mhurhangee/ep-ind-claims huggingface dataset:
A method of decelerating a supersonic flow for a supersonic propulsion system; the method comprising: cruising the supersonic propulsion system at a predetermined supersonic speed; receiving a supersonic flow in an inlet of the supersonic propulsion system having a compression surface and a cowl lip, the cowl lip spatially separated from the compression surface such that the cowl lip and the compression surface define an inlet opening for receiving a supersonic flow; generating an initial shockwave from a leading edge of the compression surface of the inlet; generating a terminal shockwave that, during operation of the supersonic inlet at said predetermined supersonic cruise speed, extends from the compression surface to intersect the initial shock wave at a point substantially adjacent to the cowl lip; generating isentropic compression of the supersonic flow by a curved section of the compression surface that is characterized by a series of Mach lines where, during operation of the supersonic inlet at the predetermined supersonic speed, at least a plurality of the Mach lines extending from the curved section do not focus on the point substantially adjacent to the cowl lip. cruising the supersonic propulsion system at a predetermined supersonic speed; receiving a supersonic flow in an inlet of the supersonic propulsion system having a compression surface and a cowl lip, the cowl lip spatially separated from the compression surface such that the cowl lip and the compression surface define an inlet opening for receiving a supersonic flow; generating an initial shockwave from a leading edge of the compression surface of the inlet; generating a terminal shockwave that, during operation of the supersonic inlet at said predetermined supersonic cruise speed, extends from the compression surface to intersect the initial shock wave at a point substantially adjacent to the cowl lip; generating isentropic compression of the supersonic flow by a curved section of the compression surface that is characterized by a series of Mach lines where, during operation of the supersonic inlet at the predetermined supersonic speed, at least a plurality of the Mach lines extending from the curved section do not focus on the point substantially adjacent to the cowl lip.
An ice making apparatus for a refrigerator including an ice tray for accommodating water for making ice, a sensor unit installed at a lower portion of the ice tray, a sensor wire having a connection terminal connected with the sensor unit for transferring data measured by the sensor unit to a controller of the refrigerator, and a driving unit formed at one side of the ice tray and including a controller or a motor to rotate the ice tray, wherein the ice making apparatus further comprises; a driving rotational shaft formed at one side of the ice tray and rotated by the motor of the driving unit; a rotational shaft support unit formed on the opposite side of the driving unit, supporting the other side of the ice tray, and having a rotational shaft hole; and a support rotational shaft formed on the other side of the ice tray, inserted into the rotational shaft hole of the rotational shaft support unit, supportedly rotated therein, and having a through hole allowing the sensor wire to pass therethrough, wherein the connection terminal is thicker than the through hole, wherein the support rotational shaft includes a cutaway portion formed on one side of the support rotational shaft and allowing a through hole to be exposed in a length direction, and wherein the cutaway portion comprises: a first cutaway portion allowing the sensor wire to be drawn out; and a second cutaway portion allowing the sensor wire to be pushed to be inserted therein. a first cutaway portion allowing the sensor wire to be drawn out; and a second cutaway portion allowing the sensor wire to be pushed to be inserted therein.
A method of inactivating a pathogenic microorganism by using a blood bag system which comprises a blood bag holding an anticoagulant, a container holding an inactivator that inactivates a microorganism contained in blood, and a connecting tube connected liquid-tightly to the container, wherein the inactivator contains as a main component a platinum compound capable of binding to nucleic acid of the microorganism or an aquo complex of the platinum compound;; the method comprises a step of introducing blood into the blood bag, a step of introducing the inactivator into the blood bag through the connecting tube from the container, and characterized by a step of introducing a neutralizing agent into the blood bag to neutralize the inactivator.
An inflatable product comprising: a first sheet; a second sheet disposed opposite the first sheet, the first and second sheets (1, 2) spaced apart when the product is inflated to define a gap; a tensioning structure spanning the gap between the first sheet and the second sheet, the tensioning structure comprising: a plurality of strands uniformly spaced apart and arranged substantially parallel to one another; and a first weld sheet having the plurality of strands uniformly affixed to a surface of the first weld sheet a second weld sheet disposed opposite the first weld sheet, the plurality of strands captured between the first and second weld sheets when the first and second weld sheets are welded to one another. a first sheet; a second sheet disposed opposite the first sheet, the first and second sheets (1, 2) spaced apart when the product is inflated to define a gap; a tensioning structure spanning the gap between the first sheet and the second sheet, the tensioning structure comprising: a plurality of strands uniformly spaced apart and arranged substantially parallel to one another; and a first weld sheet having the plurality of strands uniformly affixed to a surface of the first weld sheet a second weld sheet disposed opposite the first weld sheet, the plurality of strands captured between the first and second weld sheets when the first and second weld sheets are welded to one another. a plurality of strands uniformly spaced apart and arranged substantially parallel to one another; and a first weld sheet having the plurality of strands uniformly affixed to a surface of the first weld sheet a second weld sheet disposed opposite the first weld sheet, the plurality of strands captured between the first and second weld sheets when the first and second weld sheets are welded to one another.
A material for use as a wound dressing, the material being in the form of a roll and comprising gel forming fibres, characterised in that the gel forming fibres are in the form of a non woven mat and the material has lines of longitudinal stitching made in nylon or polyolefin yarn.
A method for producing a compound represented by Formula, the method comprising: causing a condensation reaction of a compound represented by Formula or a salt thereof and a compound represented by Formula (CA-1) by using 4-(4,6-dimethoxy-1,3,5-triazin-2-yl)-4-methylmorpholinium chloride (DMT-MM) as a condensation agent to obtain the compound represented by Formula,
A knitted component forming an upper for an article of footwear, the knitted component comprising: a first surface and a second surface, the first surface facing opposite the second surface, wherein the first surface is formed by a first knit layer and the second surface is formed by a second knit layer, the first surface including at least a first yarn and the second surface including at least a second yarn, the first and second yarns being different, wherein the first surface and the second surface are secured via a knit structure of the knitted component, wherein the first surface includes an exposed first surface area located in a first zone, wherein the first yarn is incorporated into the second knit layer at least at some locations such that the first knit layer and the second knit layer are bound together and inseparable, wherein the knitted component is characterized in that the exposed first surface area is formed by both the first yarn and the second yarn with at least 70% of the exposed first surface area being formed of the first yarn, wherein the first yarn has a tenacity of at least 54 grams per tex (6 g/D) and the second yarn has a tenacity within a range of 13,5 to 36,0 grams per tex (1,5 g/D to 4 g/D). a first surface and a second surface, the first surface facing opposite the second surface, wherein the first surface is formed by a first knit layer and the second surface is formed by a second knit layer, the first surface including at least a first yarn and the second surface including at least a second yarn, the first and second yarns being different, wherein the first surface and the second surface are secured via a knit structure of the knitted component, wherein the first surface includes an exposed first surface area located in a first zone, wherein the first surface and the second surface are secured via a knit structure of the knitted component, wherein the first surface includes an exposed first surface area located in a first zone, wherein the first yarn is incorporated into the second knit layer at least at some locations such that the first knit layer and the second knit layer are bound together and inseparable, wherein the knitted component is characterized in that the exposed first surface area is formed by both the first yarn and the second yarn with at least 70% of the exposed first surface area being formed of the first yarn, wherein the first yarn has a tenacity of at least 54 grams per tex (6 g/D) and the second yarn has a tenacity within a range of 13,5 to 36,0 grams per tex (1,5 g/D to 4 g/D).
An electrical system including: a three phase AC input supply; three or more H-bridge converter cells (A1-A4, B1-B4, C1-C4), each H-bridge converter cell having: an active front end rectifier for receiving the three phase AC input supply and transforming it into a DC supply providing a rectifier current i i, a capacitor suitable to receive a capacitor current i c, the capacitor smoothing the DC supply, and an inverter suitable to receive an inverter current i o, wherein i o = i i - i c, said inverter transforming the received inverter current i o into a single phase AC supply; and a control subsystem, which provides a signal to each active front end rectifier to vary its respective rectifier current i i such that the difference between the rectifier current i i, provided by the active front end rectifier, and the inverter current i o, received by the inverter, is substantially zero, characterised in that the control subsystem modifies said signal based upon a feed-forward load current corresponding to the inverter current i o. a three phase AC input supply; three or more H-bridge converter cells (A1-A4, B1-B4, C1-C4), each H-bridge converter cell having: an active front end rectifier for receiving the three phase AC input supply and transforming it into a DC supply providing a rectifier current i i, a capacitor suitable to receive a capacitor current i c, the capacitor smoothing the DC supply, and an inverter suitable to receive an inverter current i o, wherein i o = i i - i c, said inverter transforming the received inverter current i o into a single phase AC supply; and an active front end rectifier for receiving the three phase AC input supply and transforming it into a DC supply providing a rectifier current i i, a capacitor suitable to receive a capacitor current i c, the capacitor smoothing the DC supply, and an inverter suitable to receive an inverter current i o, wherein i o = i i - i c, said inverter transforming the received inverter current i o into a single phase AC supply; and a control subsystem, which provides a signal to each active front end rectifier to vary its respective rectifier current i i such that the difference between the rectifier current i i, provided by the active front end rectifier, and the inverter current i o, received by the inverter, is substantially zero, characterised in that the control subsystem modifies said signal based upon a feed-forward load current corresponding to the inverter current i o.
A system for ablating a tissue material of a patient disposed adjacent to a blood vessel, the system comprising: an elongate catheter body for delivery into a blood vessel, the catheter body having a proximal end and a distal end with an axis therebetween; a radially expandable structure near the distal end of the catheter body, the radially expandable structure being configured to shift between a non-expanded configuration and a helical configuration when expanded; a plurality of electrodes disposed along the radially expandable structure, the plurality of electrodes being capable of ablating a target tissue along the blood vessel; an actuation member for shifting the radially expandable structure between the non-expanded configuration and the helical configuration; and a controller configured to direct different power levels to differing electrodes of the plurality of electrodes. an elongate catheter body for delivery into a blood vessel, the catheter body having a proximal end and a distal end with an axis therebetween; a radially expandable structure near the distal end of the catheter body, the radially expandable structure being configured to shift between a non-expanded configuration and a helical configuration when expanded; a plurality of electrodes disposed along the radially expandable structure, the plurality of electrodes being capable of ablating a target tissue along the blood vessel; an actuation member for shifting the radially expandable structure between the non-expanded configuration and the helical configuration; and a controller configured to direct different power levels to differing electrodes of the plurality of electrodes.
Glass comprising: Ingredient wt. % SiO 2 70.5 - 71.5 % Na 2 O 12.75 - 14 % CaO 8 - 11 % MgO 2 - 5 % K 2 O 0 - 0.3% Al 2 O 3 1 - 2% MnO 0 - 0.005 % Cr 2 O 3 0.0001 - 0.005% total iron, expressed as Fe 2 O 3 0.005 to 0.0 2% FeO 0 to 0.0015% cerium oxide 0% antimony oxide 0 - 0.01% boron oxide 0.5 to 1.5 % SO 3 0.25 to 0.4 7% wherein the glass has a glass redox of no greater than 0.09, a USPX value measured according to method P-W of ASTM C225-85 of no greater than 5.8, and a total solar transmission measured according to ISO 9090 1.5 AM at 3,2 mm reference thickness of at least 90.8%.
An apparatus (41, 45, 49) for controlling a load handling device of an industrial vehicle, the load handling device having a mast assembly and a load handling attachment attached to the mast assembly, the apparatus (41, 45, 49) that controls tilting operation of the mast assembly and lifting and lowering operation of the load handling attachment, comprising: a tilt angle detector that detects a tilt angle of the mast assembly; a controller that regulates a lifting speed of the load handling attachment when a forward tilt angle of the mast assembly is greater than a predetermined regulation tilt angle; and a determination device that determines whether or not the load handling attachment is being lifted off the ground, characterized in that when the determination device determines that the load handling attachment is being lifted off the ground, the controller permits the load handling attachment to be lifted at a speed faster than the regulated lifting speed. a tilt angle detector that detects a tilt angle of the mast assembly; a controller that regulates a lifting speed of the load handling attachment when a forward tilt angle of the mast assembly is greater than a predetermined regulation tilt angle; and a determination device that determines whether or not the load handling attachment is being lifted off the ground, characterized in that
Antireturn system for preventing an operating organ of an automotive vehicle to reach an operating position, the said antireturn system comprising a reception surface made in at least one wall of the operating organ and a control device intended to cooperate with the said reception surface in so that the operating organ is prevented from reaching an operating position, wherein the said anti-return system comprises also elastic means carried by a support and configured to cooperate with the control device by applying at least two perpendicular forces (121, 122) on the control device for making a permanent contact between the said control device and the reception surface wherein the support of the elastic means is fixed to the control device by fixing means (130, 131) enabling relative motion between the said control device and the said support and the fixing means (130, 131) comprises an elongated hole associated to a pin capable of coming through the said hole.
Interactive system for a device comprising a control unit (UCd), means for distributing a multimedia content (Md), the control unit (UCd) cooperating with said means to ensure the controlling thereof, the system comprising a processing unit comprising communication means and a microcontroller, at least one tag (T1, T2, Ti, Tn) to be affixed on the means for distributing (Md) the device, said at least one tag comprising the first communication means (Ct) to cooperate directly with the microcontroller of the processing unit via the communication means of said processing unit and the second communication means (At) to enable a wireless communication with a communicating object (Oc) when it is located in range of said at least one tag, the processing unit being arranged to communicate with the control unit (UCd) so as to trigger at least one implementation action by the processing unit comprising the transmission of a distribution request to the control unit (UCd) to modify the amount of multimedia content distributed by the distribution means (Md), in response to a communication initiated by said at least one tag (T1, T2, Ti, Tn) by the first communication means (Ct) and via the communication means to said processing unit (Uc), said communication initiated by said at least one tag (T1, T2, Ti, Tn) following the detection of the communicating object (Oc) by said at least one tag (T1, T2, Ti, Tn).
A device comprising a stub, interposed between two sections (3, 4) of a fixed piping, and with which it is rotationally coupled via sealing means, featuring an inner surface on which means stand to interact with the fluid stream flowing through the piping, which make said stub rotate around an axis parallel to the axis of said piping, characterized in that it comprises a cylindrical counter-rotor, coaxial to said stub, appropriate means, for instance magnets and/or conductors, being located onto said stub and onto said counter-rotor to generate electric energy by way of the relative rotation of the said stub and said counter rotor, said counter-rotor being driven into rotation by said stub.
Augment element (100, 200, 400) for knee prosthesis, comprising a metal body (101, 201, 401) of a substantially truncated conical shape configured to be inserted into a bone extremity and having an outer surface comprising a metal trabecular surface (102, 202, 402), said metal body (101, 201, 401) being hollow with an axial through-cavity (104, 204, 404) defining a plurality of substantially annular transversal sections, wherein said metal body (101, 201, 401) is inclined in a direction of inclination, so as to define at least one eccentricity (112, 412) between a first transversal section at a first end (105, 205, 405) of said axial through-cavity (104, 204, 404) and a second transversal section at a second end (106, 206, 406) of said axial through-cavity (104, 204, 404), characterized by further comprising a plurality of through-slits (110, 210, 410) in said metal body (101, 201, 401), open from said first end (105, 205, 405) up to an intermediate portion on said metal body (101, 201, 401), wherein said plurality of through-slits (110, 210, 410) is configured for a radial compression of said metal body (101, 201, 401), locally reducing a circumference of said substantially annular transversal sections during insertion of said augment element (100, 200, 400), and increasing a press-fit towards a bone portion. said metal body (101, 201, 401) being hollow with an axial through-cavity (104, 204, 404) defining a plurality of substantially annular transversal sections, wherein said metal body (101, 201, 401) is inclined in a direction of inclination, so as to define at least one eccentricity (112, 412) between a first transversal section at a first end (105, 205, 405) of said axial through-cavity (104, 204, 404) and a second transversal section at a second end (106, 206, 406) of said axial through-cavity (104, 204, 404), characterized by further comprising a plurality of through-slits (110, 210, 410) in said metal body (101, 201, 401), open from said first end (105, 205, 405) up to an intermediate portion on said metal body (101, 201, 401), wherein said plurality of through-slits (110, 210, 410) is configured for a radial compression of said metal body (101, 201, 401), locally reducing a circumference of said substantially annular transversal sections during insertion of said augment element (100, 200, 400), and increasing a press-fit towards a bone portion.
An assembly for a structure, comprising: a composite skin extending between an exterior surface and an interior surface; and a thermal anti-icing system comprising a susceptor and a waveguide, the susceptor and the waveguide (44A, 44B) integrated into the composite skin between the exterior surface and the interior surface, and the waveguide (44A, 44B) configured to direct microwaves to the susceptor for melting and/or preventing ice accumulation on the exterior surface. a composite skin extending between an exterior surface and an interior surface; and a thermal anti-icing system comprising a susceptor and a waveguide, the susceptor and the waveguide (44A, 44B) integrated into the composite skin between the exterior surface and the interior surface, and the waveguide (44A, 44B) configured to direct microwaves to the susceptor for melting and/or preventing ice accumulation on the exterior surface.
A method for single pass printing on an absorbent non-white paper substrate, comprising: applying a primer composition to one or more selected surfaces of the substrate to form a primer layer to seal the selected surfaces of the substrate, drying the primer layer, printing a white ink on the primer layer, and drying or curing the white ink, wherein the primer composition is a water based composition comprising an acrylic polymer emulsion, a defoamer, a surfactant or a wetting agent, wax, and water. applying a primer composition to one or more selected surfaces of the substrate to form a primer layer to seal the selected surfaces of the substrate, drying the primer layer, printing a white ink on the primer layer, and drying or curing the white ink, wherein the primer composition is a water based composition comprising an acrylic polymer emulsion, a defoamer, a surfactant or a wetting agent, wax, and water.