mhurhangee/ep-ind-claims huggingface dataset:
A rearview device for a vehicle, comprising: • a moveable head assembly (2, 510, 603, 700, 6000), wherein the moveable head assembly comprises a lower case; • an actuator assembly (70, 90, 605, 606, 607, 701, 704, 705, 914, 3000) comprising a fixed part and a moveable part; • a motor cradle configured to attach the actuator assembly (70, 90, 605, 606, 607, 701, 704, 705, 914, 3000) to the moveable head assembly (2, 510, 603, 700, 6000), with the moveable part of the actuator assembly being attached to the lower case of the moveable head assembly using the motor cradle; • a cradle clamp configured to clamp the actuator assembly (70, 90, 605, 606, 607, 701, 704, 705, 914, 3000) to the motor cradle and the lower case; and • a light module, which is attached to the lower case, wherein the cradle clamp is configured to clamp the actuator assembly to the motor cradle, the lower case, and the light module, and wherein the cradle clamp comprises • one or more clamp cams configured to be received by a space formed between the actuator assembly and the motor cradle; • one or more clamp prongs configured to be received by a space formed between the actuator assembly and the motor cradle; • one or more clamp clips configured to clip on to corresponding features of the motor cradle; • one or more case locking prongs configured to lock the actuator assembly to the lower case; and • one or more light module locking prongs configured lock the actuator assembly to the light module. • a moveable head assembly (2, 510, 603, 700, 6000), wherein the moveable head assembly comprises a lower case; • an actuator assembly (70, 90, 605, 606, 607, 701, 704, 705, 914, 3000) comprising a fixed part and a moveable part; • a motor cradle configured to attach the actuator assembly (70, 90, 605, 606, 607, 701, 704, 705, 914, 3000) to the moveable head assembly (2, 510, 603, 700, 6000), with the moveable part of the actuator assembly being attached to the lower case of the moveable head assembly using the motor cradle; • a cradle clamp configured to clamp the actuator assembly (70, 90, 605, 606, 607, 701, 704, 705, 914, 3000) to the motor cradle and the lower case; and • a light module, which is attached to the lower case, wherein the cradle clamp is configured to clamp the actuator assembly to the motor cradle, the lower case, and the light module, and wherein the cradle clamp comprises • one or more clamp cams configured to be received by a space formed between the actuator assembly and the motor cradle; • one or more clamp prongs configured to be received by a space formed between the actuator assembly and the motor cradle; • one or more clamp clips configured to clip on to corresponding features of the motor cradle; • one or more case locking prongs configured to lock the actuator assembly to the lower case; and • one or more light module locking prongs configured lock the actuator assembly to the light module.
A method of producing a β-SiAlON phosphor, comprising a β-SiAlON represented by general formula Si 6-z Al z O z N 8-z, (0<z<4.2) as a matrix, and Eu 2+ dissolved therein in a form of a solid solution as an emission center, the β-SiAlON phosphor exhibiting a fluorescent peak wavelength from 520 to 560 nm when excited with blue light, an average diffuse reflectance in the wavelength range from 700 to 800 nm of 90% or higher, and a diffuse reflectance at the fluorescent peak wavelength of 85% or higher, the method comprising: a baking process of baking a raw material powder mixture containing Si, Al, and Eu in a nitrogen atmosphere at temperatures from 1850 to 2050°C; a heating process of heating the mixture having undergone the baking process in a noble gas atmosphere at temperatures from 1300 to 1550°C; a cooling process of cooling the mixture having undergone the heating process at temperatures from 1200 to 1000°C for 20 minutes or longer; and an acid treatment process. a baking process of baking a raw material powder mixture containing Si, Al, and Eu in a nitrogen atmosphere at temperatures from 1850 to 2050°C; a heating process of heating the mixture having undergone the baking process in a noble gas atmosphere at temperatures from 1300 to 1550°C; a cooling process of cooling the mixture having undergone the heating process at temperatures from 1200 to 1000°C for 20 minutes or longer; and an acid treatment process.
A hard coating excellent in wear resistance and oxidation resistance and made by stacking a layer A and a layer B that have different compositions, wherein the layer A is one selected from a group consisting of: a hard coating having composition of (Al a, Cr 1-a)(C 1-e N e) satisfying the relations: 0.25 ≤ a ≤ 0.7, and 0.5 ≤ e ≤ 1; a hard coating having composition of (Al a, Si c, B d, Cr 1-a-c-d) (C 1-e N e) satisfying the relations: 0.25 ≤ a ≤ 0.7, 0 < c + d ≤ 0.2, and 0.5 ≤ e ≤ 1; and a hard coating having composition of (Al a, Si c, B d, Ti 1-a-c-d) (C 1-e N e) satisfying the relations: 0.25 ≤ a ≤ 0.7, 0 < c + d ≤ 0.15, and 0.5 ≤ e ≤ 1; (where a, c, d and e that represent atomic ratios of Al, Si, B and N, respectively) and the layer B is a hard coating having composition of (M b, Si c, B d) (C 1-e N e) where M represents W and/or Mo, satisfying the relations: 0.8 ≤ b ≤ 1, 0 ≤ c + d ≤ 0.2, and 0.5 ≤ e ≤ 1; (where b, c, d and e that represent atomic ratios of M, Si, B and N, respectively) wherein the layer A and the layer B are stacked one on another so as to satisfy the following relation: 0.5 nm ≤ Thickness of layer B ≤ Thickness of layer A ≤ 100 nm a hard coating having composition of (Al a, Cr 1-a)(C 1-e N e) satisfying the relations: 0.25 ≤ a ≤ 0.7, and 0.5 ≤ e ≤ 1; a hard coating having composition of (Al a, Si c, B d, Cr 1-a-c-d) (C 1-e N e) satisfying the relations: 0.25 ≤ a ≤ 0.7, 0 < c + d ≤ 0.2, and 0.5 ≤ e ≤ 1; and a hard coating having composition of (Al a, Si c, B d, Ti 1-a-c-d) (C 1-e N e) satisfying the relations: 0.25 ≤ a ≤ 0.7, 0 < c + d ≤ 0.15, and 0.5 ≤ e ≤ 1;
Fault situation processing arrangement of a load distribution system of a local electric power transmission network comprising a fault situation processing element designed to be installed into each of generators of the electric power transmission network, each generator of the network being connectable to other generators via two connection routes having equipped with different switches (2,3), the power transmission network being a line or a loop, the fault situation processing element being arranged to - monitor fault situation of the data communication bus and statuses of the switches (16,17,19) of the electric power transmission network, characterized in that the generators have consecutive identifiers, the generators being connected to each other via a data communication bus, and in that the fault situation processing element is arranged to - compare the status data concerning the same switch (16,17,19), - change into droop control if the status data of some switch (16,17,19) do not correspond in the comparison and when there is no fault situation in the data communication bus or if there are data communication faults in connection with adjacent generators or in connection with the first and last generator of the network. - replace the status data of the switch (16,17,19) with the status provided by the adjacent generator concerning the same switch (16,17,19) when there are no data communication faults in connection with the adjacent generators or in connection with the first and last generator of the network, and the status data of the switch (16,17,19) do not correspond in the comparison. - monitor fault situation of the data communication bus and statuses of the switches (16,17,19) of the electric power transmission network, - compare the status data concerning the same switch (16,17,19), - change into droop control if the status data of some switch (16,17,19) do not correspond in the comparison and when there is no fault situation in the data communication bus or if there are data communication faults in connection with adjacent generators or in connection with the first and last generator of the network. - replace the status data of the switch (16,17,19) with the status provided by the adjacent generator concerning the same switch (16,17,19) when there are no data communication faults in connection with the adjacent generators or in connection with the first and last generator of the network, and the status data of the switch (16,17,19) do not correspond in the comparison.
A flexible web substrate material having opposed front and back sides and extending ir an X-Y plane, the front side being provided with a first electrode layer and further provided with at least one thin film to form a plurality of thin film device stacks; the thin film device stack comprising an electrically active region; the thin film device stack extending from the X - Y plane in a Z direction perpendicular to the X - Y plane to a distance T; the web substrate material having at least one protective structure which prevents contact of the electrically active region of the thin film device stack with the back side of the substrate material or with a machine roller during web transport, wherein the protective structure is applied to at least one of the front side and the back side of the substrate, the first electrode, the at least one thin film, and a plurality of discrete thin film device stacks which are continuous in-line stripes; neighbouring thin film device stacks having a zone of electrical interconnection between them, and wherein the at least one protective structure is located at least partially in a zone of electrical interconnection, wherein the protective structure is deposited as a continuous bead of material, in discrete units or as an intermittent bead of material; the at least one protective structure extending in the Z direction to a distance S from the X - Y plane, the distance S being greater than the distance T, characterized in that the ratio of the distance S to the distance T is at least 10: 1. the thin film device stack comprising an electrically active region; the thin film device stack extending from the X - Y plane in a Z direction perpendicular to the X - Y plane to a distance T; the web substrate material having at least one protective structure which prevents contact of the electrically active region of the thin film device stack with the back side of the substrate material or with a machine roller during web transport, wherein the protective structure is applied to at least one of the front side and the back side of the substrate, the first electrode, the at least one thin film, and a plurality of discrete thin film device stacks which are continuous in-line stripes; neighbouring thin film device stacks having a zone of electrical interconnection between them, and wherein the at least one protective structure is located at least partially in a zone of electrical interconnection, wherein the protective structure is deposited as a continuous bead of material, in discrete units or as an intermittent bead of material; the at least one protective structure extending in the Z direction to a distance S from the X - Y plane, the distance S being greater than the distance T, characterized in that the ratio of the distance S to the distance T is at least 10: 1.
Test device capable of checking for the presence of non-condensable undesirable gases, and therefore the quality of the sterilizing steam in a pre-vacuum apparatus intended for sterilization with said steam, and including an envelope carrying elements of the device, including a receptacle forming an elongate chamber closed at its distal end (1 1) and open at its proximal end (1 2) and of which the surface of the wall is a surface of revolution, of which the generatrix arranged at the very bottom of the operating device forms an angle α between 0 and 90° with respect to and below the horizontal, from the closed end of the receptacle to the proximal open end (1 2), and in which said chamber contains: - a filling load occupying at least a portion of its volume, and such that it comprises at least, in the operating position of the chamber 5, one path enabling a flow by gravity of the water condensed in the chamber from the steam mainly forming the atmosphere of same, to the opening of the proximal end (1 2), and - at least one undesirable gas presence indicator arranged toward the distal closed end (1 1) of the chamber and which is an electronic temperature sensor, which is able to allow calculation of the proportion of said non-condensable undesirable gas in the atmosphere at the distal end (1 1) of the chamber, - the envelope having a high thermal inertia at least around the distal end (1 1) of the chamber, where the temperature sensor is located, the thickness at least of this envelope being such as its external diameter is between twice and four times the internal diameter of the receptacle, which it thus insulates from the outside. - a filling load occupying at least a portion of its volume, and such that it comprises at least, in the operating position of the chamber 5, one path enabling a flow by gravity of the water condensed in the chamber from the steam mainly forming the atmosphere of same, to the opening of the proximal end (1 2), and - at least one undesirable gas presence indicator arranged toward the distal closed end (1 1) of the chamber and which is an electronic temperature sensor, which is able to allow calculation of the proportion of said non-condensable undesirable gas in the atmosphere at the distal end (1 1) of the chamber, - the envelope having a high thermal inertia at least around the distal end (1 1) of the chamber, where the temperature sensor is located, the thickness at least of this envelope being such as its external diameter is between twice and four times the internal diameter of the receptacle, which it thus insulates from the outside.
An arrangement of at least one induction coil for inductively charging an energy storage mechanism on an underbody of a motor vehicle, wherein the induction coil towards the top in the vertical direction of the vehicle is covered at least partially by a covering element which has at least one shield region for shielding electromagnetic fields of the induction coil, wherein the induction coil towards the bottom in the vertical direction of the vehicle is covered at least partially by a further covering element, characterised in that the covering element is part of an underbody guard of the motor vehicle and has a depression in which the induction coil is received, and in that the further covering element has at least one field guidance region with respective field guidance elements for field strengthening and field orientation of the electromagnetic fields during inductive charging, the shield region being formed from aluminium.
A saddle-ridden vehicle comprising a side cowl that covers a vehicle side portion of the vehicle, wherein the side cowl includes: a convex portion (52, 74), elongating in an upper-lower direction, protruding outward in a vehicle width direction with respect to a cowl outer surface, and formed on the cowl outer surface at a downstream side of a traveling wind that flows on the cowl outer surface; and, a concave portion recessed inward in the vehicle width direction and formed at a boundary between the cowl outer surface and the convex portion (52, 74), and wherein a cross section of the convex portion (52, 74) is formed in a V shape by a front side portion facing a front side of the vehicle and a rear side portion facing a rear side of the vehicle, and characterized in that, when viewed in a vehicle side view, the convex portion (52, 74) is curved so as to draw an arc in front of the vehicle, and an intermediate portion of the convex portion (52, 74) in a longitudinal direction protrudes toward the front side of the vehicle, wherein an upper half portion of the convex portion (52, 74) is inclined at an upward gradient toward the rear side of the vehicle, and a lower half portion of the convex portion (52, 74) is inclined at a downward gradient towards the rear side of the vehicle. portion of the vehicle, wherein the side cowl includes: a convex portion (52, 74), elongating in an upper-lower direction, protruding outward in a vehicle width direction with respect to a cowl outer surface, and formed on the cowl outer surface at a downstream side of a traveling wind that flows on the cowl outer surface; and, a concave portion recessed inward in the vehicle width direction and formed at a boundary between the cowl outer surface and the convex portion (52, 74), and wherein a cross section of the convex portion (52, 74) is formed in a V shape by a front side portion facing a front side of the vehicle and a rear side portion facing a rear side of the vehicle, and a convex portion (52, 74), elongating in an upper-lower direction, protruding outward in a vehicle width direction with respect to a cowl outer surface, and formed on the cowl outer surface at a downstream side of a traveling wind that flows on the cowl outer surface; and, a concave portion recessed inward in the vehicle width direction and formed at a boundary between the cowl outer surface and the convex portion (52, 74), and wherein a cross section of the convex portion (52, 74) is formed in a V shape by a front side portion facing a front side of the vehicle and a rear side portion facing a rear side of the vehicle, and characterized in that, when viewed in a vehicle side view, the convex portion (52, 74) is curved so as to draw an arc in front of the vehicle, and an intermediate portion of the convex portion (52, 74) in a longitudinal direction protrudes toward the front side of the vehicle, wherein an upper half portion of the convex portion (52, 74) is inclined at an upward gradient toward the rear side of the vehicle, and a lower half portion of the convex portion (52, 74) is inclined at a downward gradient towards the rear side of the vehicle.
A process for treating a heavy hydrocarbon-based residue, in particular a bituminous residue with a high asphaltene content, comprising the following steps: - bringing the heavy residue to be treated to a temperature within the range of 325-500°C; - subjecting the heavy residue to be treated to a substantially adiabatic expansion in an environment having a pressure equal to or lower than 0.1 bara and at a temperature equal to or lower than 450°C; so as to separate from the heavy residue to be treated: - a first less volatile fraction having a boiling point at atmospheric pressure equal to or higher than 540°C and whose solid and anhydrous residue mainly contains asphaltenes insoluble in pentane and other residues insoluble in tetrahydrofuran; - and a second more volatile fraction prevalently containing maltenes and other hydrocarbons having a boiling point equal to or lower than 540°C at atmospheric pressure; - cooling the second more volatile fraction, - introducing the cooled second more volatile fraction into a second separator to separate the cooled second more volatile fraction into - a first stream of heavy hydrocarbon-based residue with a boiling point equal to or higher than 540°C, - a second gaseous stream of lighter hydrocarbon-based residue with a boiling point lower than 540°C; and - a third stream comprising of a condensation water. - bringing the heavy residue to be treated to a temperature within the range of 325-500°C; - subjecting the heavy residue to be treated to a substantially adiabatic expansion in an environment having a pressure equal to or lower than 0.1 bara and at a temperature equal to or lower than 450°C; - a first less volatile fraction having a boiling point at atmospheric pressure equal to or higher than 540°C and whose solid and anhydrous residue mainly contains asphaltenes insoluble in pentane and other residues insoluble in tetrahydrofuran; - and a second more volatile fraction prevalently containing maltenes and other hydrocarbons having a boiling point equal to or lower than 540°C at atmospheric pressure; - cooling the second more volatile fraction, - introducing the cooled second more volatile fraction into a second separator to separate the cooled second more volatile fraction into - a first stream of heavy hydrocarbon-based residue with a boiling point equal to or higher than 540°C, - a second gaseous stream of lighter hydrocarbon-based residue with a boiling point lower than 540°C; and - a first stream of heavy hydrocarbon-based residue with a boiling point equal to or higher than 540°C, - a second gaseous stream of lighter hydrocarbon-based residue with a boiling point lower than 540°C; and - a third stream comprising of a condensation water.
A compressible resilient industrial fabric comprising one or more layers (16, 112, 118, 122) of a nonwoven extruded film or sheet, wherein the nonwoven extruded film or sheet (16, 112, 118, 122) is elastic, resilient, and compressible in a thickness direction, and extensible, bendable and resilient in its length and transverse directions; two or more layers (12, 20) of a plurality of substantially parallel machine direction yarns (14, 22), the fabric characterized in that it comprises a first layer (12, 110) of the parallel yarns running in machine direction, a second layer (16, 112) of the elastic nonwoven extruded film or sheet on one side of the first layer (12, 110), a third layer (20, 114) of the parallel yarns on the opposite of the second layer (16, 112) as the first layer (12, 110) and running in the same direction as those of the first layer (12, 110), and wherein the parallel yarns of the third layer (20, 114) are aligned such that they nest between the spaces created between the parallel yarns of the first layer (12,110).