mhurhangee/ep-ind-claims huggingface dataset:
Rack vehicle for storing and retrieving articles in and from a shelf, comprising a chassis (69, 70) and a handling module (63, 84), wherein the rack vehicle (12, 15, 61, 62) can be moved by means of the chassis along a first axis, and wherein, with the handling module, objects can, along a loading and unloading direction of the handling module, be stored in the shelf (2, 3) and retrieved from the shelf and be received for transporting, wherein the handling module (63, 84) is at least partially pivotably received in the chassis (69, 70) and is pivotable about a second axis, which is transverse to the first axis and transverse to a third axis along which the handling module loads and unloads the objects, such that the handling module (63, 84) with its loading and unloading position is pivotable between a position in which it is aligned along the first axis and at least a second position in which it is aligned along the third axis, wherein the chassis (69, 70) has a chassis width transverse to the first axis and transverse to the second axis and the handling module has a width transverse to the loading and unloading direction and a length along the loading and unloading direction, characterised in that the handling module (63, 84) is designed such that either the length of the handling module during aligning of the length along the third axis protrudes beyond the chassis width in all operating modes whereas, in the at least second possible position or alignment, at most only the chassis width is taken up, or that the handling module (63, 84) in one position or alignment corresponds to the chassis width and that the width or length of the handling module (63, 84) in the at least one second position or alignment has smaller dimensions in the direction of the chassis width than the chassis width.
First method for tinting or decoloring a lens, the method comprising - inserting a lens in a reception unit of a lens holder, - providing an immersion bath comprising a fluid, - immersing the lens holder into the fluid, and - rotating the lens holder around a rotation axis to a predetermined maximum rotation angle, characterized in that the rotation axis is located outside the lens and generally perpendicular to the plane of the lens. - inserting a lens in a reception unit of a lens holder, - providing an immersion bath comprising a fluid, - immersing the lens holder into the fluid, and - rotating the lens holder around a rotation axis to a predetermined maximum rotation angle,
A lighting device for a motor vehicle capable of performing at least a photometric function of lighting or signaling or lighting effect, including at least one light source capable of generating photons and a mask capable of passing these generated photons in pre-defined places, the mask consisting of a front face, outward-facing, and equipped with three-dimensional elements each having an opaque main face and at least one inclined lateral face with respect to the said main face, ensuring a junction between the latter and one main face of at least one other adjacent three-dimensional element, and transparent to form one of the predefined places through which the generated photons pass, characterized that each main face presents a General diamond shape, each main face comprising at least two facets (FCj) in general triangle shape and having different orientations, each of the said facets (FCj) having one side extended by a lateral face ensuring its junction to one side of a facet (FCj') of another neighboring three-dimensional element, each side face having a general three-dimensional shape angular.
A nickel composite hydroxide, comprising: a composition represented by Ni 1-x-y-z Co x Mn y M z 2+A where 0 ≤ x ≤ 0.35, 0 ≤ y ≤ 0.35, 0 ≤ z ≤ 0.1, 0 < x + y, 0 < x + y + z ≤ 0.7, 0 ≤ A ≤ 0.5, with M being at least one kind of additive element selected from the group consisting of V, Mg, Al, Ti, Mo, Nb, Zr and W, wherein the nickel composite hydroxide is composed of secondary particles formed by spherical or lump-shaped nickel composite hydroxide particles coupled with one after another in two dimensional directions, wherein the spherical or lump-shaped nickel composite hydroxide particles are formed by a plurality of primary particles aggregated with one after another, and wherein the secondary particles have a volume average particle size (Mv) of 4 to 20μm measured by a laser diffraction/scattering method and a ratio (Mv/L) of the volume average particle size relative to the width of the secondary particles in a direction perpendicular to the coupling direction of the nickel composite hydroxide particles in a range from 3 to 20. a composition represented by Ni 1-x-y-z Co x Mn y M z 2+A where 0 ≤ x ≤ 0.35, 0 ≤ y ≤ 0.35, 0 ≤ z ≤ 0.1, 0 < x + y, 0 < x + y + z ≤ 0.7, 0 ≤ A ≤ 0.5, with M being at least one kind of additive element selected from the group consisting of V, Mg, Al, Ti, Mo, Nb, Zr and W, wherein the nickel composite hydroxide is composed of secondary particles formed by spherical or lump-shaped nickel composite hydroxide particles coupled with one after another in two dimensional directions, wherein the spherical or lump-shaped nickel composite hydroxide particles are formed by a plurality of primary particles aggregated with one after another, and wherein the secondary particles have a volume average particle size (Mv) of 4 to 20μm measured by a laser diffraction/scattering method and a ratio (Mv/L) of the volume average particle size relative to the width of the secondary particles in a direction perpendicular to the coupling direction of the nickel composite hydroxide particles in a range from 3 to 20.
A content processing method for use in a server, the method comprising: creating a Multimedia Presentation Description "MPD" including a list of combined segments including segments listed in the previous MPD, if the sum of timeshiftBufferDepth of the previous MPD and segment duration of the previous MPD is greater than the value obtained by the availabilityStarttime of the current MPD from the NOW, wherein the timeshiftBufferDepth denotes a time duration for which a previous part of a live content is buffered in a content storage of a server, availabilityStarttime denotes a time at which the MPD becomes available, and NOW denotes a current time point; sending the MPD to a client. creating a Multimedia Presentation Description "MPD" including a list of combined segments including segments listed in the previous MPD, if the sum of timeshiftBufferDepth of the previous MPD and segment duration of the previous MPD is greater than the value obtained by the availabilityStarttime of the current MPD from the NOW, wherein the timeshiftBufferDepth denotes a time duration for which a previous part of a live content is buffered in a content storage of a server, availabilityStarttime denotes a time at which the MPD becomes available, and NOW denotes a current time point; sending the MPD to a client.
Method of preparing a tissue adhesive for sealing or joining cell tissues, comprising the steps of Preparation of an isocyanate-functional prepolymer as component A), by a) Reaction of an H-functional initiator compound having at least one Zerewitinoff-active hydrogen atom with an alkylene oxide compound and a co-monomer to form a precursor carrying hydroxyl groups, wherein the co-monomer is selected from the group consisting of lactides, glycolides, cyclic dicarboxylic anhydrides as well as combinations thereof, and wherein the co-monomer is incorporated into the polymer chain(s) of the precursor carrying hydroxyl groups by statistical copolymerization, and b) Reaction of the precursor carrying hydroxyl groups from step a) with a polyfunctional isocyanate to form the isocyanate-functional prepolymer A), Provision of a component B) in the form of an amino-functional aspartic acid ester of the general formula wherein X is an n-valent organic residue, R 1, R 2 are identical or different organic residues that do not contain Zerewitinoff-active H atoms, n is a whole number ≥ 2, wherein the amino-functional aspartic acid ester is selected from structures of the general formula (VIII) wherein R 1, R 2, R 3 are identical or different organic residues that do not contain Zerewitinoff-active H atoms, and/or of a component C) in the form of a reaction product of the isocyanate-functional prepolymer A) with amino-functional aspartic acid esters B). a) Reaction of an H-functional initiator compound having at least one Zerewitinoff-active hydrogen atom with an alkylene oxide compound and a co-monomer to form a precursor carrying hydroxyl groups, wherein the co-monomer is selected from the group consisting of lactides, glycolides, cyclic dicarboxylic anhydrides as well as combinations thereof, and wherein the co-monomer is incorporated into the polymer chain(s) of the precursor carrying hydroxyl groups by statistical copolymerization, and b) Reaction of the precursor carrying hydroxyl groups from step a) with a polyfunctional isocyanate to form the isocyanate-functional prepolymer A), X is an n-valent organic residue, R 1, R 2 are identical or different organic residues that do not contain Zerewitinoff-active H atoms, n is a whole number ≥ 2, wherein R 1, R 2, R 3 are identical or different organic residues that do not contain Zerewitinoff-active H atoms, and/or of a component C) in the form of a reaction product of the isocyanate-functional prepolymer A) with amino-functional aspartic acid esters B).
A method for collecting cells that have been cultured by using a cell culture kit as a closed system in which, at least, a culture container for cultivating cells, a cell collection container for collecting cells after cultivation and a waste liquid container for collecting a culture medium after cultivation are linked to one another through a conduit, that comprises: a supernatant discharge step for transferring a culture supernatant that has been cultured from the culture container to the waste liquid container; a cell collection step for transferring a concentrated suspension of cells from the culture container to the cell collection container; a supernatant returning step for returning part of the culture supernatant discharged in the waste liquid container to the culture container and allowing cells remaining in the culture container to be suspended in a suspension of cells; and a re-collection step for transferring again a suspension of cells in which remaining cells are suspended from the culture container to the cell collection container. a supernatant discharge step for transferring a culture supernatant that has been cultured from the culture container to the waste liquid container; a cell collection step for transferring a concentrated suspension of cells from the culture container to the cell collection container; a supernatant returning step for returning part of the culture supernatant discharged in the waste liquid container to the culture container and allowing cells remaining in the culture container to be suspended in a suspension of cells; and a re-collection step for transferring again a suspension of cells in which remaining cells are suspended from the culture container to the cell collection container.
A chromatography column packed with media for removing anti-A antibodies from a sample, the media comprising a solid support with a blood group A antigen ligand attached thereto, wherein: (a) the ligand is attached to the solid support at a ligand loading of at least 0.8 mg/ml of solid support; and (b) the media is stable under acid and/or alkaline conditions; and (c) the blood group A antigen ligands are attached via reductive amination chemistry or pAA tentacle chemistry to a solid support. (a) the ligand is attached to the solid support at a ligand loading of at least 0.8 mg/ml of solid support; and (b) the media is stable under acid and/or alkaline conditions; and (c) the blood group A antigen ligands are attached via reductive amination chemistry or pAA tentacle chemistry to a solid support.
Gearbox device for agricultural machine comprising a primary shaft, a secondary shaft, at least one intermediate shaft, and a motion transmission element moveable between at least two operating positions in which it sets up intermeshing drive lines between the primary shaft and the secondary shaft with different gear ratios, at least one of the drive lines incorporating the intermediate shaft, the motion transmission element passing through at least one neutral position during its movement between the at least two aforementioned operating positions; gearbox device characterized in that it comprises a pivoting means that makes it possible, by manual operation, to make at least one of the primary, secondary, and intermediate shafts pivot around its respective rotation axis when the motion transmission element is in the neutral position.
Compositions comprising at least one compound chosen from the group constituted by hydrofluorocarbons, (hydro)fluoroolefins, (hydro)fluoroiodocarbons and hydrocarbons, at least one compound chosen from the group constituted by rare gases, nitrogen, nitrogen dioxide, hydrogen sulfide and carbon dioxide, and at least one functionalized organic compound with a boiling point at atmospheric pressure of greater than 60°C, a melting point at atmospheric pressure < -20°C and/or a flash point > 50°C and preferably > 70°C; characterized in that they comprise from 5% to 90% by weight of compound (s), from 5% to 40% by weight of compound(s) and from 5% to 55% by weight of compound(s).
A device for filling air conditioning systems with a refrigerant during final vehicle assembly, wherein the air conditioning systems to be filled comprise one connection valve each on their high pressure and on their low-pressure sides, which connection valves differ in their geometrical contour to prevent mix-ups between the high-pressure side and the low-pressure side and at the same time to ensure that only the respective approved refrigerant is filled into the air conditioning system, and wherein the device can be brought into an operative connection with connection valves on the low-pressure side and on the high-pressure side using low pressure and high pressure adapters. characterized in that just one high pressure adapter and one low pressure adapter is provided for two different refrigerants R134 and R1234yf, wherein the connection valves of the air conditioning systems to be filled have different geometries for the two different refrigerants R134 and R1234yf, wherein the high-pressure adapter via which the air conditioning system is filled includes mechanical components which interact to prevent a connection valve that does not match the preselected refrigerant from being opened for filling, in that, by preselecting the type of one of the two different refrigerants R134 and R1234yf, a stop piston in the adapter can be positioned so that the high-pressure adapter can detect a correct and/or incorrect vehicle port using an associated path measuring system, wherein the device comprises clamping system that includes a slider with a magnet, a stop piston with an integrated plunger, a path measuring system and clamping balls, wherein the slider takes different positions based on the respective geometrical design of the connection valves, which are detected by the magnet via the path measuring system, wherein the slider is designed so that, in its normal position, it closes the adapter with a gasket designed as an O-ring, wherein the stop piston, in accordance with a preselected type on the filling system, can be placed in positions for the one refrigerant R134a (lower position) and/or the other refrigerant R1234yf (upper position), wherein these two positions allow movement of the slider in these predetermined end positions only, wherein the plunger integrated in the stop piston can perform a limited stroke to open the connection valves of the vehicle port, wherein the respective stroke movement is performed depending on the respective position of the stop piston, starting from the preset position for the one refrigerant, R134a, or the other refrigerant, R1234yf, and wherein the clamping balls are held by a pin due to the required unobstructed clamping path.
A method for managing distributing computing suitable for use in an automation system, said method comprising: - partitioning a set of program instructions into a plurality of unit blocks, wherein each unit block comprises at least one program instruction, and - executing said plurality of unit blocks on a set of multiple processors within said automation system, wherein at least one complementary block is executed in parallel with corresponding unit block, characterized in, that said method further comprises: - identifying one or more complementary blocks corresponding to at least one unit block remaining from said plurality of unit blocks, wherein said one or more complementary blocks are identified based on a comparison between read-write access of global variables in said at least one unit block and said corresponding one or more complementary blocks, wherein each of said one or more complementary blocks corresponding to said at least one unit block is such that none of said global variable, read-accessed in said at least one unit block, is write-accessed in each of said one or more complementary blocks. - partitioning a set of program instructions into a plurality of unit blocks, wherein each unit block comprises at least one program instruction, and - executing said plurality of unit blocks on a set of multiple processors within said automation system, wherein at least one complementary block is executed in parallel with corresponding unit block, characterized in, that said method further comprises: - identifying one or more complementary blocks corresponding to at least one unit block remaining from said plurality of unit blocks, wherein said one or more complementary blocks are identified based on a comparison between read-write access of global variables in said at least one unit block and said corresponding one or more complementary blocks, wherein each of said one or more complementary blocks corresponding to said at least one unit block is such that none of said global variable, read-accessed in said at least one unit block, is write-accessed in each of said one or more complementary blocks. - identifying one or more complementary blocks corresponding to at least one unit block remaining from said plurality of unit blocks, wherein said one or more complementary blocks are identified based on a comparison between read-write access of global variables in said at least one unit block and said corresponding one or more complementary blocks, wherein each of said one or more complementary blocks corresponding to said at least one unit block is such that none of said global variable, read-accessed in said at least one unit block, is write-accessed in each of said one or more complementary blocks.
A light emitting device comprising: an excitation light source operable to radiate excitation light, a light guide operable to transfer excitation light radiated from the excitation light source, and to flexibly extend in the longitudinal direction, a light guide end member, and a wavelength converting member operable to absorb and convert the wavelength of the excitation light radiated from the excitation light source through the light guide, and to release light with a predetermined wavelength band, wherein: the light guide has a light radiating surface with a larger surface area than the lateral cross-sectional area orthogonal to the longitudinal direction on the excitation light radiating side, and is supported by a light guide end member; and at least a part of the light guide and light guide end member are covered by the wavelength converting member. an excitation light source operable to radiate excitation light, a light guide operable to transfer excitation light radiated from the excitation light source, and to flexibly extend in the longitudinal direction, a light guide end member, and a wavelength converting member operable to absorb and convert the wavelength of the excitation light radiated from the excitation light source through the light guide, and to release light with a predetermined wavelength band, wherein: the light guide has a light radiating surface with a larger surface area than the lateral cross-sectional area orthogonal to the longitudinal direction on the excitation light radiating side, and is supported by a light guide end member; and at least a part of the light guide and light guide end member are covered by the wavelength converting member. the light guide has a light radiating surface with a larger surface area than the lateral cross-sectional area orthogonal to the longitudinal direction on the excitation light radiating side, and is supported by a light guide end member; and at least a part of the light guide and light guide end member are covered by the wavelength converting member.
A method for encoding, comprising: - receiving a volumetric video; - identifying rigid elements of a three-dimensional volumetric video object from the volumetric video, said rigid elements being represented by separate bounding volumes; - arranging the separate bounding volumes in a tree structure of a bounding volume hierarchy; - projecting texture and geometry of each of the separate bounding volumes onto corresponding two-dimensional planes for encoding: - encoding each two-dimensional plane with two-dimensional video coding into a bitstream; - encoding three-dimensional motion being represented as rotation and translation of the rigid elements by encoding delta three-dimensional movement of the rigid elements with respect to a parent node in the bounding volume hierarchy; - if there is a residual between temporally adjacent texture or geometry planes, encoding the residual according to two-dimensional video coding into a bitstream; - encoding the bounding volume hierarchy; and - transmitting the encoded bitstreams and the encoded three-dimensional motion and bounding volume hierarchy for rendering - receiving a volumetric video; - identifying rigid elements of a three-dimensional volumetric video object from the volumetric video, said rigid elements being represented by separate bounding volumes; - arranging the separate bounding volumes in a tree structure of a bounding volume hierarchy; - projecting texture and geometry of each of the separate bounding volumes onto corresponding two-dimensional planes for encoding: - encoding each two-dimensional plane with two-dimensional video coding into a bitstream; - encoding three-dimensional motion being represented as rotation and translation of the rigid elements by encoding delta three-dimensional movement of the rigid elements with respect to a parent node in the bounding volume hierarchy; - if there is a residual between temporally adjacent texture or geometry planes, encoding the residual according to two-dimensional video coding into a bitstream; - encoding the bounding volume hierarchy; and - transmitting the encoded bitstreams and the encoded three-dimensional motion and bounding volume hierarchy for rendering - encoding each two-dimensional plane with two-dimensional video coding into a bitstream; - encoding three-dimensional motion being represented as rotation and translation of the rigid elements by encoding delta three-dimensional movement of the rigid elements with respect to a parent node in the bounding volume hierarchy; - if there is a residual between temporally adjacent texture or geometry planes, encoding the residual according to two-dimensional video coding into a bitstream; - encoding the bounding volume hierarchy; and - transmitting the encoded bitstreams and the encoded three-dimensional motion and bounding volume hierarchy for rendering