mhurhangee/ep-ind-claims huggingface dataset:
Respiratory mask (1, 2, 3), preferably a nasal mask, comprising a main body and two lateral arms (4, 5) integrally fixed to said main body and projecting laterally from said main body, each of said two lateral arms (4, 5) being made of a first flexible material chosen among polymer materials and comprising: - a proximal region (40, 50) with a proximal end (4b, 5b) fixed to the main body, - a distal region (41, 51) comprising a free distal end (4a, 5a), and - an intermediary region (42, 52) located between and adjacent to the proximal region (40, 50) and the distal region (41, 51), and wherein each of said two lateral arms (4, 5): - exhibits in said intermediary region (42, 52) a first flexibility that is greater than the second flexibility of said two lateral arms (4, 5) in the proximal region (40, 50) and in the distal region (41, 51), and - has in the intermediary region (42, 52) a first thickness that is lower than the second thickness of said two lateral arms (4, 5) in the proximal region (40, 50) and in the distal region (41, 51), characterized in that each of said two lateral arms (4, 5) comprises in the intermediary region (42, 52), a second flexible material forming a coating layer on the first flexible material forming each lateral arms (4, 5). - a proximal region (40, 50) with a proximal end (4b, 5b) fixed to the main body, - a distal region (41, 51) comprising a free distal end (4a, 5a), and - an intermediary region (42, 52) located between and adjacent to the proximal region (40, 50) and the distal region (41, 51), - exhibits in said intermediary region (42, 52) a first flexibility that is greater than the second flexibility of said two lateral arms (4, 5) in the proximal region (40, 50) and in the distal region (41, 51), and - has in the intermediary region (42, 52) a first thickness that is lower than the second thickness of said two lateral arms (4, 5) in the proximal region (40, 50) and in the distal region (41, 51),
A textile cord for a tire, the textile cord comprising at least two yarns, each yarn having multiple filaments (101, 101', 101"), wherein each of the filaments (101, 101', 101") comprises at least one polymer comprising polyethylene furanoate reinforced by one or more of: carbon nano material and boron nitride nano material.
A method for manufacturing an additively-manufactured object, the method comprising: radiating a laser beam in a weaving manner to a powdered material containing a first powder containing precipitation hardening stainless steel alloy and a second powder containing titanium carbide to melt and solidify the powdered material; and depositing at least one layer of a cladding layer on a base metal, wherein the step of depositing the cladding layer is a step satisfying the following conditional expressions,, and: 20 ≤ A ≤ 35 1.1 ≤ B ≤ 1.3 and 40 mass% ≤ R2 ≤ 65 mass% where A = P × α/β [kJ/cm]: Laser heat input index, B = Q × α/β [g/cm]: Powder feeding rate index, P: Heat input from laser beam, Q [g/min]: Feeding rate of powdered material, α = W/V1, β = V2 × t, W [cm]: Scanning width of beam spot caused by weaving operation, V1 [cm/min]: Scanning speed of laser beam caused by weaving operation, V2 [cm/min]: Advancing speed in welding direction, t [sec]: Time of one weaving cycle, and R2 [mass%]: Ratio of second powder contained in powdered material, wherein the precipitation hardening stainless steel alloy is an SUS630 alloy or an SUS631 alloy, and wherein the base material is selected from the group consisting of steel, cobalt-based alloys, and nickel-based alloys. radiating a laser beam in a weaving manner to a powdered material containing a first powder containing precipitation hardening stainless steel alloy and a second powder containing titanium carbide to melt and solidify the powdered material; and depositing at least one layer of a cladding layer on a base metal, wherein the step of depositing the cladding layer is a step satisfying the following conditional expressions,, and: 20 ≤ A ≤ 35 1.1 ≤ B ≤ 1.3 and 40 mass% ≤ R2 ≤ 65 mass% where A = P × α/β [kJ/cm]: Laser heat input index, B = Q × α/β [g/cm]: Powder feeding rate index, P: Heat input from laser beam, Q [g/min]: Feeding rate of powdered material, α = W/V1, β = V2 × t, W [cm]: Scanning width of beam spot caused by weaving operation, V1 [cm/min]: Scanning speed of laser beam caused by weaving operation, V2 [cm/min]: Advancing speed in welding direction, t [sec]: Time of one weaving cycle, and R2 [mass%]: Ratio of second powder contained in powdered material, A = P × α/β [kJ/cm]: Laser heat input index, B = Q × α/β [g/cm]: Powder feeding rate index, P: Heat input from laser beam, Q [g/min]: Feeding rate of powdered material, α = W/V1, β = V2 × t, W [cm]: Scanning width of beam spot caused by weaving operation, V1 [cm/min]: Scanning speed of laser beam caused by weaving operation, V2 [cm/min]: Advancing speed in welding direction, t [sec]: Time of one weaving cycle, and R2 [mass%]: Ratio of second powder contained in powdered material, wherein the precipitation hardening stainless steel alloy is an SUS630 alloy or an SUS631 alloy, and wherein the base material is selected from the group consisting of steel, cobalt-based alloys, and nickel-based alloys.
A method for the analysis of at least two analytes in a liquid sample, said method comprising the steps of: a) providing an analysis device comprising a substrate wherein at least two different types of capturing molecules are immobilised on the substrate and wherein each type of capturing molecule has specific affinity for an analyte, b) contacting the liquid sample with said capturing molecules, c) for at least one analyte to be analysed: contacting the analyte molecules which are bound to or will be bound to the capturing molecules with a labelled detection molecule with specific affinity for the analyte, and for at least one another analyte to be analysed: contacting the capturing molecules with a labelled version of the analyte, and d) measuring a detectable signal from i) labelled detection molecules, which detection molecules are bound to analyte molecules, which analyte molecules are bound to capturing molecules, which capturing molecules are bound to the substrate and ii) the labelled analyte on the substrate, wherein the concentration of the labelled analyte is adapted to the concentration of the unlabelled analyte in the sample. a) providing an analysis device comprising a substrate wherein at least two different types of capturing molecules are immobilised on the substrate and wherein each type of capturing molecule has specific affinity for an analyte, b) contacting the liquid sample with said capturing molecules, c) for at least one analyte to be analysed: contacting the analyte molecules which are bound to or will be bound to the capturing molecules with a labelled detection molecule with specific affinity for the analyte, and for at least one another analyte to be analysed: contacting the capturing molecules with a labelled version of the analyte, and d) measuring a detectable signal from i) labelled detection molecules, which detection molecules are bound to analyte molecules, which analyte molecules are bound to capturing molecules, which capturing molecules are bound to the substrate and ii) the labelled analyte on the substrate, wherein the concentration of the labelled analyte is adapted to the concentration of the unlabelled analyte in the sample.
Wall connection device for a wall or door element, in particular a shower wall or shower door element, having - a wall profile, which extends along a longitudinal axis and is intended to be fixed on a wall, - a retaining profile, which is designed to be connected fixed-in-place to the wall or door element, wherein the retaining profile is arranged movably in relation to the wall profile in a direction transverse to the longitudinal axis, wherein the wall profile has - when seen in a cross section normal to the longitudinal axis - a cross section that is U-shaped at least in first approximation, so that it has two U legs (21, 22), pointing in the direction and one connecting leg, connecting the two U legs (21, 22), and - an intermediate profile, which is arranged movably in relation to the wall profile in the direction, wherein the retaining profile is arranged movably in relation to the intermediate profile in the direction, characterized in that the intermediate profile has two parallel wall regions (55, 56), which are arranged orientated parallel to the two U legs (21, 22) of the wall profile, wherein the two wall regions (55, 56) of the intermediate profile lie against the two U legs (21, 22) of the wall profile from the inside with little movement play, so that as a result they are guided by the U legs (21, 22) of the wall profile during the movement of the intermediate profile in relation to the wall profile in the direction, wherein the two wall regions (55, 56) of the intermediate profile enclose and cover the retaining profile. - a wall profile, which extends along a longitudinal axis and is intended to be fixed on a wall, - a retaining profile, which is designed to be connected fixed-in-place to the wall or door element, - an intermediate profile, which is arranged movably in relation to the wall profile in the direction, wherein the retaining profile is arranged movably in relation to the intermediate profile in the direction,
A method of preparing a zeolite catalyst comprising: treating a zeolite with a phosphorus compound prior to combining any optional binder with the zeolite, wherein the phosphorus-treated zeolite has an initial phosphorus content prior to the contacting with liquid water; calcining the phosphorus-treated zeolite; contacting the phosphorus-treated zeolite with liquid water by at least one of immersing the calcined phosphorus-treated zeolite in a liquid water bath and contacting the calcined phosphorus-treated zeolite with a flowing liquid water stream; and heating the phosphorus-treated zeolite, wherein phosphorus is removed from the phosphorus treated zeolite in an amount of from 20% or more of the initial phosphorus content by contacting the phosphorus-treated zeolite with liquid water. treating a zeolite with a phosphorus compound prior to combining any optional binder with the zeolite, wherein the phosphorus-treated zeolite has an initial phosphorus content prior to the contacting with liquid water; calcining the phosphorus-treated zeolite; contacting the phosphorus-treated zeolite with liquid water by at least one of immersing the calcined phosphorus-treated zeolite in a liquid water bath and contacting the calcined phosphorus-treated zeolite with a flowing liquid water stream; and heating the phosphorus-treated zeolite, wherein phosphorus is removed from the phosphorus treated zeolite in an amount of from 20% or more of the initial phosphorus content by contacting the phosphorus-treated zeolite with liquid water.
A serotonin 5-HT3 receptor antagonist for use in the treatment of a lesional vestibular disorder in a subject in need thereof, wherein said serotonin 5-HT3 receptor antagonist is selected from the group consisting of azasetron, tropisetron, palonosetron, lerisetron, alosetron, granisetron, dolasetron, bemesetron, ramosetron, itasetron, zacopride and cilansetron.
Control system for a motor-adjustable luggage compartment device of a motor vehicle, wherein the luggage compartment device has a motor-adjustable closure element, wherein an operating event sensor, in particular a distance sensor, is provided for the non-contact detection of operating events in the form of operator movement cycles, wherein a control arrangement monitors the operating event sensor to see whether a predetermined operating event is present, and upon the detection of such a predetermined operating event, adjusts the luggage compartment device by a motor, wherein upon the detection of a primary operating event on the basis of the operating event sensor, the control arrangement adjusts the closure element by a motor in the opening direction, characterized in that the luggage compartment device has at least one motor-adjustable luggage compartment component, and in that upon the detection of a secondary operating event following the primary operating event on the basis of the operating event sensor, the control arrangement adjusts at least one such luggage compartment component by a motor.
Transmission comprising; • an input shaft • a main shaft; • a countershaft (223, 323); and • an oil pump, wherein said input shaft, said main shaft and said countershaft (223, 323) are provided with gearwheels (381, 282, 130-139) in order to enable torque transfer in a plurality of forward and backward gear speeds, characterized in that said oil pump is provided with a freewheel mechanism (385, 485), which comprises an oil pump driveshaft, a first pump drive gearwheel and a first and a second freewheel (387, 487; 388) arranged upon said oil pump driveshaft, wherein both said first and said second freewheel (387, 487; 388) can transfer torque to said oil pump drive shaft in one and the same direction, whereby said first freewheel (387, 487) is in drive connection with said countershaft (223, 323) and said second freewheel is connected to said first pump drive gearwheel, which meshes with a first gearwheel (381, 138) coaxial with said main shaft (124, 238) and which first gearwheel (381, 138) transfers torque in at least one of said forward or backward gear speeds. • an input shaft • a main shaft; • a countershaft (223, 323); and • an oil pump, wherein
A method for controlling a clutch arrangement of a vehicle transmission arranged within a gearbox housing of a vehicle, the clutch arrangement being connected to a pneumatically controlled actuator arrangement for controllably arrange the clutch arrangement between a closed position and an open position, wherein the vehicle transmission further comprises at least one rotatable transmission component (108, 108', 108") configured to assume an engaged state, a disengaged state and an at least partially engaged state, the method being characterized by comprising the steps of: - determining, at a first point in time, a temperature level within the gearbox housing in the vicinity of the pneumatically controlled actuator arrangement; if the temperature level is below a predetermined threshold limit: - controlling the at least one transmission component (108, 108', 108") to be positioned in the at least partially engaged state for providing parts of the at least one transmission component to rotate relative to each other to increase the temperature level within the gearbox housing; - providing compressed gas to said pneumatically controlled actuator arrangement; and - controlling the pneumatically controlled actuator arrangement to arrange the clutch arrangement from the closed position to the opened position when a gas pressure level of the pneumatically controlled actuator arrangement is above a predetermined pressure limit. - determining, at a first point in time, a temperature level within the gearbox housing in the vicinity of the pneumatically controlled actuator arrangement; - controlling the at least one transmission component (108, 108', 108") to be positioned in the at least partially engaged state for providing parts of the at least one transmission component to rotate relative to each other to increase the temperature level within the gearbox housing; - providing compressed gas to said pneumatically controlled actuator arrangement; and - controlling the pneumatically controlled actuator arrangement to arrange the clutch arrangement from the closed position to the opened position when a gas pressure level of the pneumatically controlled actuator arrangement is above a predetermined pressure limit.
Spacer particles for a resin composition layer, the spacer particles being used for being added into a resin composition layer for controlling a thickness of the resin composition layer, the spacer particles having a compressive strength at 10% compressive deformation at room temperature ranging from 0.05 to 10 MPa, the spacer particles having a rate of change in compressive strength at 10% compressive deformation by a temperature change from room temperature to 50°C of 5% or less, the spacer particles having a volume average particle diameter ranging from 2 to 200 μm, the spacer particles having a coefficient of variation in particle diameter of 15% or less, the spacer particles comprising a cross-linked acrylic ester resin, and the cross-linked acrylic ester resin being a polymer obtained by polymerizing a monomer mixture containing an acrylic ester monofunctional monomer and a cross-linkable monomer.
A non-back drivable clutched module for an actuator comprising: a housing with an inside surface; an input shaft cog with a shaft portion extending out of the housing and connected to an actuator external to the housing, and a cog portion connected to the shaft portion of the cog portion being rotatably positioned in the housing, wherein the cog portion includes a plurality of bearing recesses (26, 28) and a plurality of drive recesses (30, 32) each having a first side (34a-d), second side (36a-d), third side and fourth side (40a, 40b), wherein the first side (34a-d) and second side (36a-d) of each of the plurality of bearing recesses (26, 28) and plurality of drive recesses (30, 32) are formed by one of a plurality of teeth (42, 42', 42", 42′′′) extending from the surface of the cog portion and the third side is defined by the inside surface of the housing; a clutched output shaft having a shaft portion extending out of the housing and connected to a device being driven by the actuator through the non-backdrivable clutched module and a clutch cog receiving portion rotatably positioned within the cavity of the housing; and a clutch cog between the input shaft cog and the clutched output shaft, where the clutch cog has both a resilient connection and a detent connection to the clutch cog portion of the clutched output shaft, wherein the clutch cog has a clutch mode that disengages the clutch cog from the clutched output shaft, characterised in that, it further comprises a stopper mode where the clutch cog acts on at least one bearing member (74, 74') between the clutch cog and the housing and locks the clutch cog to prevent the clutch cog from moving the input shaft cog. a housing with an inside surface; an input shaft cog with a shaft portion extending out of the housing and connected to an actuator external to the housing, and a cog portion connected to the shaft portion of the cog portion being rotatably positioned in the housing, wherein the cog portion includes a plurality of bearing recesses (26, 28) and a plurality of drive recesses (30, 32) each having a first side (34a-d), second side (36a-d), third side and fourth side (40a, 40b), wherein the first side (34a-d) and second side (36a-d) of each of the plurality of bearing recesses (26, 28) and plurality of drive recesses (30, 32) are formed by one of a plurality of teeth (42, 42', 42", 42′′′) extending from the surface of the cog portion and the third side is defined by the inside surface of the housing; a clutched output shaft having a shaft portion extending out of the housing and connected to a device being driven by the actuator through the non-backdrivable clutched module and a clutch cog receiving portion rotatably positioned within the cavity of the housing; and a clutch cog between the input shaft cog and the clutched output shaft, where the clutch cog has both a resilient connection and a detent connection to the clutch cog portion of the clutched output shaft, wherein the clutch cog has a clutch mode that disengages the clutch cog from the clutched output shaft, characterised in that, it further comprises a stopper mode where the clutch cog acts on at
washing method for a steam jet washing machine comprising: - a wash water supplying step for supplying water via a water-supply valve assembly, an auxiliary water-supply tube into the tub and the drum; - a steam supplying step including - a wash water supplying step for supplying the wash water via the water-supply valve assembly and a water-supply tube into the steam generator, - a heating step for heating the wash water in the steam generator to obtain a high-temperature and high-pressure steam and - a steam spraying step for spraying steam downwardly into the tub and the drum via a steam tube, the steam tube having one end connected to the steam generator and the other end disposed in the tub and the drum penetrating through an upper end of a gasket for supplying steam into the tub and the drum; - a drum driving step for driving the drum when a proper amount of wash water is supplied into the tub. - a wash water supplying step for supplying water via a water-supply valve assembly, an auxiliary water-supply tube into the tub and the drum; - a steam supplying step including - a wash water supplying step for supplying the wash water via the water-supply valve assembly and a water-supply tube into the steam generator, - a heating step for heating the wash water in the steam generator to obtain a high-temperature and high-pressure steam and - a steam spraying step for spraying steam downwardly into the tub and the drum via a steam tube, the steam tube having one end connected to the steam generator and the other end disposed in the tub and the drum penetrating through an upper end of a gasket for supplying steam into the tub and the drum; - a wash water supplying step for supplying the wash water via the water-supply valve assembly and a water-supply tube into the steam generator, - a heating step for heating the wash water in the steam generator to obtain a high-temperature and high-pressure steam and - a steam spraying step for spraying steam downwardly into the tub and the drum via a steam tube, the steam tube having one end connected to the steam generator and the other end disposed in the tub and the drum penetrating through an upper end of a gasket for supplying steam into the tub and the drum; - a drum driving step for driving the drum when a proper amount of wash water is supplied into the tub.