mhurhangee/ep-ind-claims huggingface dataset:
Blocking device for locking an essential functional component of a motor vehicle, in particular a steering shaft, with a first housing part in which a blocking bolt is movably received between a locking position for locking the functionally essential component and an unlocking position for releasing the functionally essential component, a second housing part in which means for moving the blocking bolt between the locking position and the unlocking position are accommodated, a securing element which in an engagement position prevents movement of the blocking bolt and in a retracted position releases movement of the blocking bolt, and a spring element which supports the securing element in the retracted position by means of a spring-elastic pretension when the first housing part is arranged on the second housing part, and releases it into the engagement position by means of a springback when the first housing part is changed in its arrangement relative to the second housing part, characterized in that the spring element is supported on the blocking bolt and acts on the blocking bolt from the unlocked position into the locking position by means of a spring-elastic prestress.
A positive electrode active material for a secondary battery, the positive electrode active material comprising: a lithium complex transition metal oxide which contains nickel (Ni) and cobalt (Co), and contains at least one selected from the group consisting of manganese (Mn) and aluminum (Al); and a composite coating portion which is formed on a surface of the lithium complex transition metal oxide, wherein the lithium complex transition metal oxide has a nickel (Ni) content of 65 mol% or more with respect to the total transition metal content, and the composite coating portion contains cobalt (Co) and boron, and contains at least one selected from the group consisting of lanthanum (La), titanium (Ti), and aluminum (Al), wherein the cobalt (Co) contained in the composite coating portion is contained in an amount of 1,000-8,000 ppm with respect to the total weight of the positive electrode active material, wherein the boron contained in the composite coating portion is contained in an amount of 50-700 ppm with respect to the total weight of the positive electrode active material, and wherein at least one selected from the group consisting of lanthanum (La), titanium (Ti), and aluminum (Al) contained in the composite coating portion is contained in an amount of 1,000-8,000 ppm with respect to the total weight of the positive electrode active material. a lithium complex transition metal oxide which contains nickel (Ni) and cobalt (Co), and contains at least one selected from the group consisting of manganese (Mn) and aluminum (Al); and a composite coating portion which is formed on a surface of the lithium complex transition metal oxide, wherein the lithium complex transition metal oxide has a nickel (Ni) content of 65 mol% or more with respect to the total transition metal content, and the composite coating portion contains cobalt (Co) and boron, and contains at least one selected from the group consisting of lanthanum (La), titanium (Ti), and aluminum (Al), wherein the cobalt (Co) contained in the composite coating portion is contained in an amount of 1,000-8,000 ppm with respect to the total weight of the positive electrode active material, wherein the boron contained in the composite coating portion is contained in an amount of 50-700 ppm with respect to the total weight of the positive electrode active material, and wherein at least one selected from the group consisting of lanthanum (La), titanium (Ti), and aluminum (Al) contained in the composite coating portion is contained in an amount of 1,000-8,000 ppm with respect to the total weight of the positive electrode active material.
Waste heat boiler system for cooling a process gas, comprising: a first shell-and-tube heat exchanger for cooling relatively hot gas down to relatively warm gas by allowing gas to flow through tubes of said first heat exchanger, which tubes extend through a space within a shell of said first heat exchanger; an intermediate chamber for receiving gas, cooled down to relatively warm gas, coming out of the tubes of the first heat exchanger; and a second shell-and-tube heat exchanger for cooling relatively warm gas further down to relatively cool gas by allowing gas to flow from the intermediate chamber and through tubes of the second heat exchanger, which tubes extend through a space within a shell of said second heat exchanger, wherein the intermediate chamber is provided with an outlet fluidly connected to a bypass channel for allowing a part of the relatively warm gas entering said intermediate chamber from the tubes of the first heat exchanger to bypass the tubes of the second shell-and-tube heat exchanger, wherein both the bypass channel and the tubes of the second shell-and-tube heat exchanger are in fluid connection with a mixing chamber for mixing together relatively warm gas flowed from the intermediate chamber into the mixing chamber via the bypass channel and relatively cool gas coming out of the tubes of the second shell-and-tube heat exchanger. a first shell-and-tube heat exchanger for cooling relatively hot gas down to relatively warm gas by allowing gas to flow through tubes of said first heat exchanger, which tubes extend through a space within a shell of said first heat exchanger; an intermediate chamber for receiving gas, cooled down to relatively warm gas, coming out of the tubes of the first heat exchanger; and a second shell-and-tube heat exchanger for cooling relatively warm gas further down to relatively cool gas by allowing gas to flow from the intermediate chamber and through tubes of the second heat exchanger, which tubes extend through a space within a shell of said second heat exchanger, wherein the intermediate chamber is provided with an outlet fluidly connected to a bypass channel for allowing a part of the relatively warm gas entering said intermediate chamber from the tubes of the first heat exchanger to bypass the tubes of the second shell-and-tube heat exchanger, wherein both the bypass channel and the tubes of the second shell-and-tube heat exchanger are in fluid connection with a mixing chamber for mixing together relatively warm gas flowed from the intermediate chamber into the mixing chamber via the bypass channel and relatively cool gas coming out of the tubes of the second shell-and-tube heat exchanger.
A surgical instrument powerhead comprising: a housing comprising at least first and second housing portions (110a, 110b) defining an interior volume, said housing enabling access to the interior volume, a chassis assembly comprising a chassis mounting a set of operating components configured and aligned to operate within the power head, said chassis being mounted within the interior volume, characterized in that the chassis mounts all of the operating components of the power head whereby at least the first housing portion is removable to expose at least a portion of the interior volume of the surgical instrument, and the set of operating components mounted on the chassis are removable from housing by exposing the interior volume and removing the chassis assembly, and are replaceable by substitution of a replacement chassis assembly mounting a replacement set of operating components. a housing comprising at least first and second housing portions (110a, 110b) defining an interior volume, said housing enabling access to the interior volume, a chassis assembly comprising a chassis mounting a set of operating components configured and aligned to operate within the power head, said chassis being mounted within the interior volume, characterized in that the chassis mounts all of the operating components of the power head whereby at least the first housing portion is removable to expose at least a portion of the interior volume of the surgical instrument, and the set of operating components mounted on the chassis are removable from housing by exposing the interior volume and removing the chassis assembly, and are replaceable by substitution of a replacement chassis assembly mounting a replacement set of operating components.
A cover member for a surgical staple cartridge including a cartridge body with a deck that includes a longitudinal slot and a plurality of fastener cavity openings in the deck wherein surgical fasteners are operably supported therein, the surgical staple cartridge further including a wedge sled selectively movable from a starting position longitudinally through the cartridge body upon application of a firing motion thereto, said cover member comprising: a top portion configured to be received on the deck; and means (7256, 7255) for locating the top portion on the deck in a covering position such that the top portion covers all of the fastener openings in the deck; characterised by said cover member further comprising: means (7254, 7257, 7253) for removably fastening the cover member to the cartridge body in the covering position; and means for retainingly engaging the wedge sled such that the wedge sled is retained in the starting position when the top portion is in the covering position, wherein said means for removably fastening the cover member to the cartridge body comprises a pair of attachment arms protruding from said top portion for releasably engaging corresponding sides of the cartridge body. a top portion configured to be received on the deck; and means (7256, 7255) for locating the top portion on the deck in a covering position such that the top portion covers all of the fastener openings in the deck; characterised by said cover member further comprising: means (7254, 7257, 7253) for removably fastening the cover member to the cartridge body in the covering position; and means for retainingly engaging the wedge sled such that the wedge sled is retained in the starting position when the top portion is in the covering position, means (7254, 7257, 7253) for removably fastening the cover member to the cartridge body in the covering position; and means for retainingly engaging the wedge sled such that the wedge sled is retained in the starting position when the top portion is in the covering position,
An aircraft engine mounting system for mounting an aircraft engine to an aircraft, said aircraft engine mounting system comprising: an airframe structure member having a first engine end and a distal second engine end, with an aircraft attachment between said first engine end and said distal second engine end, said aircraft attachment for interfacing said airframe structure member with said aircraft, said airframe structure member having an airframe structure member length YL from said first engine end to said distal second engine end, a first engine attachment structure member having an outer engine mount member grounded to said aircraft engine, a second engine attachment structure member having an outer engine mount member grounded to said aircraft engine, characterised in that said airframe structure member first engine end is contained by said first engine attachment structure member, and said airframe structure member second engine end is contained by said second engine attachment structure member, and said first engine attachment structure member and said second engine attachment structure member grounded to said aircraft engine with a mounts spacing MS between said first engine attachment structure member and said second engine attachment structure member interlocking said airframe structure member length YL between said first engine attachment structure member and said second engine attachment structure member. an airframe structure member having a first engine end and a distal second engine end, with an aircraft attachment between said first engine end and said distal second engine end, said aircraft attachment for interfacing said airframe structure member with said aircraft, said airframe structure member having an airframe structure member length YL from said first engine end to said distal second engine end, a first engine attachment structure member having an outer engine mount member grounded to said aircraft engine, a second engine attachment structure member having an outer engine mount member grounded to said aircraft engine, characterised in that
Method for anchoring an object to the ground with at least one anchor pile that gets inserted into the ground, comprising the steps of: - positioning a sonic drill apparatus at a position where the anchor pile is to be inserted into the ground; - providing an assembly of a head section and one or more rod sections, in which the rod sections are connectable to the head section and to each other while extending in a longitudinal direction (x) for forming the anchor pile; - inserting the anchor pile into the ground; wherein the head section comprises a drilling portion, wherein the inserting of the anchor pile into the ground comprises a drilling of the head section with its drilling portion in rotation directly into the ground by means of the sonic drill apparatus, repeatedly connecting one of the rod sections thereto and then drilling the connected head and rod sections (6; 20) further into the ground by means of the sonic drill apparatus, wherein during at least part of this drilling, a sonic vibration is introduced into the connected sections (6; 20); wherein the provided assembly comprises hollow tube sections as rod sections (6; 20), characterized in that, the head section is closed or substantially closed in a longitudinal direction (x) at its front side; wherein the provided assembly comprises one or more outlet openings in its head section which openings connect to a feed channel inside the hollow tube sections, wherein during at least a final stage of the drilling of the connected sections (6; 20) into the ground, a curable substance is fed pressurized through the feed channel, which curable substance gets injected via the one or more outlet openings into the ground to form a volume of a mixture of the curable substance and ground particles around the head section, and wherein the introduced sonic vibration is used during said final stage of the drilling for compacting the mixture of the curable substance and ground particles around the head section after which the curing of the mixture takes place, and after which the object to be anchored to the ground is coupled to a proximal end of the connected sections (6; 20) of the anchor pile. - positioning a sonic drill apparatus at a position where the anchor pile is to be inserted into the ground; - providing an assembly of a head section and one or more rod sections, in which the rod sections are connectable to the head section and to each other while extending in a longitudinal direction (x) for forming the anchor pile; - inserting the anchor pile into the ground;
An image forming apparatus which has a plurality of detachable cartridges, each comprising an image carrier (9M, 9C, 9Y, 9K), a charging member (10M, 10C, 10Y, 10K) for charging the image carrier, a developing member (12M, 12C, 12Y, 12K) for developing a latent image formed on the image carrier, and a cleaning blade (14M, 14C, 14Y, 14K) for cleaning a surface of the image carrier, characterized by comprising: a determination unit configured to determine whether a replacement timing for one of the plurality of cartridges has come; and a controller configured to perform setting such that image forming is performed using a predetermined cartridge whose replacement timing has not come, out of the plurality of cartridges, if it is determined that the replacement timing for the one of the plurality of cartridges has come, wherein said controller is configured to perform setting such that image forming is performed for a predetermined period of time corresponding to a state of the cleaning blade of the cartridge whose replacement timing is determined to have come. a determination unit configured to determine whether a replacement timing for one of the plurality of cartridges has come; and a controller configured to perform setting such that image forming is performed using a predetermined cartridge whose replacement timing has not come, out of the plurality of cartridges, if it is determined that the replacement timing for the one of the plurality of cartridges has come, wherein said controller is configured to perform setting such that image forming is performed for a predetermined period of time corresponding to a state of the cleaning blade of the cartridge whose replacement timing is determined to have come.
Method for controlling a headlamp of a motor vehicle, where the headlamp comprises several light sources and where the method comprises the following steps: - Determination of a projection symbol to be projected by the headlamp; - Determination of a position and a size of the projection symbol; - Determination in each case of a first luminous intensity for the light sources for projecting the projection symbol at the position with the size; characterized in that the method further comprises the following steps: - Determination of a first indicator that comprises information on how strongly the individual first luminous intensities differ from each other; and then - Change in the position and/or size of the projection symbol; - Determination in each case of a second luminous intensity for the light sources for projecting the projection symbol at the changed position and/or with the changed size; and then - Determination of a second indicator that comprises information on how strongly the individual second luminous intensities differ from each other; and then - Comparison of the first indicator with the second indicator; and then - Determination of whether the first or the second luminous intensity is deployed as the luminous intensity in use depending on the comparison between the first indicator and the second indicator where the projection symbol is projected by the headlamp at the luminous intensity in use. - Determination of a projection symbol to be projected by the headlamp; - Determination of a position and a size of the projection symbol; - Determination in each case of a first luminous intensity for the light sources for projecting the projection symbol at the position with the size; - Determination of a first indicator that comprises information on how strongly the individual first luminous intensities differ from each other; and then - Change in the position and/or size of the projection symbol; - Determination in each case of a second luminous intensity for the light sources for projecting the projection symbol at the changed position and/or with the changed size; and then - Determination of a second indicator that comprises information on how strongly the individual second luminous intensities differ from each other; and then - Comparison of the first indicator with the second indicator; and then - Determination of whether the first or the second luminous intensity is deployed as the luminous intensity in use depending on the comparison between the first indicator and the second indicator where the projection symbol is projected by the headlamp at the luminous intensity in use.
Variably cold rolled steel strip, sheet or blank, consisting of the following elements (in wt%): 0.05 - 0.20 C 0.30 - 0.60 Si 0.80 - 2.50 Mn 0.01 - 0.10 Al 0.07 - 0.25 Ti 0.10 - 0.35 V 0.05 - 0.40 Mo 0.02 - 0.10 Nb optionally 0.01 - 0.80 Cr at most 0.06 P at most 0.01 S at most 0.01 N at most 0.005 Ca the balance consisting of inevitable impurities and Fe, wherein the strip, sheet or blank has at least one portion having a high thickness and at least one portion having a low thickness, wherein the variation in thickness between the high thickness and the low thickness is at least 35%, and wherein in the portion with high thickness the yield strength is 350 MPa or higher and the tensile elongation A50 (in %) and sheet thickness t (in mm) satisfy the equation of A50 / t 0.2 ≥ 14, and in the portion with low thickness the yield strength is 450 MPa or higher and the tensile elongation A50 (in %) and sheet thickness t (in mm) satisfy the equation A50 / t 0.2 ≥ 17, and wherein the steel has a precipitation strengthened ferrite microstructure, consisting of at least 50% recrystallized ferrite at 1⁄4 depth of the portion with high thickness, and which further contains cementite and/or pearlite, and wherein the precipitates in said microstructure consist of Ti, V, Mo and Nb. 0.05 - 0.20 C 0.30 - 0.60 Si 0.80 - 2.50 Mn 0.01 - 0.10 Al 0.07 - 0.25 Ti 0.10 - 0.35 V 0.05 - 0.40 Mo 0.02 - 0.10 Nb optionally 0.01 - 0.80 Cr at most 0.06 P at most 0.01 S at most 0.01 N at most 0.005 Ca the balance consisting of inevitable impurities and Fe, wherein the strip, sheet or blank has at least one portion having a high thickness and at least one portion having a low thickness, wherein the variation in thickness between the high thickness and the low thickness is at least 35%, and wherein in the portion with high thickness the yield strength is 350 MPa or higher and the tensile elongation A50 (in %) and sheet thickness t (in mm) satisfy the equation of A50 / t 0.2 ≥ 14, and in the portion with low thickness the yield strength is 450 MPa or higher and the tensile elongation A50 (in %) and sheet thickness t (in mm) satisfy the equation A50 / t 0.2 ≥ 17, and wherein the steel has a precipitation strengthened ferrite microstructure, consisting of at least 50% recrystallized ferrite at 1⁄4 depth of the portion with high thickness, and which further contains cementite and/or pearlite, and wherein the precipitates in said microstructure consist of Ti, V, Mo and Nb.
Hydrometallurgical process for the utilization of wastes containing rare earth metal borides (ceramics, magnets), characterized in that a) the waste materials are mixed with a reaction solution of water, 1 to 50% by weight organosulfonic acid and 1-50% by weight of an oxidizing agent in a stoichiometric ratio to the organosulfonic acid, wherein perborates, percarbonates, hypochlorites or peroxides are used as oxidizing agents, and the material is completely dissolved, and b) the organosulfonic acid is recovered again during the process. a) the waste materials are mixed with a reaction solution of water, 1 to 50% by weight organosulfonic acid and 1-50% by weight of an oxidizing agent in a stoichiometric ratio to the organosulfonic acid, wherein perborates, percarbonates, hypochlorites or peroxides are used as oxidizing agents, and the material is completely dissolved, and b) the organosulfonic acid is recovered again during the process.
A catalyst material for the oxidation of NO comprising a catalyst carrier including a ceria-alumina support having platinum and palladium dispersed on the support, wherein the ratio of platinum to palladium by weight is 2:1 and the amount of ceria in the support is in the range of 1% to 6% by weight.
Method for feeding doses of fluidisable materials, comprising a supply of material (1, 2, 2') and a discharging air slide with at least one fluidisable element in its bottom, where said element, when activated, being able to transport material towards one outlet for controlled dosage, the material is fed from the supply (1, 2, 2') to the discharging air slide via a substantially vertical distance tube (4, 4') that has a substantial circular cross-section and further a height (h d) and diameter (d), wherein the ratio h d:d is at least 7:1, characterised in that the tube (4,4') ensures a constant hydrostatic pressure towards the discharging air slide for filling levels in the distance tube (4, 4') maintained at the level h d or higher and for different filling levels in the supply of material upstream said tube.