mhurhangee/ep-ind-claims huggingface dataset:
A lubricating oil composition comprising 70 mass% or more, based on the total amount of the lubricating oil composition, of an oxygen-containing synthetic base oil having an oxygen content of from 15 to 40 mass% and a kinematic viscosity at 100°C of from 0.5 to 50 mm 2 /s, and a viscosity index improver that is an oxygen-containing compound having an oxygen content of from 15 to 40 mass% and a kinematic viscosity at 100°C of 11,000 mm 2 /s or more, a mass ratio of the oxygen-containing synthetic base oil and the viscosity index improver being from 99.5:0.5 to 75:25, and a ratio (A/B) of the oxygen content of the oxygen-containing synthetic base oil to the oxygen content of the viscosity index improver being in a range of from 0.5 to 2, wherein the viscosity index improver is at least one oxygen-containing compound selected from a polyvinyl ether compound, a polyoxyalkylene glycol compound, and a copolymer having a structure of a poly(oxy)alkylene glycol or a monoether thereof and a polyvinyl ether, and wherein the oxygen-containing synthetic base oil is at least one selected from a polyvinyl ether compound, a polyoxyalkylene glycol compound, a polyol ester compound, and a copolymer having a structure of a poly(oxy)alkylene glycol or a monoether thereof and a polyvinyl ether, and wherein the kinematic viscosity is measured by using a glass capillary viscometer according to JIS K 2283.
A method for determining the contact angle (φ) between a sample surface, a gaseous environment and a drop arranged on the sample surface, the drop having a curved surface, a symmetry axis (ASy-ASy) and a defined volume, the method comprising the following steps: a) imaging an object on the basis of the reflection properties of the surface of the drop, the position of the object with respect to the optical axis (A-A) of an optical measuring system and the position of the object with respect to the sample surface being known, and the symmetry axis (ASy-ASy) of the drop being arranged in the optical axis (A-A); b) measuring the distance between the image of the object and the symmetry axis (ASy-ASy) of the drop; c) determining the radius of curvature of the drop from the measured distance; and d) determining the contact angle (φ) from the radius of curvature. a) imaging an object on the basis of the reflection properties of the surface of the drop, the position of the object with respect to the optical axis (A-A) of an optical measuring system and the position of the object with respect to the sample surface being known, and the symmetry axis (ASy-ASy) of the drop being arranged in the optical axis (A-A); b) measuring the distance between the image of the object and the symmetry axis (ASy-ASy) of the drop; c) determining the radius of curvature of the drop from the measured distance; and d) determining the contact angle (φ) from the radius of curvature.
A method for testing an airbag cover comprising a predetermined breaking line, wherein an initiator is guided along the predetermined breaking line relative to the airbag cover, while the initiator introduces energy at locations to be tested along the predetermined breaking line, thereby causing sound waves, characterized in that an optical test signal is generated as an interference signal with a sound signature of the sound waves, which is compared with a reference signal to which a predetermined tear resistance of the predetermined breaking line is assigned in relation to the location. an initiator is guided along the predetermined breaking line relative to the airbag cover, while the initiator introduces energy at locations to be tested along the predetermined breaking line, thereby causing sound waves, characterized in that an optical test signal is generated as an interference signal with a sound signature of the sound waves, which is compared with a reference signal to which a predetermined tear resistance of the predetermined breaking line is assigned in relation to the location.
A structure comprising: a gallium arsenide semiconductor substrate; a buffer layer disposed over the substrate, such buffer layer having a compositionally graded AlGaInAs quaternary lower portion and a compositionally graded AlInAs ternary upper portion. a gallium arsenide semiconductor substrate; a buffer layer disposed over the substrate, such buffer layer having a compositionally graded AlGaInAs quaternary lower portion and a compositionally graded AlInAs ternary upper portion.
An exercise monitoring device, comprising: a display configured to display exercise data with respect to a plurality of exercisers during a group exercise session; and processing means for receiving of a signal wirelessly from each of a plurality of exercise sensors (S1-S4), wherein each exercise sensor (S1-S4) measures the exercise data with respect to an exerciser carrying the respective exercise sensor (S1-S4); processing means for determining distances between each exercise sensor and the exercise monitoring device; processing means for performing sorting of the plurality of exercise sensors (S1-S4) on the basis of the determined distances during the group exercise session; and processing means for displaying the exercise data on the display on the basis of the sorting during the group exercise session. a display configured to display exercise data with respect to a plurality of exercisers during a group exercise session; and processing means for receiving of a signal wirelessly from each of a plurality of exercise sensors (S1-S4), wherein each exercise sensor (S1-S4) measures the exercise data with respect to an exerciser carrying the respective exercise sensor (S1-S4); processing means for determining distances between each exercise sensor and the exercise monitoring device; processing means for performing sorting of the plurality of exercise sensors (S1-S4) on the basis of the determined distances during the group exercise session; and processing means for displaying the exercise data on the display on the basis of the sorting during the group exercise session.
A method of operating a multiple-use sensor array comprising two or more different ion-selective electrodes including a first ion-selective electrode and a second ion-selective electrode, said first ion-selective electrode including a membrane comprising (a) a first ionophore and (b) at least a second ionophore, said second ion-selective electrode including a membrane comprising the second ionophore, said first ionophore not being present in said second ion-selective electrode, said method comprising the steps of: i. in sequence contacting the sensor array with one or more rinse solutions establishing a 1-point calibration and optionally one or more calibration solutions, each of said rinse solutions being substantially devoid of the ion for which said first ionophore is selective and comprising at least the ion for which said second ionophore is selective; ii. subsequently contacting the sensor array with a sample of biological origin. i. in sequence contacting the sensor array with one or more rinse solutions establishing a 1-point calibration and optionally one or more calibration solutions, each of said rinse solutions being substantially devoid of the ion for which said first ionophore is selective and comprising at least the ion for which said second ionophore is selective; ii. subsequently contacting the sensor array with a sample of biological origin.
A ceiling system comprising: a suspended support grid including a plurality of intersecting grid support members (202,204) arranged horizontally and grid openings formed between the grid support members (202,204); a vertical baffle positioned in one grid opening and attached to the support grid; the baffle including opposing front and rear faces (310,312) extending between opposing lateral sides (306,308) of the baffle; first and second mounting grooves formed in the baffle; and wherein the first and second grooves engage different grid support members (202,204) to support the baffle from the support grid, characterised in that said baffle further includes a third face mounting groove formed in the rear face of the baffle, said third face mounting groove engaging a grid support member (202,204). a suspended support grid including a plurality of intersecting grid support members (202,204) arranged horizontally and grid openings formed between the grid support members (202,204); a vertical baffle positioned in one grid opening and attached to the support grid; the baffle including opposing front and rear faces (310,312) extending between opposing lateral sides (306,308) of the baffle; first and second mounting grooves formed in the baffle; and wherein the first and second grooves engage different grid support members (202,204) to support the baffle from the support grid,
A curable composition comprising one or more epoxy compounds having from 2 to 10 epoxy groups, one or more amino hardeners having at least one primary or at least two secondary amino groups, and one or more phosphonates of the formula I where R1 are mutually independently alkyl or aryl groups or substituted aryl, alkaryl, or alkenyl groups, and R2 is an H atom, and where the proportion of the phosphonates of the formula I does not exceed 2.5% by weight of phosphorus, based on the entire composition, and is at least 0.2% by weight of phosphorus, based on the entire composition, and where the alkyl groups have from 1 to 20 carbon atoms and have no substituents having heteroatoms. R1 are mutually independently alkyl or aryl groups or substituted aryl, alkaryl, or alkenyl groups, and R2 is an H atom, and where the proportion of the phosphonates of the formula I does not exceed 2.5% by weight of phosphorus, based on the entire composition, and is at least 0.2% by weight of phosphorus, based on the entire composition, and where the alkyl groups have from 1 to 20 carbon atoms and have no substituents having heteroatoms.
Method for recycling lithium battery electrodes containing a mixed phosphate of lithium and of iron and graphite and/or containing a mixed phosphate of lithium and of iron and a mixed oxide of lithium and of titanium and/or lithium batteries containing such electrodes, characterised in that said method comprises the following steps: a) grinding said electrodes and/or said batteries, b) dissolving the organic and/or polymer components of said electrodes and/or of said batteries in an organic solvent, c) separating the non-dissolved metals present in the suspension obtained in step b), d) filtering the suspension obtained in step c) through a press filter, e) recovering the solid mass retained in the press filter in step d), and suspending this solid mass in water, f) recovering the material having deposited or coagulated in step e), again placing this deposited material in suspension in water and adjusting the pH of the suspension obtained to a pH lower than 5, preferably lower than 4, g) filtering the suspension obtained in step f) in a press filter, and h) separating the iron via precipitation of iron phosphates and the lithium via precipitation of a lithium salt. a) grinding said electrodes and/or said batteries, b) dissolving the organic and/or polymer components of said electrodes and/or of said batteries in an organic solvent, c) separating the non-dissolved metals present in the suspension obtained in step b), d) filtering the suspension obtained in step c) through a press filter, e) recovering the solid mass retained in the press filter in step d), and suspending this solid mass in water, f) recovering the material having deposited or coagulated in step e), again placing this deposited material in suspension in water and adjusting the pH of the suspension obtained to a pH lower than 5, preferably lower than 4, g) filtering the suspension obtained in step f) in a press filter, and h) separating the iron via precipitation of iron phosphates and the lithium via precipitation of a lithium salt.
A vacuum cleaner comprising: a cleaner body including a suction motor for generating suction force; and a suction part communicating with the cleaner body to suck in air and dust, wherein the cleaner body includes: a main body; wheels rotatably provided in the main body to move the main body; and a battery detachably provided at a rear side of the main body and capable of supplying power to the main body wherein, when the battery is detached from the cleaner body, a center of gravity of the cleaner body is located at a front side of a vertical line passing through a rotation center of the wheels, characterized in that the vacuum cleaner further comprises: a display unit provided in the wheels to display a remaining amount of the battery. a cleaner body including a suction motor for generating suction force; and a suction part communicating with the cleaner body to suck in air and dust, wherein the cleaner body includes: a main body; wheels rotatably provided in the main body to move the main body; and a battery detachably provided at a rear side of the main body and capable of supplying power to the main body a main body; wheels rotatably provided in the main body to move the main body; and a battery detachably provided at a rear side of the main body and capable of supplying power to the main body wherein, when the battery is detached from the cleaner body, a center of gravity of the cleaner body is located at a front side of a vertical line passing through a rotation center of the wheels, characterized in that the vacuum cleaner further comprises: a display unit provided in the wheels to display a remaining amount of the battery.
Device for braking and rotating a wheel which is fitted such as to rotate on a aircraft landing gear axle, the device comprising: - a torque tube which is designed to be fitted such as to rotate on the axle which supports the wheel; - a stack of discs, the first discs of which comprise means for rendering them integral in rotation with the wheel, and second discs which are arranged alternating with the first, and comprising means for rendering them integral in rotation with the torque tube; - a ring which supports braking actuators which are designed to press the discs together selectively, the ring being integral in rotation with the torque tube in order to form a rotating part of the device; - a rotation unit for rotation of the rotating part; - means (51, 52) for selective blocking in rotation of the rotating part; characterised in that the blocking means (51, 52) are independent from the rotation unit. - a torque tube which is designed to be fitted such as to rotate on the axle which supports the wheel; - a stack of discs, the first discs of which comprise means for rendering them integral in rotation with the wheel, and second discs which are arranged alternating with the first, and comprising means for rendering them integral in rotation with the torque tube; - a ring which supports braking actuators which are designed to press the discs together selectively, the ring being integral in rotation with the torque tube in order to form a rotating part of the device; - a rotation unit for rotation of the rotating part; - means (51, 52) for selective blocking in rotation of the rotating part; characterised in that the blocking means (51, 52) are independent from the rotation unit.
A surgical anvil assembly for use with a circular stapling instrument, comprising: an anvil center rod; an anvil head pivotally coupled to the anvil center rod and movable between a first, operative condition and a second, tilted condition; and a ring assembly disposed within a recess of the anvil head and movable within the recess from a proximal position preventing pivotal movement of the anvil head from the first, operative condition, to a distal position permitting pivotal movement of the anvil head to the second, tilted condition, wherein the ring assembly includes: a backup member configured to engage the anvil center rod when the ring assembly is in the proximal position; a first cut ring nested with the backup member and being fabricated from a first material; and a second cut ring fabricated from a second material that is softer than the first material; characterised in that the first cut ring defines a recess therein, wherein the second cut ring is disposed within the recess of the first cut ring. an anvil center rod; an anvil head pivotally coupled to the anvil center rod and movable between a first, operative condition and a second, tilted condition; and a ring assembly disposed within a recess of the anvil head and movable within the recess from a proximal position preventing pivotal movement of the anvil head from the first, operative condition, to a distal position permitting pivotal movement of the anvil head to the second, tilted condition, wherein the ring assembly includes: a backup member configured to engage the anvil center rod when the ring assembly is in the proximal position; a first cut ring nested with the backup member and being fabricated from a first material; and a second cut ring fabricated from a second material that is softer than the first material; a backup member configured to engage the anvil center rod when the ring assembly is in the proximal position; a first cut ring nested with the backup member and being fabricated from a first material; and a second cut ring fabricated from a second material that is softer than the first material;
Powder mixture comprising: - 20-90 wt% of one or more powdered organic peroxides and - 10-80 wt% of one or more powdered filler materials, at least 60 wt% thereof being barium sulphate. - 20-90 wt% of one or more powdered organic peroxides and - 10-80 wt% of one or more powdered filler materials, at least 60 wt% thereof being barium sulphate.
An optical solution cast film made from a composition comprising: (a) a cellulose acetate propionate having: (i) at least one acetyl group and at least one non-acetyl ester group, (ii) a ratio of the degree of substitution of non-acetyl ester groups to the degree of substitution of hydroxyl groups of 10 to 200, and (iii) a non-acetyl ester degree of substitution of 1.1 to 1.75; and (b) a plasticizer selected in an amount of at least 12,5 wt% from xylitol pentaacetate, xylitol pentapropionate, arabitol pentapropionate, or in an amount of at least 20 wt% from triphenyl phosphate, a polyester comprising succinic acid residues and diethylene glycol residues, a polyester comprising adipic acid residues and diethylene glycol residues; wherein the amount of the plasticizer ranges up to 25 weight percent based on the total weight of the cellulose acetate propionate and the plasticizer; and wherein the film has an optical retardation value in the thickness direction (R th) of +50 to +130 nm measured at a film thickness of 80 μm and at a light wavelength of 633 nm: and wherein the film is dried from residual solvents and relaxed from residual stress by annealing between 120°C and 150°C. (a) a cellulose acetate propionate having: (i) at least one acetyl group and at least one non-acetyl ester group, (ii) a ratio of the degree of substitution of non-acetyl ester groups to the degree of substitution of hydroxyl groups of 10 to 200, and (iii) a non-acetyl ester degree of substitution of 1.1 to 1.75; and (i) at least one acetyl group and at least one non-acetyl ester group, (ii) a ratio of the degree of substitution of non-acetyl ester groups to the degree of substitution of hydroxyl groups of 10 to 200, and (iii) a non-acetyl ester degree of substitution of 1.1 to 1.75; and (b) a plasticizer selected in an amount of at least 12,5 wt% from xylitol pentaacetate, xylitol pentapropionate, arabitol pentapropionate, or in an amount of at least 20 wt% from triphenyl phosphate, a polyester comprising succinic acid residues and diethylene glycol residues, a polyester comprising adipic acid residues and diethylene glycol residues;
A catheter apparatus, comprising: a catheter comprising an elongated tubular shaft having a proximal portion and a distal portion; a therapeutic assembly at the distal portion of the elongated shaft and transformable between a delivery state and a deployed state; a handle coupled to the proximal portion of the shaft; an actuator carried by the handle; and a tuned control member (68,168) operably coupled between the actuator and the therapeutic assembly, wherein the tuned control member comprises a control wire extending through a lumen in the shaft and a tuning component (40,140) coupled to the wire, wherein, when subjected to a tensile force-the control wire alone has a first force/displacement curve having a first superelastic response plateau at a first displacement along the first force/displacement curve, the tuned control member (40,140) has a second force/displacement curve having a second superelastic response plateau at a second displacement along the second force/displacement curve less than the first displacement. a catheter comprising an elongated tubular shaft having a proximal portion and a distal portion; a therapeutic assembly at the distal portion of the elongated shaft and transformable between a delivery state and a deployed state; a handle coupled to the proximal portion of the shaft; an actuator carried by the handle; and a tuned control member (68,168) operably coupled between the actuator and the therapeutic assembly, wherein the tuned control member comprises a control wire extending through a lumen in the shaft and a tuning component (40,140) coupled to the wire, wherein, when subjected to a tensile force-the control wire alone has a first force/displacement curve having a first superelastic response plateau at a first displacement along the first force/displacement curve, the tuned control member (40,140) has a second force/displacement curve having a second superelastic response plateau at a second displacement along the second force/displacement curve less than the first displacement.
Method for operating an automated industrial truck (2, 3) with a control device comprising a data processing device for automatically controlling the industrial truck (2, 3), and a data exchange device operatively connected to the data processing device and comprising at least one data receiving device, characterized in that by means of at least one mobile electronic device with integrated data processing, data transmitting and data receiving device and also information output and input device, said electronic device being portable for carrying by an operator and being defined as a smart device, order data for at least one order for the industrial truck (2, 3) are transmitted via a wireless data connection to the data receiving device of the industrial truck (2, 3), wherein the order is formed by a transport order with transport destination stipulation selected manually on the smart device, and the order data are forwarded to the data processing device, in which the order data are read into a control program that controls processing of the order by the industrial truck (2, 3).