mhurhangee/ep-ind-claims huggingface dataset:
A frame assembly (60, 160) for a patient interface device (2, 102), comprising: a main frame member (4, 104) having two main arms (110A, 110B); wherein each of the two main arms (110A, 110B) is defined by a stiffening structure (62, 162), the stiffening structure having a main arm (64, 164), a first Y-portion coupled to a first end of the main arm (64, 164) having first and second front branches (68, 168; 70, 170) extending at upward and downward angles, respectively, from the first end of the main arm (64, 164), and a second Y-portion coupled to a second end of the main arm (64, 164) having first and second rear branches (72, 172; 74, 174) extending at upward and downward angles, respectively, from the second end of the main arm (64, 164), characterized in that the stiffening structure (62, 162) is made of a thermoplastic material and is disposed in the main frame member (4, 104), wherein the main frame member (4, 104) is made of a flexible silicone material, and the main frame member (4, 104) is overmolded onto the stiffening structure (62, 162). a main frame member (4, 104) having two main arms (110A, 110B); wherein each of the two main arms (110A, 110B) is defined by a stiffening structure (62, 162), the stiffening structure having a main arm (64, 164), a first Y-portion coupled to a first end of the main arm (64, 164) having first and second front branches (68, 168; 70, 170) extending at upward and downward angles, respectively, from the first end of the main arm (64, 164), and a second Y-portion coupled to a second end of the main arm (64, 164) having first and second rear branches (72, 172; 74, 174) extending at upward and downward angles, respectively, from the second end of the main arm (64, 164),
Fuel cell system with a number of fuel cell modules (1, 2, 3), which are operated with the reactants hydrogen and oxygen and have an inlet (4, 6) and an outlet (5, 7) for each of the two reactants respectively, by way of which they are switched in parallel in two separate circuits (8, 9) of the two reactants, into which the appropriate reactant can be introduced by way of a supply valve (10, 12) and can be discharged by way of a discharge valve (11, 13) in each case, wherein the fuel cell modules (1, 2, 3) are connected at their inlets (4, 6) and outlets (5, 7) via controllable on/off valves (18, 19, 21, 22) to the reactant circuits (8, 9) and sensors (22, 28) for detecting the respective other reactants are connected to the outlets (5, 7) for at least one of the two reactants, said sensors generating signals when a concentration of the respective other reactant, which exceeds a predetermined threshold value, is detected, in order to separate the fuel cell modules (1, 2, 3), at the outlets (5, 7) of which the exceeding of the threshold value was detected, from the two reactant circuits (8, 9) by way of the on/off valves (18, 19, 21, 2).
A power conversion device, comprising: a thermal conductive substrate having a first surface and a second surface opposite to each other; an on board charger module circuit assembly disposed on the first surface; a DC-to-DC converter circuit assembly disposed on the first surface and under the on board charger module circuit assembly; and at least one electric wire, an end of the electric wire connecting with the DC-to-DC converter circuit assembly, another end of the electric wire connecting with the on board charger module circuit assembly. a thermal conductive substrate having a first surface and a second surface opposite to each other; an on board charger module circuit assembly disposed on the first surface; a DC-to-DC converter circuit assembly disposed on the first surface and under the on board charger module circuit assembly; and at least one electric wire, an end of the electric wire connecting with the DC-to-DC converter circuit assembly, another end of the electric wire connecting with the on board charger module circuit assembly.
An electric shock protection contactor (100, 100', 200, 200', 300, 300') configured for electrically connecting between a conductor of an electronic device and a circuit board of the electronic device and comprising: a conductive connection unit (110, 210, 310, 320, 330) having an elastic force and electrically in contact with the conductor of the electronic device; and an electric shock protection element (120, 120', 120", 220) connected to the conductive connection unit (110, 210, 310, 320, 330) in series via a conductive adhesive layer coated on a connection electrode (122, 222) of the electric shock protection element (120, 120', 120", 220) and blocking a leakage current of an external power source that is introduced from ground of the circuit board of the electronic device. a conductive connection unit (110, 210, 310, 320, 330) having an elastic force and electrically in contact with the conductor of the electronic device; and an electric shock protection element (120, 120', 120", 220) connected to the conductive connection unit (110, 210, 310, 320, 330) in series via a conductive adhesive layer coated on a connection electrode (122, 222) of the electric shock protection element (120, 120', 120", 220) and blocking a leakage current of an external power source that is introduced from ground of the circuit board of the electronic device.
A vehicle control unit (100A, 100B, 100C) comprising: a control unit connectable to a first power supply line of a vehicle; a load (15a, 15c, 15d) connectable to the control unit; a detachable internal rechargeable battery; and a housing configured to accommodate the control unit and the internal rechargeable battery therein, wherein the control unit is configured to selectively supply, to the load (15a, 15c, 15d), one of first power-supply electric power supplied from the first power supply line and second power-supply electric power supplied from the internal rechargeable battery according to a situation; and characterised in that, the control unit is configured to apply the first power-supply electric power supplied from the first power supply line to a charging circuit of the internal rechargeable battery to perform a charging operation of the internal rechargeable battery and to supply the first power-supply power supplied from the first power supply line to the load (15a, 15c, 15d), in a case that a power generation function of the vehicle is in operation. a control unit connectable to a first power supply line of a vehicle; a load (15a, 15c, 15d) connectable to the control unit; a detachable internal rechargeable battery; and a housing configured to accommodate the control unit and the internal rechargeable battery therein, wherein the control unit is configured to selectively supply, to the load (15a, 15c, 15d), one of first power-supply electric power supplied from the first power supply line and second power-supply electric power supplied from the internal rechargeable battery according to a situation; and characterised in that, the control unit is configured to apply the first power-supply electric power supplied from the first power supply line to a charging circuit of the internal rechargeable battery to perform a charging operation of the internal rechargeable battery and to supply the first power-supply power supplied from the first power supply line to the load (15a, 15c, 15d), in a case that a power generation function of the vehicle is in operation.
A flame retardant composition, comprising: a flame retardant represented by any one of the following general formulae to; aromatic polyester; a styrene polymer; rubber having a siloxane bond; and a fluorine compound, wherein a content of the flame retardant is 10 wt% or more and 25 wt% or less when a total weight of the flame retardant composition is 100 wt%, a content of the aromatic polyester is 40 wt% or more and 90 wt% or less when the total weight of the flame retardant composition is 100 wt%, a content of the styrene polymer is 5 wt% or more and 30 wt% or less when the total weight of the flame retardant composition is 100 wt%, a content of the rubber is 1 wt% or more and 15 wt% or less when the total weight of the flame retardant composition is 100 wt%, and a content of the fluorine compound is 0.1 wt% or more and 1.0. wt% or less when the total weight of the flame retardant composition is 100 wt%, wherein, in General Formulae to, R 1 to R 8 are alkyl groups and R 1 to R 8 may be the same or different from each other. a flame retardant represented by any one of the following general formulae to; aromatic polyester; a styrene polymer; rubber having a siloxane bond; and a fluorine compound, a content of the flame retardant is 10 wt% or more and 25 wt% or less when a total weight of the flame retardant composition is 100 wt%, a content of the aromatic polyester is 40 wt% or more and 90 wt% or less when the total weight of the flame retardant composition is 100 wt%, a content of the styrene polymer is 5 wt% or more and 30 wt% or less when the total weight of the flame retardant composition is 100 wt%, a content of the rubber is 1 wt% or more and 15 wt% or less when the total weight of the flame retardant composition is 100 wt%, and a content of the fluorine compound is 0.1 wt% or more and 1.0. wt% or less when the total weight of the flame retardant composition is 100 wt%, wherein, in General Formulae to, R 1 to R 8 are alkyl groups and R 1 to R 8 may be the same or different from each other.
A blockage, suitable to be mounted in a smart cleaning device and configured to block a water outlet of a water tank of the smart cleaning device, the blockage is characterized by comprising: a plug body, wherein the plug body is a shaft-shaped structure as a whole, and is provided with a through hole that penetrates the plug body; and a hierarchical sealing structure, wherein the hierarchical sealing structure is sleeved on an outer side of the plug body, and is provided with at least two annular plugs stacked in an axial direction of the plug body. a plug body, wherein the plug body is a shaft-shaped structure as a whole, and is provided with a through hole that penetrates the plug body; and a hierarchical sealing structure, wherein the hierarchical sealing structure is sleeved on an outer side of the plug body, and is provided with at least two annular plugs stacked in an axial direction of the plug body.
A negative pressure wound therapy apparatus, comprising: a wound dressing comprising: a wound contact layer configured to be positioned in contact with a wound; a spacer layer, wherein the spacer layer comprises an upper portion and a lower portion and wherein the upper portion and lower portion of the spacer layer are configured to be in fluid communication; an absorbent layer, wherein the spacer layer is configured to be wrapped around at least one edge of the absorbent layer with the upper portion of the spacer layer being above the absorbent layer and the lower portion of the spacer layer being below the absorbent layer and wherein the spacer layer is manufactured as one piece of spacer material that is pre-shaped to fit around the absorbent layer and fully encapsulate the absorbent layer with no break in the spacer material; and a cover layer configured to cover and form a seal over the wound contact layer, the spacer layer, and the absorbent layer. a wound contact layer configured to be positioned in contact with a wound; a spacer layer, wherein the spacer layer comprises an upper portion and a lower portion and wherein the upper portion and lower portion of the spacer layer are configured to be in fluid communication; an absorbent layer, wherein the spacer layer is configured to be wrapped around at least one edge of the absorbent layer with the upper portion of the spacer layer being above the absorbent layer and the lower portion of the spacer layer being below the absorbent layer and wherein the spacer layer is manufactured as one piece of spacer material that is pre-shaped to fit around the absorbent layer and fully encapsulate the absorbent layer with no break in the spacer material; and a cover layer configured to cover and form a seal over the wound contact layer, the spacer layer, and the absorbent layer.
A process for producing ethylene glycol from a carbohydrate feed comprising: a) contacting, in a reactor under hydrogenation conditions, the carbohydrate feed with a bi-functional catalyst system comprising: 1) a heterogeneous hydrogenation catalyst comprising a magnetically active metal, and 2) a soluble retro-Aldol catalyst comprising tungstate; b) obtaining a liquid effluent stream, from the reactor, comprising hydrogenation catalyst particles and tungsten oxide precipitate particles; c) magnetically separating the hydrogenation catalyst particles from the tungsten oxide precipitate particles in the liquid effluent stream using a magnet in a separation vessel, wherein the separated hydrogenation catalyst particles are retained in a separation zone in the separation vessel; d) removing the separated hydrogenation catalyst particles from the separation zone, e) obtaining a liquid product stream, from the separation vessel, wherein the liquid product stream comprises the tungsten oxide precipitate particles and ethylene glycol. a) contacting, in a reactor under hydrogenation conditions, the carbohydrate feed with a bi-functional catalyst system comprising: 1) a heterogeneous hydrogenation catalyst comprising a magnetically active metal, and 2) a soluble retro-Aldol catalyst comprising tungstate; 1) a heterogeneous hydrogenation catalyst comprising a magnetically active metal, and 2) a soluble retro-Aldol catalyst comprising tungstate; b) obtaining a liquid effluent stream, from the reactor, comprising hydrogenation catalyst particles and tungsten oxide precipitate particles; c) magnetically separating the hydrogenation catalyst particles from the tungsten oxide precipitate particles in the liquid effluent stream using a magnet in a separation vessel, wherein the separated hydrogenation catalyst particles are retained in a separation zone in the separation vessel; d) removing the separated hydrogenation catalyst particles from the separation zone, e) obtaining a liquid product stream, from the separation vessel, wherein the liquid product stream comprises the tungsten oxide precipitate particles and ethylene glycol.
An epicyclic reduction gear for a turbomachine comprising: - a sun gear that is rotatable about a first axis and adapted to be rotatably driven by a turbine of the turbomachine; - a ring gear surrounding the sun gear and being rotatable about the first axis, the ring gear being adapted to rotatably drive a fan shaft; - at least one planet gear that is rotatable about a second axis, the planet gear being meshed with the sun gear and the ring gear; - an immobile planet carrier, the planet gear being rotatably guided about the second axis with respect to a bearing of the planet carrier; - an item of equipment comprising a rotor; characterised in that the item of equipment is fitted to the bearing of the planet carrier and the rotor of the item of equipment is rotatably driven by the planet gear. - a sun gear that is rotatable about a first axis and adapted to be rotatably driven by a turbine of the turbomachine; - a ring gear surrounding the sun gear and being rotatable about the first axis, the ring gear being adapted to rotatably drive a fan shaft; - at least one planet gear that is rotatable about a second axis, the planet gear being meshed with the sun gear and the ring gear; - an immobile planet carrier, the planet gear being rotatably guided about the second axis with respect to a bearing of the planet carrier; - an item of equipment comprising a rotor;
A computer-implemented method comprising: identifying a plurality of routes (A,B), wherein each route includes one or more respective links; identifying a route attribute, wherein the route attribute describes each of the plurality of routes; characterised in that the method further comprises generating a plurality of indexes of minimum links with associated route attribute values, each index corresponding to the identified route attribute and a different injective hash function, and each index being generated I by the following steps (a) and (b): (a) for each of the plurality of routes (A, B): hashing the one or more links using the injective hash function to generate a hash value for each link; determining the link having the minimum hash value to be the minimum link; and assigning the route attribute to the determined minimum link, and (b) for each of the determined minimum links, aggregating the number of routes for which that link was determined to be the minimum link as the route attribute value for that link. identifying a plurality of routes (A,B), wherein each route includes one or more respective links; identifying a route attribute, wherein the route attribute describes each of the plurality of routes; characterised in that the method further comprises generating a plurality of indexes of minimum links with associated route attribute values, each index corresponding to the identified route attribute and a different injective hash function, and each index being generated I by the following steps (a) and (b): (a) for each of the plurality of routes (A, B): hashing the one or more links using the injective hash function to generate a hash value for each link; determining the link having the minimum hash value to be the minimum link; and assigning the route attribute to the determined minimum link, and (b) for each of the determined minimum links, aggregating the number of routes for which that link was determined to be the minimum link as the route attribute value for that link. (a) for each of the plurality of routes (A, B): hashing the one or more links using the injective hash function to generate a hash value for each link; determining the link having the minimum hash value to be the minimum link; and assigning the route attribute to the determined minimum link, and hashing the one or more links using the injective hash function to generate a hash value for each link; determining the link having the minimum hash value to be the minimum link; and assigning the route attribute to the determined minimum link, and (b) for each of the determined minimum links, aggregating the number of routes for which
A microfluidic device comprising - a reaction chamber (100, 200) allowing reacting of at least one fluid material, - at least two fluidic channels coupled to the reaction chamber for providing and exiting a fluid in respectively from the reaction chamber (100, 200), each fluidic channel comprising an inlet (101, 102, 201, 202, 204, 302, 303) for providing a fluid to the reaction chamber, and an outlet (111, 112, 211, 212, 213), for disposing the fluid from the reaction chamber, the outlet being different from the inlet, wherein each fluidic channel is configured such that when a fluid is provided in the reaction chamber via that fluidic channel, the fluid exits the reaction chamber via the outlet of at least one other fluidic channel when the reactor is filled, thereby preventing a fluid from the at least one other fluidic channel, when present in the inlet, from diffusing into the reaction chamber, characterized in that the microfluidic device comprises a controller for controlling the supply of fluids in the reaction chamber through one or more first fluidic channels of a plurality of fluidic channels such that supply of a liquid to the reaction chamber through the one or more first fluidic channels is performed whereby the fluid exits the reaction chamber via the outlet(s) of the other fluidic channel(s) of the plurality of fluidic channels, thereby preventing fluids from the other fluidic channel(s) of the plurality of fluidic channels from diffusing into the reaction chamber wherein the controller is programmed for, during the target reaction, continuously maintaining a flow of reagent(s) that need to interact entering through inlets from the one or more first fluid channels, thus introducing a continuous volume of flow in the reaction chamber and an equal continuous volume of flow out of the reaction chamber through outlets in microfluidic channels of reagents not wanted in the target reaction. - a reaction chamber (100, 200) allowing reacting of at least one fluid material, - at least two fluidic channels coupled to the reaction chamber for providing and exiting a fluid in respectively from the reaction chamber (100, 200), each fluidic channel comprising an inlet (101, 102, 201, 202, 204, 302, 303) for providing a fluid to the reaction chamber, and an outlet (111, 112, 211, 212, 213), for disposing the fluid from the reaction chamber, the outlet being different from the inlet,
A boundary acoustic wave device comprising: a piezoelectric substance composed of LiNbO 3 having a surface obtained by rotating a Y axis by 15°±10° as a primary surface; a dielectric substance which is composed of a silicon oxide and which is laminated to the piezoelectric substance; and an electrode structure which is disposed at a boundary between the piezoelectric substance and the dielectric substance and which includes an IDT to utilize a boundary acoustic wave propagating along the boundary; wherein, when the density of the IDT, the thickness thereof, the wavelength determined by the period of electrode fingers of the IDT, and the duty ratio thereof are represented by p (kg/m 3), H (μm), λ (μm), and x, respectively, x and the product of H/λ and p are set in the range that satisfies the following formula: [Mathematical Expression 1] H / λ × ρ > 70.7924 x + 0.055 − 2.0884 + 797.09 wherein the IDT has an Au-based metal layer composed of Au or an alloy primarily composed of Au; wherein the IDT furthermore has a frequency adjusting film; wherein the IDT is composed of a laminate metal film including layers laminated in the following sequence: the frequency adjusting film/Ti/Pt/the Au-based metal layer/Pt/Ti (11f/11e/11d/11c/11b/11a); and wherein the above ρ (kg/m 3) represents the average density of the IDT obtained in accordance with a thickness ratio of each of the metal layers laminated to each other, and H above represents the total thickness of the laminate metal film. a piezoelectric substance composed of LiNbO 3 having a surface obtained by rotating a Y axis by 15°±10° as a primary surface; a dielectric substance which is composed of a silicon oxide and which is laminated to the piezoelectric substance; and an electrode structure which is disposed at a boundary between the piezoelectric substance and the dielectric substance and which includes an IDT to utilize a boundary acoustic wave propagating along the boundary; wherein, when the density of the IDT, the thickness thereof, the wavelength determined by the period of electrode fingers of the IDT, and the duty ratio thereof are represented by p (kg/m 3), H (μm), λ (μm), and x, respectively, x and the product of H/λ and p are set in the range that satisfies the following formula: [Mathematical Expression 1] H / λ × ρ > 70.7924 x + 0.055 − 2.0884 + 797.09 wherein the IDT has an Au-based metal layer composed of Au or an alloy primarily composed of Au; wherein the IDT furthermore has a frequency adjusting film; wherein the IDT is composed of a laminate metal film including layers laminated in the following sequence: the frequency adjusting film/Ti/Pt/the Au-based metal layer/Pt/Ti (11f/11e/11d/11c/11b/11a); and wherein the above ρ (kg/m 3) represents the average density of the IDT obtained in accordance with a thickness ratio of each of the metal layers laminated to each other, and H above represents the total thickness of the laminate metal film.