mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for filling tanks from a canister with a first adapter device which is suitable for intermittent fastening to the canister and which has a delivery device by means of which a flowable medium can be conveyed out of the canister into the tank, wherein the apparatus has a flushing agent connection in order to deliver a cleaning liquid to at least one component of the apparatus, wherein the apparatus has a further receiving container to temporarily receive the flowable medium to be introduced into the tank and a cleaning device for cleaning this receiving container, wherein the cleaning device has at least one flushing agent channel which enables cleaning liquid to be conveyed from the flushing agent connection to the receiving container, characterised in that the device has an air supply and/or venting arrangement for delivery air to and/or venting air from this receiving container and the cleaning device has at least one outlet element which is oriented in such a way that cleaning liquid exiting from this outlet element reaches an inner wall of the receiving container, wherein this outlet element is arranged in such a way that liquid exiting therefrom produces a vortex inside the receiving container. the apparatus has a further receiving container to temporarily receive the flowable medium to be introduced into the tank and a cleaning device for cleaning this receiving container, wherein the cleaning device has at least one flushing agent channel which enables cleaning liquid to be conveyed from the flushing agent connection to the receiving container, characterised in that the device has an air supply and/or venting arrangement for delivery air to and/or venting air from this receiving container and the cleaning device has at least one outlet element which is oriented in such a way that cleaning liquid exiting from this outlet element reaches an inner wall of the receiving container, wherein this outlet element is arranged in such a way that liquid exiting therefrom produces a vortex inside the receiving container.
Use of a lubricant additive obtained by heating at least one ester selected from an acidic phosphate ester and a phosphite ester represented by the general formula wherein A represents a hydrogen atom or a hydroxyl group, m is 0 or 1, when m is 0, then A is a hydroxyl group, and when m is 1, then A is a hydrogen atom or a hydroxyl group, R 1 and R 2 each independently represent a hydrogen atom, or a hydrocarbon group having 1 to 18 carbon atoms that contains at least one sulfur atom, R 1 and R 2 may be the same or different, but both R 1 and R 2 are not simultaneously hydrogen atoms, and an imide-based disersant containing boron at a temperature of 120 to 150°C for 5 hours or more, wherein the ratio of the component and the component as a weight ratio of boron to phosphorus (B/P) is 0.05 or more, as an additive to a traction drive fluid for automobile continuous variable transmissions.
A soft magnetic material comprising: a plurality of metal magnetic particles, and an additive composed of at least one of a metallic soap and an inorganic lubricant with a hexagonal crystal structure, wherein a ratio of the additive to the plurality of metal magnetic particles is 0.001% by mass or more and 0.2% by mass or less, wherein a coefficient of variation Cv (σ/μ), which is a ratio of a standard deviation (σ) of a particle size of the metal magnetic particles to an average particle size (μ) thereof, is 0.40 or less and a circularity Sf of the metal magnetic particles is 0.80 or more and 1 or less, wherein the circularity Sf = 4 x (area of metal magnetic particle)/(square of circumference of metal magnetic particle), wherein the metal magnetic particle is made of iron or iron alloy, and wherein the area and the circumference are statistically calculated from a projection image of each of the metal magnetic particles. a plurality of metal magnetic particles, and an additive composed of at least one of a metallic soap and an inorganic lubricant with a hexagonal crystal structure, wherein a ratio of the additive to the plurality of metal magnetic particles is 0.001% by mass or more and 0.2% by mass or less, wherein a coefficient of variation Cv (σ/μ), which is a ratio of a standard deviation (σ) of a particle size of the metal magnetic particles to an average particle size (μ) thereof, is 0.40 or less and a circularity Sf of the metal magnetic particles is 0.80 or more and 1 or less, wherein the circularity Sf = 4 x (area of metal magnetic particle)/(square of circumference of metal magnetic particle), wherein the metal magnetic particle is made of iron or iron alloy, and wherein the area and the circumference are statistically calculated from a projection image of each of the metal magnetic particles.
A method of deploying an extensible boom from a housing comprising: providing a support including an array of transducer devices; mounting the support on a first flexible, elongated, rectangular sheet in a housing; supporting the sheet on a spool in the housing under compression in a stowed configuration; wherein the sheet is composed of a composite laminate having a predetermined pattern of graphite fiber plies which impart a predefined tension in the planar surface of the sheet so that it curls into a curvilinear sheet, characterised in that the curvilinear sheet has a uniform radius of curvature along its major axis; and in that the method further comprises the step of releasing the spool so that the sheet unwinds automatically and is deployed from the housing in a linear direction. providing a support including an array of transducer devices; mounting the support on a first flexible, elongated, rectangular sheet in a housing; supporting the sheet on a spool in the housing under compression in a stowed configuration; wherein the sheet is composed of a composite laminate having a predetermined pattern of graphite fiber plies which impart a predefined tension in the planar surface of the sheet so that it curls into a curvilinear sheet, characterised in that the curvilinear sheet has a uniform radius of curvature along its major axis; and in that the method further comprises the step of releasing the spool so that the sheet unwinds automatically and is deployed from the housing in a linear direction.
A combustor can assembly for a gas turbine engine, said combustor can assembly comprising: a plurality of combustor cans spaced circumferentially about the gas turbine engine, each of said combustor cans coupled in flow communication with at least one fuel manifold via a respective can fuel line; a first interconnecting fuel line comprising a first end and a second end, said first end coupled in flow communication with the can fuel line of a first of said combustor cans, said second end coupled in flow communication with the can fuel line of a second of said combustor cans, wherein said second combustor can is not circumferentially adjacent to said first combustor can; characterised by a first control device operatively coupled to said can fuel line of said first combustor can upstream of said first interconnecting fuel line first end, said first control device operable to change a dynamic operational characteristic of said first and second combustor cans (122, 126) independently of others of said plurality of combustor cans in that said first control device is operable to impart a first oscillatory component having a first predetermined frequency to a flow of fuel through said can fuel line of said first combustor can and to a flow of fuel through said can fuel line of said second combustor can. a plurality of combustor cans spaced circumferentially about the gas turbine engine, each of said combustor cans coupled in flow communication with at least one fuel manifold via a respective can fuel line; a first interconnecting fuel line comprising a first end and a second end, said first end coupled in flow communication with the can fuel line of a first of said combustor cans, said second end coupled in flow communication with the can fuel line of a second of said combustor cans, wherein said second combustor can is not circumferentially adjacent to said first combustor can; characterised by a first control device operatively coupled to said can fuel line of said first combustor can upstream of said first interconnecting fuel line first end, said first control device operable to change a dynamic operational characteristic of said first and second combustor cans (122, 126) independently of others of said plurality of combustor cans in that said first control device is operable to impart a first oscillatory component having a first predetermined frequency to a flow of fuel through said can fuel line of said first combustor can and to a flow of fuel through said can fuel line of said second combustor can.
A tip section of a multi-camera endoscope comprising: a fluid channeling component comprising one or more fluid channels configured to direct one or more flows of at least one of insufflation and irrigation fluid, wherein the fluid channeling component comprises a proximal end, a distal end, and sides extending from the proximal end to the distal end; a flexible electronic circuit board; at least one light source (240a, 240b, 240c, 250a, 250b); a front camera having a first optical axis which is directed along the long dimension of the endoscope; a side camera (220a, 220b) having a second optical axis; and wherein the fluid channeling component further comprises one or more support elements (950, 906a, 906b) adapted to receive and support the electronic circuit board, the front camera, the side camera (220a, 220b), and the at least one light source (240a, 240b, 240c, 250a, 250b), wherein the side camera is positioned in the portion of the sides that is planar and wherein the second optical axis is perpendicular to the first optical axis; and wherein the fluid channeling component is configured to be used as a heat sink for the at least one light source (240a, 240b, 240c, 250a, 250b). a fluid channeling component comprising one or more fluid channels configured to direct one or more flows of at least one of insufflation and irrigation fluid, wherein the fluid channeling component comprises a proximal end, a distal end, and sides extending from the proximal end to the distal end; a flexible electronic circuit board; at least one light source (240a, 240b, 240c, 250a, 250b); a front camera having a first optical axis which is directed along the long dimension of the endoscope; a side camera (220a, 220b) having a second optical axis; and wherein the fluid channeling component further comprises one or more support elements (950, 906a, 906b) adapted to receive and support the electronic circuit board, the front camera, the side camera (220a, 220b), and the at least one light source (240a, 240b, 240c, 250a, 250b), wherein the side camera is positioned in the portion of the sides that is planar and wherein the second optical axis is perpendicular to the first optical axis; and wherein the fluid channeling component is configured to be used as a heat sink for the at least one light source (240a, 240b, 240c, 250a, 250b).
A camera controller configured to: receive an input synchronizing signal, transfer a video frame synchronizing signal based on the input synchronizing signal to a camera section, wherein the camera section is connected to the camera controller via a camera cable, and receive a video signal captured by the camera section at a timing of the video frame synchronizing signal; wherein the camera controller is characterized in that it is configured to: measure a mismatch of a timing between the video frame synchronizing signal that is transferred to the camera section and a video frame synchronizing signal in the video signal received from the camera section, advance a phase of the video frame synchronizing signal transferred to the camera section by a half of the mismatch of the timing, and transfer the video frame synchronizing signal to the camera section. receive an input synchronizing signal, transfer a video frame synchronizing signal based on the input synchronizing signal to a camera section, wherein the camera section is connected to the camera controller via a camera cable, and receive a video signal captured by the camera section at a timing of the video frame synchronizing signal; measure a mismatch of a timing between the video frame synchronizing signal that is transferred to the camera section and a video frame synchronizing signal in the video signal received from the camera section, advance a phase of the video frame synchronizing signal transferred to the camera section by a half of the mismatch of the timing, and transfer the video frame synchronizing signal to the camera section.
An apparatus comprising: an electrochemical oxygen sensor further comprising: a housing having first and second compartments; a sensing electrode disposed within the first compartment of the housing; a consumable anode disposed within the second compartment of the housing; a porous separator between the sensing electrode and the consumable anode that separates the first and second compartments; an electrolyte saturating the porous separator and consumable anode; a first aperture on a first end of the housing extending between an outside surface of the housing and the first compartment that allows gas access to the sensing electrode; a second aperture on a second, opposing end of the housing with a diameter of from 5 to 60 microns and a length of from 1.0 to 2.5 mm extending between the outside surface of the housing and the second compartment; a gas permeable, liquid impermeable membrane covering the second aperture, wherein the gas permeable, liquid impermeable membrane has a permeability of 12903 to 38710 s/m; and at least one channel within the second compartment located between an inside wall of the housing and the consumable anode and extending from the second aperture towards the first compartment, wherein the at least one channel is defined by a groove located on at least one of an inner surface of the housing or on an outer surface of the consumable anode. a housing having first and second compartments; a sensing electrode disposed within the first compartment of the housing; a consumable anode disposed within the second compartment of the housing; a porous separator between the sensing electrode and the consumable anode that separates the first and second compartments; an electrolyte saturating the porous separator and consumable anode; a first aperture on a first end of the housing extending between an outside surface of the housing and the first compartment that allows gas access to the sensing electrode; a second aperture on a second, opposing end of the housing with a diameter of from 5 to 60 microns and a length of from 1.0 to 2.5 mm extending between the outside surface of the housing and the second compartment; a gas permeable, liquid impermeable membrane covering the second aperture, wherein the gas permeable, liquid impermeable membrane has a permeability of 12903 to 38710 s/m; and at least one channel within the second compartment located between an inside wall of the housing and the consumable anode and extending from the second aperture towards the first compartment, wherein the at least one channel is defined by a groove located on at least one of an inner surface of the housing or on an outer surface of the consumable anode.
A satellite configured for stacking with another similarly designed satellite and to facilitate separation thereof, the satellite comprising a housing for carrying functional components, the housing further comprising a plurality of pairing arrangements and a separation arrangement; each of said pairing arrangements comprising a post extending perpendicularly to a horizontal plane of the housing, and first and second guide members, first guide members of the satellite being configured to couple with second guide members of the other satellite when stacked therewith; said separation arrangement comprising a thrust element configured to impart an outwardly-directed ejection force configured to facilitate the separation, and a release assembly configured to selectively facilitate allowing said ejection force to propel one of said satellites, thereby initiating the separation; wherein the first guide member of the satellite cooperates with the second guide member of the other satellite to deflect a portion of said ejection force from said horizontal plane during separation. each of said pairing arrangements comprising a post extending perpendicularly to a horizontal plane of the housing, and first and second guide members, first guide members of the satellite being configured to couple with second guide members of the other satellite when stacked therewith; said separation arrangement comprising a thrust element configured to impart an outwardly-directed ejection force configured to facilitate the separation, and a release assembly configured to selectively facilitate allowing said ejection force to propel one of said satellites, thereby initiating the separation; wherein the first guide member of the satellite cooperates with the second guide member of the other satellite to deflect a portion of said ejection force from said horizontal plane during separation.
A hydraulic machine, in particular hydraulic pressure exchanger comprising a drum rotatable about a rotational axis, a first front plate arrangement at a first front face of said drum, a second front plate arrangement at a second front face of said drum, said drum comprising a plurality of working cylinders, said first front plate arrangement comprising a first front plate and a pressure shoe, said first front plate comprising at least a port, characterized in that the pressure shoe comprises at least a pressure cylinder, said pressure cylinder opening to said first front plate, a piston being arranged in said pressure cylinder, said pressure cylinder being in fluid contact with said port.
A guided retainer (26, 28, 36, 38) for movably coupling a holder (12, 14) to a plate (24, 34) of a stamping die for use in a press, the guided retainer comprising: a pin that has a first end and a second end, the first end having an enlarged portion separated from the second end by an offset wherein the pin includes a groove in a circumference of the pin proximate the second end; a bushing that is received on and is slidable relative to the pin into an abutting relationship with the offset; and a clamp that is received on and is slidable relative to the pin, the clamp being configured to receive a fastener for coupling the clamp to the holder, and when the clamp is coupled to the holder, the clamp fixes the bushing in fixed position relative to the holder; wherein when the guided retainer is assembled with the said holder and the said plate, the guided retainer is capable of transferring motion of the said holder to the said plate during movement of the said press to an opened position for insertion of a said workpiece into the said stamping die, the guided retainer being characterized in that it further comprises: a retainer plate that is received in the groove, the retainer plate being configured to receive a fastener for coupling the retainer plate to the plate. a pin that has a first end and a second end, the first end having an enlarged portion separated from the second end by an offset wherein the pin includes a groove in a circumference of the pin proximate the second end; a bushing that is received on and is slidable relative to the pin into an abutting relationship with the offset; and a clamp that is received on and is slidable relative to the pin, the clamp being configured to receive a fastener for coupling the clamp to the holder, and when the clamp is coupled to the holder, the clamp fixes the bushing in fixed position relative to the holder; wherein when the guided retainer is assembled with the said holder and the said plate, the guided retainer is capable of transferring motion of the said holder to the said plate during movement of the said press to an opened position for insertion of a said workpiece into the said stamping die, the guided retainer being characterized in that it further comprises: a retainer plate that is received in the groove, the retainer plate being configured to receive a fastener for coupling the retainer plate to the plate.
Electrolyzer comprising an electrolysis stack containing a plurality of panel-like electrolysis cells in a side-by-side arrangement being electrically interconnected in series, wherein each electrolysis cell comprises an anode chamber with an anode arranged therein and a cathode chamber with a cathode arranged therein, wherein the anode chamber and the cathode chamber are separated from one another by a sheet-like separator, and means for mechanically securing the electrical interconnection of the electrolysis stack, characterized in that the stack contains at least two multi-cell elements, each comprising a plurality of the electrolysis cells and mechanical compression means, wherein the electrolysis cells of each multi-cell element are held together in a sealed manner by the mechanical compression means, and wherein the means are configured to mechanically secure the electrical interconnection of the multi-cell elements, wherein the means for mechanically securing the electrical interconnection of the electrolysis stack are arranged to interact with the outmost electrolysis cells of the stack in order to exert a defined compressive force on the stack, or wherein the means for mechanically securing the electrical interconnection of the electrolysis stack are attached to at least two neighboring multi-cell elements in order to provide a contact pressure for the neighboring multi-cell elements. an electrolysis stack containing a plurality of panel-like electrolysis cells in a side-by-side arrangement being electrically interconnected in series, wherein each electrolysis cell comprises an anode chamber with an anode arranged therein and a cathode chamber with a cathode arranged therein, wherein the anode chamber and the cathode chamber are separated from one another by a sheet-like separator, and means for mechanically securing the electrical interconnection of the electrolysis stack, characterized in that the stack contains at least two multi-cell elements, each comprising a plurality of the electrolysis cells and mechanical compression means, wherein the electrolysis cells of each multi-cell element are held together in a sealed manner by the mechanical compression means, and wherein the means are configured to mechanically secure the electrical interconnection of the multi-cell elements, wherein the means for mechanically securing the electrical interconnection of the electrolysis stack are arranged to interact with the outmost electrolysis cells of the stack in order to exert a defined compressive force on the stack, or wherein the means for mechanically securing the electrical interconnection of the electrolysis stack are attached to at least two neighboring multi-cell elements in order to provide a contact pressure for the neighboring multi-cell elements.