform a heat pump mode, - the refrigerant circuit is designed with an evaporator and an interior heating condenser or heating gas cooler for performing a heating mode, characterised in that - the interior heating condenser or heating gas cooler is fluidly connected to the exterior heat exchanger, downstream, by means of a post-heating expansion device in order to perform a post-heating mode, wherein - the opening cross-section of the post-heating expansion device is controlled in accordance with a refrigeration system parameter indicating the required post-heating power. - the refrigerant circuit is designed with an exterior heat exchanger which is either operated as a condenser or gas cooler in order to perform a refrigeration system mode or as a heat-pump evaporator in order to perform a heat pump mode, - the refrigerant circuit is designed with an evaporator and an interior heating condenser or heating gas cooler for performing a heating mode, characterised in that - the interior heating condenser or heating gas cooler is fluidly connected to the exterior heat exchanger, downstream, by means of a post-heating expansion device in order to perform a post-heating mode, wherein - the opening cross-section of the post-heating expansion device is controlled in accordance with a refrigeration system parameter indicating the required post-heating power.
Method of operating a thin film deposition apparatus having a substrate support part being movable inside a chamber and supporting a substrate; and a gas supply device having at least one first supply channel for supplying source gas to the substrate, at least one second supply channel for supplying reactant gas and an activation channel being adjacent to the second supply channel, wherein the activation channel has a gas activation unit for activating the reactant gas, and wherein the activation channel has an opened lower portion and a sealed upper portion, the method comprises the steps of: supplying the source gas onto the substrate through the first supply channel in such manner that the source gas is adsorbed on the substrate; exhausting the source gas which is not adsorbed on the substrate; supplying the reactant gas through the second supply channel; introducing the reactant gas supplied from the second supply channel into the activation channel through the opened lower portion; activating the reactant gas introduced into the activation channel by the gas activation unit; and supplying the reactant gas activated by the gas activation unit onto the substrate through the activation channel. supplying the source gas onto the substrate through the first supply channel in such manner that the source gas is adsorbed on the substrate; exhausting the source gas which is not adsorbed on the substrate; supplying the reactant gas through the second supply channel; introducing the reactant gas supplied from the second supply channel into the activation channel through the opened lower portion; activating the reactant gas introduced into the activation channel by the gas activation unit; and supplying the reactant gas activated by the gas activation unit onto the substrate through the activation channel.
A computing system executing an operating system, a user-mode application, and a storage driver, the computing system to: receive, at the storage driver, a request from the user-mode application to perform an I/O operation associated with a storage device; provide the request to the storage device, wherein providing the request to the storage device comprises storing an entry associated with the request in a submission queue of the storage device; when no previous deferred procedure call is scheduled with respect to a completion queue corresponding to the submission queue, transmit, from the storage driver, a request to the operating system to schedule a deferred procedure call to determine whether the I/O operation is complete; determine, by the operating system, to execute the scheduled deferred procedure call; execute, by the operating system, the scheduled deferred procedure call to determine that the I/O operation is complete; transmit a return corresponding to the completed I/O operation to the user-mode application; determine, after the determination that the I/O operation is complete, whether the submission queue of the storage driver contains an outstanding request for performing a further I/O operation; and if it is determined that the submission queue of the storage driver contains an outstanding request for performing the further I/O operation, transmit, from the storage driver, a request to the operating system to re-schedule the deferred procedure call to determine whether the further I/O operation is complete. receive, at the storage driver, a request from the user-mode application to perform an I/O operation associated with a storage device; provide the request to the storage device, wherein providing the request to the storage device comprises storing an entry associated with the request in a submission queue of the storage device; when no previous deferred procedure call is scheduled with respect to a completion queue corresponding to the submission queue, transmit, from the storage driver, a request to the operating system to schedule a deferred procedure call to determine whether the I/O operation is complete; determine, by the operating system, to execute the scheduled deferred procedure call; execute, by the operating system, the scheduled deferred procedure call to determine that the I/O operation is complete; transmit a return corresponding to the completed I/O operation to the user-mode application; determine, after the determination that the I/O operation is complete, whether the submission queue of the storage driver contains an outstanding request for performing a further I/O operation; and if it is determined that the submission queue of the storage driver contains an outstanding request for performing the further I/O operation, transmit, from the storage driver, a request to the operating system to re-schedule the deferred procedure call to determine whether the further I/O operation is complete.
Operator platform designed as an exchangeable assembly unit, in particular for a mobile construction machine, comprising a base plate, a carriage arranged above the base plate, a seat mounting arranged above and on the carriage, and a guide arranged below the base plate, wherein - the base plate forms a first and a second through hole (32, 34), in particular each in the form of a slot opening; and wherein - the guide is designed, in particular, in the form of a linear guide; and wherein - the carriage and the seat mounting are arranged above the base plate; and wherein - the carriage is guided on the guide via guide means which pass through the first through hole and the second through hole of the base plate; and wherein - the carriage is movable translationally toward the guide; and wherein - the seat mounting is rotatable about an axis of rotation. - the base plate forms a first and a second through hole (32, 34), in particular each in the form of a slot opening; and wherein - the guide is designed, in particular, in the form of a linear guide; and wherein - the carriage and the seat mounting are arranged above the base plate; and wherein - the carriage is guided on the guide via guide means which pass through the first through hole and the second through hole of the base plate; and wherein - the carriage is movable translationally toward the guide; and wherein - the seat mounting is rotatable about an axis of rotation.
Adduct of general formula TPP x TPOP (1-x) wherein - TPP designates triphenylphosphine; - TPOP designates triphenyl phosphite; and - x is a real number comprised between 0.05 and 0.9. - TPP designates triphenylphosphine; - TPOP designates triphenyl phosphite; and - x is a real number comprised between 0.05 and 0.9.
A method for forming a mixed droplet, the method comprising: forming a droplet of a first fluid; and contacting the droplet of the first fluid with a bolus of a second fluid stream in the presence of a drop track, wherein the bolus protrudes into a first fluid stream comprising the droplet of the first fluid, and wherein a portion of the bolus segments from the second fluid stream and integrates with the droplet of the first fluid to form a mixed droplet, characterized in that the drop track is a trench in the floor, ceiling or side wall of a rectangular microfluidic channel, the channel having a height that is substantially smaller than the diameter of the droplet of the first fluid. forming a droplet of a first fluid; and contacting the droplet of the first fluid with a bolus of a second fluid stream in the presence of a drop track, wherein the bolus protrudes into a first fluid stream comprising the droplet of the first fluid, and wherein a portion of the bolus segments from the second fluid stream and integrates with the droplet of the first fluid to form a mixed droplet, characterized in that the drop track is a trench in the floor, ceiling or side wall of a rectangular microfluidic channel, the channel having a height that is substantially smaller than the diameter of the droplet of the first fluid.
A vehicle side door structure, comprising: a door inner panel that is disposed along a vehicle front and rear direction, has a vehicle front and rear direction end portion side disposed on a vehicle width direction outer side of a pillar, and is configured to include a first opposing wall portion that is formed on the end portion side and opposes the pillar in the vehicle width direction and a second opposing wall portion that is bent inward in the vehicle width direction with respect to the first opposing wall portion and opposes the pillar in the vehicle front and rear direction; a door outer panel that is disposed on the vehicle width direction outer side of the door inner panel, opposes the door inner panel in the vehicle width direction, and has a peripheral edge portion joined to a peripheral edge portion of the door inner panel; an impact beam that is disposed between the door inner panel and the door outer panel in such a way that its lengthwise direction coincides with the vehicle front and rear direction; and an impact beam extension that is provided at a lengthwise direction end portion of the impact beam, is overlaid on the first opposing wall portion, and is welded to the first opposing wall portion, characterized in that the impact beam extension overlaps at least part of a weak portion formed in the second opposing wall portion as seen from the outer side in the vehicle width direction, the weak portion is a through hole formed in the second opposing wall portion, and the through hole defines a hollow space being free from any structure disposed therein. a door inner panel that is disposed along a vehicle front and rear direction, has a vehicle front and rear direction end portion side disposed on a vehicle width direction outer side of a pillar, and is configured to include a first opposing wall portion that is formed on the end portion side and opposes the pillar in the vehicle width direction and a second opposing wall portion that is bent inward in the vehicle width direction with respect to the first opposing wall portion and opposes the pillar in the vehicle front and rear direction; a door outer panel that is disposed on the vehicle width direction outer side of the door inner panel, opposes the door inner panel in the vehicle width direction, and has a peripheral edge portion joined to a peripheral edge portion of the door inner panel; an impact beam that is disposed between the door inner panel and the door outer panel in such a way that its lengthwise direction coincides with the vehicle front and rear direction; and an impact beam extension that is provided at a lengthwise direction end portion of the impact beam, is overlaid on the first opposing wall portion, and is welded to the first opposing wall portion, characterized in that the impact beam extension overlaps at least part of a weak portion formed in the second opposing wall portion as seen from the outer side in the vehicle width direction, the weak portion is a through hole formed in the second opposing wall portion, and the through hole defines a hollow space being free from any structure disposed therein.
Tyre, the tread of which comprises a rubber composition based on at least: - an elastomer matrix comprising more than 50% by weight of a solution SBR bearing a silanol function and an amine function, - a reinforcing filler present at a content of between 40 and 80 phr, which reinforcing filler comprises between 40 and 80 phr of a silica, - a coupling agent for coupling the silica to the solution SBR, - 10 to 50 phr of a hydrocarbon-based resin having a Tg of greater than 20°C, - 0 to less than 5 phr of a liquid plasticizer. - an elastomer matrix comprising more than 50% by weight of a solution SBR bearing a silanol function and an amine function, - a reinforcing filler present at a content of between 40 and 80 phr, which reinforcing filler comprises between 40 and 80 phr of a silica, - a coupling agent for coupling the silica to the solution SBR, - 10 to 50 phr of a hydrocarbon-based resin having a Tg of greater than 20°C, - 0 to less than 5 phr of a liquid plasticizer.