mhurhangee/ep-ind-claims huggingface dataset:
A high-strength stainless steel material having a composition comprising greater than or equal to 0.01 mass% but not greater than 0.15 mass% of C, greater than 0.0 mass% but not greater than 2.0 mass% of Si, greater than or equal to 0.1 mass% but not greater than 4.0 mass% of Mn, greater than 0.00 mass% but not greater than 0.04 mass% of P, greater than 0.00 mass% but not greater than 0.03 mass% of S, greater than or equal to 0.1 mass% but not greater than 4.0 mass% of Ni, from 10.0 to 20.0 mass% of Cr, and greater than 0.00 mass% but not greater than 0.12 mass% of N with a balance of Fe and inevitable impurities; consisting of a metal microstructure composed of two phases, one of the phases being a ferrite phase and the other of the phases being a martensite phase; having a γ max of from 50 to 85, the γ max being represented by the following equation: γ max = 420 W c + 470 W N + 23 W Ni + 7 W Mn − 11.5 W Cr − 11.5 W Si + 189 (in the equation, W c, W N, W Ni, W Mn, W Cr and W Si represent contents (unit: mass%) of C, N, Ni, Mn, Cr, and Si relative to the total mass of the stainless steel material, respectively; and having a difference of 300 HV or less in hardness between the ferrite phase and the martensite phase, and optionally further comprising greater than 0.0 mass% but not greater than 3.0% of Cu and having a γ max of from 50 to 85, the γ max being represented by the following equation: γ max = 420 W c + 470 W N + 23 W Ni + 7 W Mn − 11.5 W Cr − 11.5 W Si + 189 (in the equation, W c, W N, W Ni, W Cu, W Mn, W Cr, and W Si represent contents (unit: mass%) of C, N, Ni, Cu, Mn, Cr, and Si relative to the total mass of the stainless steel material, respectively.
A lighting device comprising a plurality of different light sources with a first subset of one or more first light sources configured to provide first light source light and a second subset of one or more second light sources configured to provide second light source light having a spectral distribution different from the first light source light, wherein the one or more first light sources have a light-source off-state color appearance, wherein the one or more second light sources comprise one or more optical filters, wherein the one or more optical filters are selected to convert less than 20% of said second light source light, wherein each optical filter is associated with a respective second light source, and wherein the one or more optical filters have the same color appearance as the off-state color appearance of the one or more first light sources.
A top roller aggregate for a drafting unit drafting a staple fibre strand having at least one top roller which comprises an axle fixed to a holding fixture, and at least one tube rotatably mounted on the axle, and a flexible rubber-like cover at a distance to the holding fixture is arranged on the tube, the outer circumference of the axle being surrounded on its entire length between the cover and the holding fixture by a dust guard, characterized in that the dust guard is rotatable about the axle.
A stapling assembly, comprising: a first jaw; a second jaw movable relative to said first jaw; a staple cartridge comprising a plurality of staples, wherein each said staple is comprised of a wire defined by a staple diameter, and wherein each said staple comprises staple legs; and an anvil configured to deform said staples, said anvil comprising: a tissue-engaging surface; and a pair of forming pockets (10310, 10330) defined in said tissue-engaging surface, wherein said pair of forming pockets is configured to deform the staple legs of a said staple, characterised in that said pair of forming pockets comprises: a proximal forming pocket comprising a forming surface (10311, 10312), wherein said forming surface comprises an entry zone comprising a first radius of curvature and an exit zone comprising a second radius of curvature, wherein said first radius of curvature and said second radius of curvature comprise a ratio of 1.5:1 to 3:1, and wherein said first radius of curvature is between 8 times and 10 times larger than said staple diameter, and wherein said second radius of curvature is between 4 and 6 times larger than said staple diameter; and a distal forming pocket. a first jaw; a second jaw movable relative to said first jaw; a staple cartridge comprising a plurality of staples, wherein each said staple is comprised of a wire defined by a staple diameter, and wherein each said staple comprises staple legs; and an anvil configured to deform said staples, said anvil comprising: a tissue-engaging surface; and a pair of forming pockets (10310, 10330) defined in said tissue-engaging surface, wherein said pair of forming pockets is configured to deform the staple legs of a said staple, a tissue-engaging surface; and a pair of forming pockets (10310, 10330) defined in said tissue-engaging surface, wherein said pair of forming pockets is configured to deform the staple legs of a said staple, characterised in that said pair of forming pockets comprises: a proximal forming pocket comprising a forming surface (10311, 10312), wherein said forming surface comprises an entry zone comprising a first radius of curvature and an exit zone comprising a second radius of curvature, wherein said first radius of curvature and said second radius of curvature comprise a ratio of 1.5:1 to 3:1, and wherein said first radius of curvature is between 8 times and 10 times larger than said staple diameter, and wherein said second radius of curvature is between 4 and 6 times larger than said staple diameter; and a distal forming pocket. a proximal forming pocket comprising a forming surface (10311, 10312), wherein said forming surface comprises an entry zone comprising a first radius of curvature and an exit zone comprising a second radius of curvature, wherein said first radius of curvature and said second radius of curvature comprise a ratio of 1.5:1 to 3:1, and wherein said first radius of curvature is between 8 times and 10 times larger than said staple diameter, and wherein said second radius of curvature is between 4 and 6 times larger than said staple diameter; and a distal forming pocket.
A method by a telephony server for sharing device capabilities of client devices with a service provider entity, the method comprising the steps of: obtaining device capabilities of one or more client devices in a home network environment; storing the device capabilities in a phone data model by using a call management service action; mapping the device capabilities stored in the phone data model to elements in a user agent profile; and transmitting the user agent profile including the device capabilities to the service provider entity, wherein the service provider entity delivers telephony services to the one or more client devices according to respective device capabilities based on the user agent profile. obtaining device capabilities of one or more client devices in a home network environment; storing the device capabilities in a phone data model by using a call management service action; mapping the device capabilities stored in the phone data model to elements in a user agent profile; and transmitting the user agent profile including the device capabilities to the service provider entity, wherein the service provider entity delivers telephony services to the one or more client devices according to respective device capabilities based on the user agent profile.
A stationary blade for a blade set of a hair cutting appliance, said blade set being arranged to be moved through hair in a moving direction to cut hair, said stationary blade comprising: - a first wall portion arranged to serve as a skin facing wall when in operation, - a second wall portion at least partially offset from the first wall portion, such that the first wall portion and the second wall portion define therebetween a guide slot arranged to receive a movable cutter blade, - at least one toothed leading edge comprising a plurality of teeth jointly formed by the first wall portion and the second wall portion, characterized in that the stationary blade is an integrally formed metal-plastic composite stationary blade, wherein the first wall portion is at least partially made from metal material, wherein the second wall portion is at least partially made from plastic material, and wherein the first wall portion and the second wall portion are arranged to receive the movable cutter blade in the guide slot in a defined mating manner. - a first wall portion arranged to serve as a skin facing wall when in operation, - a second wall portion at least partially offset from the first wall portion, such that the first wall portion and the second wall portion define therebetween a guide slot arranged to receive a movable cutter blade, - at least one toothed leading edge comprising a plurality of teeth jointly formed by the first wall portion and the second wall portion, characterized in that the stationary blade is an integrally formed metal-plastic composite stationary blade,
Assemblies of a disc brake for a commercial vehicle, wherein one of the assemblies is represented by components of an application device and another assembly is represented by components of an adjusting device, wherein at least one of the assemblies is configured as a pre-assembled unit, the components of which are located by securing elements (8, 17) which can be removed after or immediately before the unit is mounted, characterised in that the securing elements (8, 17) are designed to be lid-shaped.
A universal serial bus, USB, interface, comprising a turnover joint, a rotating joint and a connecting shaft connecting the turnover joint with the rotating joint; wherein one end of the turnover joint is connected to a data product body, and the other end is connected to the rotating joint; and the end of the rotating joint that is away from the turnover joint is provided with a connecting terminal, which is connected to the data product body via a cable; the rotating joint is rotatable relative to the turnover joint, wherein the turnover joint is connected to the data product body via a turnover shaft, and the connecting shaft is fixedly connected to the rotating joint and rotatably connected to the turnover joint, characterized in that a turnover-in-place structure is positioned in the turnover joint and comprises: turnover grooves provided on a surface of the turnover shaft; one turnover-in-place ball, the shape of which matches those of the turnover grooves, provided in a turnover-in-place pore canal connected to the turnover shaft, two ends of the turnover-in-place ball abutting against the turnover-in-place grooves and a turnover-in-place spring, respectively; and the turnover-in-place spring positioned in the turnover-in-place pore canal, one end of the turnover-in-place spring being fixed, and the other end pushing the turnover-in-place ball through a connector. turnover grooves provided on a surface of the turnover shaft; one turnover-in-place ball, the shape of which matches those of the turnover grooves, provided in a turnover-in-place pore canal connected to the turnover shaft, two ends of the turnover-in-place ball abutting against the turnover-in-place grooves and a turnover-in-place spring, respectively; and
An organosolv process for treating a lignocellulosic biomass comprising: a) Adding the biomass to a reaction vessel and exposing the biomass to a solvent wherein: i. the ratio of solvent to biomass is from about 10:1 to about 4:1; ii. the solvent comprises from 40 to 60% w/w ethanol; iii. from about 1.5% to about 2.5% (based on dry weight of the biomass) of an acid is added; b) Elevating the temperature of the biomass/solvent mixture to from about 140°C to about 170°C for a total period of from about 50 minutes to about 200 minutes to form a pulp and an extraction liquor said liquor comprising derivatives of native lignin; c) Recovering at least a portion of the extraction liquor; d) Recovering at least a portion of the pulp; wherein the pressure in the reaction vessel is about 18 bar or less, and wherein step a) produces pretreated biomass solids with a Time-to-Conversion-Target equal to 120 h or less and an Overall Glucose Conversion of 50% or higher. a) Adding the biomass to a reaction vessel and exposing the biomass to a solvent wherein: i. the ratio of solvent to biomass is from about 10:1 to about 4:1; ii. the solvent comprises from 40 to 60% w/w ethanol; iii. from about 1.5% to about 2.5% (based on dry weight of the biomass) of an acid is added; i. the ratio of solvent to biomass is from about 10:1 to about 4:1; ii. the solvent comprises from 40 to 60% w/w ethanol; iii. from about 1.5% to about 2.5% (based on dry weight of the biomass) of an acid is added; b) Elevating the temperature of the biomass/solvent mixture to from about 140°C to about 170°C for a total period of from about 50 minutes to about 200 minutes to form a pulp and an extraction liquor said liquor comprising derivatives of native lignin; c) Recovering at least a portion of the extraction liquor; d) Recovering at least a portion of the pulp;
An optical fiber holder comprising: a base stage having a groove configured and arranged to accommodate a buffered optical fiber or an optical fiber ribbon; and a lid disposed above the groove, the lid being openable and closeable and having a restraining member, the restraining member having a contacting part which is provided at a distal end thereof and is configured and arranged to bend said buffered optical fiber or optical fiber ribbon, the optical fiber holder being characterised in that the contacting part protrudes beyond an end surface of said base stage in a longitudinal direction of said groove. a base stage having a groove configured and arranged to accommodate a buffered optical fiber or an optical fiber ribbon; and a lid disposed above the groove, the lid being openable and closeable and having a restraining member, the restraining member having a contacting part which is provided at a distal end thereof and is configured and arranged to bend said buffered optical fiber or optical fiber ribbon, the optical fiber holder being characterised in that the contacting part protrudes beyond an end surface of said base stage in a longitudinal direction of said groove.
An ultra-high-voltage DC power cable system including a joint box, for an ultra-high-voltage direct-current power cable, and a pair of ultra-high-voltage DC power cables each having a conductor, an inner semiconducting layer surrounding the conductor, an insulating layer surrounding the inner semiconducting layer, and an outer semiconducting layer surrounding the insulating layer, the joint box comprising: a first electrode having left and right round ends in a lengthwise direction of the joint box; a pair of second electrodes configured to face each other while being spaced a certain distance from the first electrode to the left or right in the lengthwise direction of the joint box, and are in contact with the outer semiconducting layer of the power cable to be electrically connected thereto; and a joint sleeve configured to surround the first electrode and the second electrodes, formed of an elastic material that contracts at room temperature, and provided in the form of a hollow sleeve with a through hole in the lengthwise direction, wherein the joint sleeve comprises a joint-box insulation part configured to prevent leakage of current to the outside of the joint box, wherein the joint-box insulation part comprises a first insulating layer and characterised in that the joint-box insulation part comprises a second insulating layer, wherein the second insulating layer has lower volume resistivity than that of the first insulating layer, and the second insulating layer is formed between the first insulation layer and the insulation layer and surrounds at least one of an innermost side of the joint sleeve, an interface between the first electrode and the joint-box insulation part, or an interface between the second electrode and the joint-box insulation part. a first electrode having left and right round ends in a lengthwise direction of the joint box; a pair of second electrodes configured to face each other while being spaced a certain distance from the first electrode to the left or right in the lengthwise direction of the joint box, and are in contact with the outer semiconducting layer of the power cable to be electrically connected thereto; and a joint sleeve configured to surround the first electrode and the second electrodes, formed of an elastic material that contracts at room temperature, and provided in the form of a hollow sleeve with a through hole in the lengthwise direction, wherein the joint sleeve comprises a joint-box insulation part configured to prevent leakage of current to the outside of the joint box, wherein the joint-box insulation part comprises a first insulating layer and characterised in that the joint-box insulation part comprises a second insulating layer, wherein the second insulating layer has lower volume resistivity than that of the first insulating layer, and the second insulating layer is formed between the first insulation layer and the insulation layer and surrounds at least one of an innermost side of the joint sleeve, an interface between the first electrode and the joint-box insulation part, or an interface between the second electrode and the joint-box insulation part.
Stator blade carrier, especially for a gas turbine or steam turbine, which has a number of axial segments, wherein two directly adjacent axial segments are connected by a number of tie rods which in each case are enclosed by a support tube, characterized in that a spherical disk, which is mounted in a conical cup which is supported on the respective axial segment, is arranged at at least one end, preferably at both ends, of the respective support tube.
An image forming apparatus, comprising: an apparatus main assembly, and a process cartridge configured to be detachably mountable to said apparatus main assembly, and including driving force receiving means configured to be connected to driving means of said apparatus main assembly and a noncontact memory (15, 16) configured to conduct a noncontact data communication with receiving means of said apparatus main assembly, characterized in that said apparatus main assembly is configured to perform a rotational drive of the driving means by rotating the driving means in an image forming direction and then slightly in the reverse direction, before reading out data from the noncontact memory (15, 16). an apparatus main assembly, and a process cartridge configured to be detachably mountable to said apparatus main assembly, and including driving force receiving means configured to be connected to driving means of said apparatus main assembly and a noncontact memory (15, 16) configured to conduct a noncontact data communication with receiving means of said apparatus main assembly, characterized in that said apparatus main assembly is configured to perform a rotational drive of the driving means by rotating the driving means in an image forming direction and then slightly in the reverse direction, before reading out data from the noncontact memory (15, 16).
A welding torch comprising: a tip connection body that has a cylindrical shape and that has a fixing hole extending through a side surface thereof; a holding member that has a cylindrical shape and that is fitted onto an outside of the tip connection body, the holding member having a smaller diameter portion and a larger diameter portion formed on an inner peripheral surface thereof; a fixing member disposed between the inner peripheral surface of the holding member and the fixing hole of the tip connection body, the fixing member being fixed in place in an axial direction of the tip connection body; and a welding tip that has a cylindrical shape and that is fitted into the tip connection body, the welding tip having a fixing groove formed along a circumferential direction of an outer peripheral surface thereof at a position that is opposite the fixing hole, characterized in that: the holding member is displaceable in the axial direction of the tip connection body, and the fixing member fixes the welding tip in place in the axial direction of the welding tip when the fixing member is in contact with the smaller diameter portion, and the fixing member releases the welding tip when the fixing member is in contact with the larger diameter portion. a tip connection body that has a cylindrical shape and that has a fixing hole extending through a side surface thereof; a holding member that has a cylindrical shape and that is fitted onto an outside of the tip connection body, the holding member having a smaller diameter portion and a larger diameter portion formed on an inner peripheral surface thereof; a fixing member disposed between the inner peripheral surface of the holding member and the fixing hole of the tip connection body, the fixing member being fixed in place in an axial direction of the tip connection body; and a welding tip that has a cylindrical shape and that is fitted into the tip connection body, the welding tip having a fixing groove formed along a circumferential direction of an outer peripheral surface thereof at a position that is opposite the fixing hole, characterized in that: the holding member is displaceable in the axial direction of the tip connection body, and the fixing member fixes the welding tip in place in the axial direction of the welding tip when the fixing member is in contact with the smaller diameter portion, and the fixing member releases the welding tip when the fixing member is in contact with the larger diameter portion. the holding member is displaceable in the axial direction of the tip connection body, and the fixing member fixes the welding tip in place in the axial direction of the welding tip when the fixing member is in contact with the smaller diameter portion, and the fixing member releases the welding tip when the fixing member is in contact with the larger diameter portion.
A quantum cascade semiconductor laser comprising an active waveguide core sandwiched between upper and lower n-type cladding layers (22, 26, 24), wherein: the active waveguide core extends between opposing facets (13, 14) of the semiconductor laser, one of which defines an output window of the semiconductor laser; and the active waveguide core comprises alternating semiconductor layers that are configured to amplify light emitted due to carrier transitions between energy states within the same energy band, characterised in that a portion of the upper n-type cladding layer comprises sufficient p-type dopant to define a p-type isolation region adjacent at least one of the opposing facets (13, 14) of the semiconductor laser; the p-type isolation region extends across at least a part of the thickness of the upper n-type cladding layer adjacent at least one of the opposing facets (13, 14) of the semiconductor laser. the active waveguide core extends between opposing facets (13, 14) of the semiconductor laser, one of which defines an output window of the semiconductor laser; and the active waveguide core comprises alternating semiconductor layers that are configured to amplify light emitted due to carrier transitions between energy states within the same energy band, characterised in that a portion of the upper n-type cladding layer comprises sufficient p-type dopant to define a p-type isolation region adjacent at least one of the opposing facets (13, 14) of the semiconductor laser; the p-type isolation region extends across at least a part of the thickness of the upper n-type cladding layer adjacent at least one of the opposing facets (13, 14) of the semiconductor laser.