mhurhangee/ep-ind-claims huggingface dataset:
Inlet system for an Auxiliary Power System ("APS"), the said inlet system comprising: - an inlet having an entrance aperture able to receive a flow from an airstream, - at least an APU air intake duct connection (318, 418a, 418b) able to drive the flow directly to client functions of the APS, - a divider positioned inside the inlet, able to divide the flow to feed in air each client function of the APS, characterized in that, - the divider is a deflector able to move inside the inlet defining variable geometry channels (316a, 316b), in order to guide, optimize and regulate dynamically the flow according to the volume and/or rate of flow required by each active client function of the APS. - an inlet having an entrance aperture able to receive a flow from an airstream, - at least an APU air intake duct connection (318, 418a, 418b) able to drive the flow directly to client functions of the APS, - a divider positioned inside the inlet, able to divide the flow to feed in air each client function of the APS, characterized in that, - the divider is a deflector able to move inside the inlet defining variable geometry channels (316a, 316b), in order to guide, optimize and regulate dynamically the flow according to the volume and/or rate of flow required by each active client function of the APS.
Hydraulic servo-actuated valve comprising a valve body, an actuator and a lid, - the valve body comprising a first duct with a first opening, a second duct with a second opening, a main opening arranged on the valve body between the first duct and the second duct, a clamping flange arranged around the main opening; - the actuator comprising a central actuation region and a peripheral sealing band; - the lid comprising a central portion and a counter-clamping flange, the central portion concurring with the actuator in delimiting an actuating chamber, the counter-clamping flange being adapted to be clamped against the clamping flange with the interposition of said peripheral sealing band of the actuator; said actuator being adapted to make an actuation movement between an open position, which allows the flow between the first duct and the second duct, and a closed position preventing the flow between the first duct and the second duct, said valve being adapted to the connection of a three way operative member, only to the lid or only to the valve body, in such a way that said operative member is connected to the first duct, to the second duct and to the actuating chamber, said valve being characterized by comprising a composite actuating duct longitudinally extending between the clamping flange and the counter-clamping flange, said composite actuating duct being obtained by joining solely a first element and one second element, said composite actuating duct being connected to at least one of the first duct, the second duct and the actuating chamber, a plan transversally intersecting said composite actuating duct intersecting both said first element and said second element, said first element comprising the counter-clamping flange of the lid or the clamping flange of the valve body and said second element comprising the peripheral sealing band of the actuator. - the valve body comprising a first duct with a first opening, a second duct with a second opening, a main opening arranged on the valve body between the first duct and the second duct, a clamping flange arranged around the main opening; - the actuator comprising a central actuation region and a peripheral sealing band; - the lid comprising a central portion and a counter-clamping flange, the central portion concurring with the actuator in delimiting an actuating chamber, the counter-clamping flange being adapted to be clamped against the clamping flange with the interposition of said peripheral sealing band of the actuator;
A hydrogen/bromine reduction-oxidation flow battery system comprising: a bromine electrode; a hydrogen electrode; a membrane positioned between the bromine electrode and the hydrogen electrode; a first catalyst associated with the bromine electrode; and a second catalyst associated with the hydrogen electrode and including a subsurface alloy configured (i) to promote facile dissociation of H 2, and (ii) to prevent bromide from adsorbing onto the hydrogen electrode, wherein: the subsurface alloy includes a solute metal and a host metal, wherein the solute metal is copper or gold, and wherein the host metal is Pt. a bromine electrode; a hydrogen electrode; a membrane positioned between the bromine electrode and the hydrogen electrode; a first catalyst associated with the bromine electrode; and a second catalyst associated with the hydrogen electrode and including a subsurface alloy configured (i) to promote facile dissociation of H 2, and (ii) to prevent bromide from adsorbing onto the hydrogen electrode, wherein: the subsurface alloy includes a solute metal and a host metal, wherein the solute metal is copper or gold, and wherein the host metal is Pt. the subsurface alloy includes a solute metal and a host metal, wherein the solute metal is copper or gold, and wherein the host metal is Pt.
A passenger car motor oil lubricating composition comprising: a blend of base oils of lubricating viscosity including one or more API Group II base oils and one or more API Group III base oils and/or one or more API Group IV base oils; oil soluble nitrogen-containing dispersant additives comprising (i) at least one boronated oil soluble nitrogen-containing dispersant additive and (ii) at least one non-boronated oil soluble nitrogen-containing dispersant additive wherein the oil soluble nitrogen-containing dispersant additives provide an amount of dispersant boron, an amount of dispersant nitrogen, and a dispersant total base number to the passenger car motor oil lubricating composition; metal-containing detergent additives including (i) at least one calcium-containing detergent additive and (ii) at least one magnesium-containing detergent additive; wherein the passenger car motor oil lubricating composition has a ratio of the dispersant boron, the dispersant nitrogen, and the dispersant TBN provided by the dispersant formula B/(N*TBN) of less than 0.25. a blend of base oils of lubricating viscosity including one or more API Group II base oils and one or more API Group III base oils and/or one or more API Group IV base oils; oil soluble nitrogen-containing dispersant additives comprising (i) at least one boronated oil soluble nitrogen-containing dispersant additive and (ii) at least one non-boronated oil soluble nitrogen-containing dispersant additive wherein the oil soluble nitrogen-containing dispersant additives provide an amount of dispersant boron, an amount of dispersant nitrogen, and a dispersant total base number to the passenger car motor oil lubricating composition; metal-containing detergent additives including (i) at least one calcium-containing detergent additive and (ii) at least one magnesium-containing detergent additive; wherein the passenger car motor oil lubricating composition has a ratio of the dispersant boron, the dispersant nitrogen, and the dispersant TBN provided by the dispersant formula B/(N*TBN) of less than 0.25.
A hydrosilylation-curable silicone rubber composition comprising: 100 parts by mass of an organopolysiloxane having an average degree of polymerization of 50 to 10000 and containing at least two alkenyl groups bonded to a silicon atom in one molecule; 10 to 400 parts by mass of a silicone resin which includes units selected from R 1 SiO1/2 unit (unit M), SiO4/2 unit (unit Q), R 2 SiO2/2 unit (unit D), and R 3 SiO3/2 unit (unit T) and in which a sum of the unit M, unit Q and unit T in the whole structural units is 80% by mole or more, wherein R 1, R 2 and R 3 are a monovalent hydrocarbon group having 1 to 6 carbon atoms, and at least two in one molecule are alkenyl groups; an organohydrogenpolysiloxane containing at least two hydrogen atoms bonded to a silicon atom in one molecule, in an amount in which the number of the hydrogen atoms bonded to a silicon atom per one alkenyl group bonded to a silicon atom in the component and the component is 1.0 to 10.0; a rare-earth salt of a carboxylic acid represented by the formula or a mixture thereof: (RCOO) n M wherein R is a monovalent hydrocarbon group having 4 to 10 carbon atoms, n is a number of 3 to 4, and M is a rare-earth element selected from cerium (Ce), lanthanum (La), neodymium (Nd), praseodymium (Pr), and samarium (Sm; and a hydrosilylation reaction catalyst, wherein the content of the rare-earth salt of a carboxylic acid of the component as cerium is 5 to 300 ppm relative to 100 parts by mass of the component. 100 parts by mass of an organopolysiloxane having an average degree of polymerization of 50 to 10000 and containing at least two alkenyl groups bonded to a silicon atom in one molecule; 10 to 400 parts by mass of a silicone resin which includes units selected from R 1 SiO1/2 unit (unit M), SiO4/2 unit (unit Q), R 2 SiO2/2 unit (unit D), and R 3 SiO3/2 unit (unit T) and in which a sum of the unit M, unit Q and unit T in the whole structural units is 80% by mole or more, wherein R 1, R 2 and R 3 are a monovalent hydrocarbon group having 1 to 6 carbon atoms, and at least two in one molecule are alkenyl groups; an organohydrogenpolysiloxane containing at least two hydrogen atoms bonded to a silicon atom in one molecule, in an amount in which the number of the hydrogen atoms bonded to a silicon atom per one alkenyl group bonded to a silicon atom in the component and the component is 1.0 to 10.0; a rare-earth salt of a carboxylic acid represented by the formula or a mixture thereof: (RCOO) n M wherein R is a monovalent hydrocarbon group having 4 to 10 carbon atoms, n is a number of 3 to 4, and M is a rare-earth element selected from cerium (Ce), lanthanum (La), neodymium (Nd), praseodymium (Pr), and samarium (Sm; and a hydrosilylation reaction catalyst, wherein the content of the rare-earth salt of a carboxylic acid of the component as cerium is 5 to 300 ppm relative to 100 parts by mass of the component.
A video decoding method comprising: at a first block, refining (1304, 1306) a first non-refined motion vector and a second non-refined motion vector to generate a first refined motion vector and a second refined motion vector, wherein refining of the first non-refined motion vector and the second non-refined motion vector is performed using decoder-side motion vector refinement (DMVR); using one or both of the first non-refined motion vector and the second non-refined motion vector, predicting (1310, 1312) motion information of a second block, the second block being a spatial neighbor of the first block; predicting the first block with bi-prediction using the first refined motion vector and the second refined motion vector; determining a deblocking filter strength for the first block based at least in part on the first non-refined motion vector and the second non-refined motion vector; and predicting (1316, 1318) motion information of a third block using at least one of the first refined motion vector and the second refined motion vector, wherein the third block and the first block are collocated blocks in different pictures. at a first block, refining (1304, 1306) a first non-refined motion vector and a second non-refined motion vector to generate a first refined motion vector and a second refined motion vector, wherein refining of the first non-refined motion vector and the second non-refined motion vector is performed using decoder-side motion vector refinement (DMVR); using one or both of the first non-refined motion vector and the second non-refined motion vector, predicting (1310, 1312) motion information of a second block, the second block being a spatial neighbor of the first block; predicting the first block with bi-prediction using the first refined motion vector and the second refined motion vector; determining a deblocking filter strength for the first block based at least in part on the first non-refined motion vector and the second non-refined motion vector; and predicting (1316, 1318) motion information of a third block using at least one of the first refined motion vector and the second refined motion vector, wherein the third block and the first block are collocated blocks in different pictures.
A coating composition comprising a resin material comprising a polyester imide polymer one or more titanate material; one or more OH reactive cross linking material; and one or more acidic polyester material.
A centrifugal separation-type oil separator comprising: an oil separator body having a cylindrical body portion; and a bent pipe provided on an outer peripheral side of the body portion and configured to introduce a fluid containing an oil into an inside of the oil separator body, the bent pipe curving to surround the body portion in a circumferential direction so that a centrifugal force acts on the oil contained in the fluid that flows in an internal flow path of the bent pipe, wherein the bent pipe includes an outer wall portion extending in the circumferential direction of the body portion and expanding radially outward from the body portion, and an inner wall portion extending along the outer wall portion and blocking a radially inner-side open part of the outer wall portion, and the outer wall portion and the inner wall portion are constituted by different members. an oil separator body having a cylindrical body portion; and a bent pipe provided on an outer peripheral side of the body portion and configured to introduce a fluid containing an oil into an inside of the oil separator body, the bent pipe curving to surround the body portion in a circumferential direction so that a centrifugal force acts on the oil contained in the fluid that flows in an internal flow path of the bent pipe, wherein the bent pipe includes an outer wall portion extending in the circumferential direction of the body portion and expanding radially outward from the body portion, and an inner wall portion extending along the outer wall portion and blocking a radially inner-side open part of the outer wall portion, and an outer wall portion extending in the circumferential direction of the body portion and expanding radially outward from the body portion, and an inner wall portion extending along the outer wall portion and blocking a radially inner-side open part of the outer wall portion, and the outer wall portion and the inner wall portion are constituted by different members.
A flow rate measuring device configured to measure a flow rate of a fuel gas flowing through a passage and including a shutoff valve device serving to shut off the passage, the flow rate measuring device comprising: a device controller; a stepping motor configured to rotate a rotating shaft, the stepping motor including a stator having a plurality of coils and configured to rotate by a constant angle depending upon an applied pulse current; a male screw portion on the rotating shaft, the device controller configured to set the number of pulses and frequency of the pulse current applied to each of the coils to control a rotation speed and a rotation angle of the rotating shaft; and a valve element configured to block the passage, the valve element including a female screw portion accommodating the male screw portion, the valve element moving in an axial direction in accordance with rotation of the rotating shaft, wherein a dry lubricating coating resides on a contact surface of the male screw portion and the female screw portion, characterized in that a thread pitch of the male screw portion is in a range from 0.3 to 1 mm, such that the pulse current applied to the motor by the device controller, in relation to an inductance of the motor, is in a range that does not cause explosion of the fuel gas and that allows a thrust force necessary for moving the valve element to be obtained, wherein the device controller is configured to adjust the rotational speed of the motor such that the applied pulse current, voltage and inductance is adjusted to be within intrinsic safety standards. a device controller; a stepping motor configured to rotate a rotating shaft, the stepping motor including a stator having a plurality of coils and configured to rotate by a constant angle depending upon an applied pulse current; a male screw portion on the rotating shaft, the device controller configured to set the number of pulses and frequency of the pulse current applied to each of the coils to control a rotation speed and a rotation angle of the rotating shaft; and a valve element configured to block the passage, the valve element including a female screw portion accommodating the male screw portion, the valve element moving in an axial direction in accordance with rotation of the rotating shaft, wherein a dry lubricating coating resides on a contact surface of the male screw portion and the female screw portion, characterized in that a thread pitch of the male screw portion is in a range from 0.3 to 1 mm, such that the pulse current applied to the motor by the device controller, in relation to an inductance of the motor, is in a range that does not cause explosion of the fuel gas and that allows a thrust force necessary for moving the valve element to be obtained, wherein the device controller is configured to adjust the rotational speed of the motor such that the applied pulse current, voltage and inductance is adjusted to be within intrinsic safety standards.
A method for collaboratively captioning media in a captioning system, the media including video and audio, the method comprising: • receiving a first annotation as a caption in a first language for a media segment from a first device; characterized in that the method comprises: • the captioning system transmitting the first annotation to a second device; • rendering the first annotation as the caption in the first language for the media segment at the second device; • receiving a second annotation, via the captioning system, as the caption in the first language for the media segment from the second device; • performing an analysis on the first and second annotations to automatically select the first or second annotation as the caption in the first language for the media segment, wherein automatically selecting the first or second annotation comprises comparing the first and second annotations to an automatic machine translation of the audio of the media segment and selecting the annotation most similar to the machine translation; and • in response to a request from a third device to stream the media, streaming the video, the audio, and the selected annotation to the third device. • receiving a first annotation as a caption in a first language for a media segment from a first device; • the captioning system transmitting the first annotation to a second device; • rendering the first annotation as the caption in the first language for the media segment at the second device; • receiving a second annotation, via the captioning system, as the caption in the first language for the media segment from the second device; • performing an analysis on the first and second annotations to automatically select the first or second annotation as the caption in the first language for the media segment, wherein automatically selecting the first or second annotation comprises comparing the first and second annotations to an automatic machine translation of the audio of the media segment and selecting the annotation most similar to the machine translation; and • in response to a request from a third device to stream the media, streaming the video, the audio, and the selected annotation to the third device.
A pediatric catheter system, comprising: a catheter adapter having a distal end, a proximal end, and a lumen extending therebetween, wherein an outer surface of the lumen comprises an upper surface and a lower surface; a plurality of wings extends outwardly from the catheter adapter, wherein the plurality of wings is configured to fold upwardly; a housing, wherein the housing is disposed over the catheter adapter and secures the plurality of wings in an upward position, wherein the housing comprises a finger grip; a catheter cannula extending distally from the catheter adapter; a needle hub removably coupled to the proximal end of the catheter adapter and comprising a thumb grip; and an introducer needle extending through the catheter cannula, wherein a proximal end of the introducer needle is secured within the needle hub, CHARACTERIZED IN THAT the catheter adapter comprises a first push tab distal to the plurality of wings, and a second push tab extending upwardly from between the plurality of wings, wherein the first push tab is distal to the housing, and the second push tab is disposed within the housing and fits underneath the housing, wherein a height of the thumb grip is greater than a height of the first push tab, a height of the second push tab, and a height of the finger grip, and wherein when the plurality of wings is in the upward position, a height of the plurality of wings is greater than the height of the second push tab. a catheter adapter having a distal end, a proximal end, and a lumen extending therebetween, wherein an outer surface of the lumen comprises an upper surface and a lower surface; a plurality of wings extends outwardly from the catheter adapter, wherein the plurality of wings is configured to fold upwardly; a housing, wherein the housing is disposed over the catheter adapter and secures the plurality of wings in an upward position, wherein the housing comprises a finger grip; a catheter cannula extending distally from the catheter adapter; a needle hub removably coupled to the proximal end of the catheter adapter and comprising a thumb grip; and an introducer needle extending through the catheter cannula, wherein a proximal end of the introducer needle is secured within the needle hub, CHARACTERIZED IN THAT the catheter adapter comprises a first push tab distal to the plurality of wings, and a second push tab extending upwardly from between the plurality of wings, wherein the first push tab is distal to the housing, and the second push tab is disposed within the housing and fits underneath the housing, wherein a height of the thumb grip is greater than a height of the first push tab, a height of the second push tab, and a height of the finger grip, and wherein when the plurality of wings is in the upward position, a height of the plurality of wings is greater than the height of the second push tab.
A refrigerant system comprising: an electric motor for driving an associated component at a variable speed that is a function of an operating frequency of the electric motor; and a controller; characterised in that the controller is configured to control the operating frequency of the electric motor to provide a continuously variable speed drive for the associated component by cycling the operating frequency of the electric motor between at least two frequencies (f 1,f 2) so that the variable speed at which the component is driven is a function of a combination of the at least two frequencies; wherein the at least two frequencies are such that their combination results in an average operating frequency of a desired frequency (f 0) and avoids undesired characteristics that may be associated with operating continuously at the desired frequency (f 0). an electric motor for driving an associated component at a variable speed that is a function of an operating frequency of the electric motor; and a controller; characterised in that the controller is configured to control the operating frequency of the electric motor to provide a continuously variable speed drive for the associated component by cycling the operating frequency of the electric motor between at least two frequencies (f 1,f 2) so that the variable speed at which the component is driven is a function of a combination of the at least two frequencies; wherein the at least two frequencies are such that their combination results in an average operating frequency of a desired frequency (f 0) and avoids undesired characteristics that may be associated with operating continuously at the desired frequency (f 0).