mhurhangee/ep-ind-claims huggingface dataset:
A soil processing roller comprising a support structure, wherein a plurality of first soil processing units extending substantially in the direction of the roller axis of rotation are provided at a radially outer portion of the support structure to form a roller body rotatable about a roller axis of rotation, wherein the support structure comprises a plurality of support disks (12, 14, 16, 18, 20) arranged successively in the direction of a roller axis of rotation, connected to each other to form a roller body, wherein said plurality of first soil processing units extending substantially in the direction of said roller axis of rotation are provided on an outer circumferential portion of at least a part of said support disks (12, 14, 16, 18, 20), characterized in - that the soil processing roller comprises a vibration generating mechanism arranged in a housing, and in that at least part of the support disks (12, 14, 16, 18, 20) are arranged surrounding a circumferential wall of the housing for the vibration generating mechanism, wherein the support disks (14, 16, 18) arranged surrounding the circumferential wall are fixedly connected to the circumferential wall, and - that at least one first soil processing unit comprises a soil processing bar fixedly connected to all the support disks (12, 14, 16, 18, 20) of the support structure or/and at least one first soil processing unit comprises a tool carrier fixedly connected to all the support disks (12, 14, 16, 18, 20) of the support structure, wherein a soil processing tool is detachably connected or connectable to at least one tool carrier. - that the soil processing roller comprises a vibration generating mechanism arranged in a housing, and in that at least part of the support disks (12, 14, 16, 18, 20) are arranged surrounding a circumferential wall of the housing for the vibration generating mechanism, wherein the support disks (14, 16, 18) arranged surrounding the circumferential wall are fixedly connected to the circumferential wall, and - that at least one first soil processing unit comprises a soil processing bar fixedly connected to all the support disks (12, 14, 16, 18, 20) of the support structure or/and at least one first soil processing unit comprises a tool carrier fixedly connected to all the support disks (12, 14, 16, 18, 20) of the support structure, wherein a soil processing tool is detachably connected or connectable to at least one tool carrier.
A portable feeding apparatus, comprising: a first collapsible bowl having a rim, wherein the rim has an indent portion; a second collapsible bowl having a rim, wherein the rim has an indent portion; a first leg hingedly attached to the apparatus for folding in and out of the indent portion in the rim of the first collapsible bowl; a second leg hingedly attached to the apparatus for folding in and out of the indent portion in the rim of the second collapsible bowl; a hinge for hingably connecting the first and second collapsible bowls together; a fastener for holding the first and second collapsible bowls to each other when the feeding apparatus is in a closed position; a handle (16 or 22) operationally connected to at least one bowl for carrying the apparatus; wherein the first and second collapsible bowls are adapted to be expanded to hold food or water and collapsed to conserve space; wherein the feeding apparatus is adapted to be opened for feeding use and closed when not in use; and wherein the first and second collapsible bowls have openings and wherein the openings of the first and second collapsible bowls are disposed next to each other when the feeding apparatus is in the closed position to form a seal to lock in contents of at least one of the bowls for storage when that bowl is in the expanded position. a first collapsible bowl having a rim, wherein the rim has an indent portion; a second collapsible bowl having a rim, wherein the rim has an indent portion; a first leg hingedly attached to the apparatus for folding in and out of the indent portion in the rim of the first collapsible bowl; a second leg hingedly attached to the apparatus for folding in and out of the indent portion in the rim of the second collapsible bowl; a hinge for hingably connecting the first and second collapsible bowls together; a fastener for holding the first and second collapsible bowls to each other when the feeding apparatus is in a closed position; a handle (16 or 22) operationally connected to at least one bowl for carrying the apparatus; wherein the first and second collapsible bowls are adapted to be expanded to hold food or water and collapsed to conserve space; wherein the feeding apparatus is adapted to be opened for feeding use and closed when not in use; and wherein the first and second collapsible bowls have openings and wherein the openings of the first and second collapsible bowls are disposed next to each other when the feeding apparatus is in the closed position to form a seal to lock in contents of at least one of the bowls for storage when that bowl is in the expanded position.
A method for preparing a modification initiator, the method comprising: reacting a first fluid including a modification functional group-containing compound and a conjugated diene-based monomer and a second fluid including a polymerization initiation functional group-containing compound; and obtaining a third fluid including a modification initiator prepared by the reaction of step S1, wherein: the modification functional group-containing compound is used in a ratio of greater than 1 mole based on 1 mole of the polymerization initiation functional group-containing compound; the conjugated diene-based monomer is used in a ratio of 1 mole to 4 moles based on 1 mole of the modification functional group-containing compound; and step S1 and step S2 are continuously performed. reacting a first fluid including a modification functional group-containing compound and a conjugated diene-based monomer and a second fluid including a polymerization initiation functional group-containing compound; and obtaining a third fluid including a modification initiator prepared by the reaction of step S1, wherein: the modification functional group-containing compound is used in a ratio of greater than 1 mole based on 1 mole of the polymerization initiation functional group-containing compound; the conjugated diene-based monomer is used in a ratio of 1 mole to 4 moles based on 1 mole of the modification functional group-containing compound; and step S1 and step S2 are continuously performed. the modification functional group-containing compound is used in a ratio of greater than 1 mole based on 1 mole of the polymerization initiation functional group-containing compound; the conjugated diene-based monomer is used in a ratio of 1 mole to 4 moles based on 1 mole of the modification functional group-containing compound; and step S1 and step S2 are continuously performed.
Automatic door seal comprising a first pair (1a, 2a) consisting of a first one-piece part and a second one-piece part, namely - having a support as a component of the first part, - having at least one first connecting element and - having a sealing bar (20, 21) comprising a retaining bar and a sealing element, - wherein the first connecting element and the retaining bar are components of the second part, characterised in that - the seal has a second connecting element and a force-transmitting element which is mounted in or on the support so as to be displaceable in a longitudinal direction of the support, - a first end of the first connecting element is connected to the displaceable force-transmitting element and a second end of the first connecting element is connected to the retaining bar, and - a first end of the second connecting element is fastened to the support and a second end of the second connecting element is fastened to the retaining bar, and - the second connecting element and the force-transmitting element are also components of the second part. - having a support as a component of the first part, - having at least one first connecting element and - having a sealing bar (20, 21) comprising a retaining bar and a sealing element, - wherein the first connecting element and the retaining bar are components of the second part, characterised in that - the seal has a second connecting element and a force-transmitting element which is mounted in or on the support so as to be displaceable in a longitudinal direction of the support, - a first end of the first connecting element is connected to the displaceable force-transmitting element and a second end of the first connecting element is connected to the retaining bar, and - a first end of the second connecting element is fastened to the support and a second end of the second connecting element is fastened to the retaining bar, and - the second connecting element and the force-transmitting element are also components of the second part.
Electric machine having bearing means for magnetically supporting at least one body rotatable about an axis of rotation relative to at least one non-rotatable body, comprising said at least one rotatable body and at least one non-rotatable body, wherein said rotatable body comprises at least one means for providing an excitation magnetic field of the electric machine (100, 101), wherein the non-rotatable body comprises at least one winding cooperating with the excitation magnetic field to generate a torque about the axis of rotation, and further comprises at least one compensation means having at least one electric conductor loop (3, 7) separated from the winding which, on the one hand, is free of interlinking with the excitation magnetic field in a reference position of the axis of rotation and, on the other hand, is interlinked with the excitation magnetic field in at least one actual position of the axis of rotation which is tilted differently with respect to the reference position, wherein the conductor loop (3, 7) of the compensation means is electrically short-circuited, wherein in the reference position the plane effectively spanned by the conductor loop (3, 7) of the compensation means with respect to the interlinking of the excitation magnetic field is orthogonal to the axis of rotation, and wherein the conductor loop (3, 7) is interlinked with the excitation magnetic field in the actual position of the axis of rotation which is tilted with respect to the reference position so as to counteract the tilting.
An implant (10, 110) comprising: a longitudinal axis and a first end section and an integral second end section (14, 114), the second end section having a cylindrical base having at least one anchoring means (24, 124) comprising a radially and longitudinally extending surface which increases in diameter in a direction toward the first end section and the implant has a central cannulation (30, 130) along the longitudinal axis, wherein the base of the second end section includes at least two radial expansion slots (34, 134) which are positioned radially symmetrically about the longitudinal axis of the second section whereby the at least one anchoring means thereby has fingers which can flex radially, wherein the cannulation in the second end section includes a restriction in the diameter of the cannulation whereby the anchoring means adapted to flex radially outward in response to a guide wire being driven through the restriction, characterized in that the first end section has an external thread and is adapted to be implanted into a first section of bone to be joined to a second object by the second end, wherein the second end is adapted to be secured into the second object. a longitudinal axis and a first end section and an integral second end section (14, 114), the second end section having a cylindrical base having at least one anchoring means (24, 124) comprising a radially and longitudinally extending surface which increases in diameter in a direction toward the first end section and the implant has a central cannulation (30, 130) along the longitudinal axis, wherein the base of the second end section includes at least two radial expansion slots (34, 134) which are positioned radially symmetrically about the longitudinal axis of the second section whereby the at least one anchoring means thereby has fingers which can flex radially, wherein the cannulation in the second end section includes a restriction in the diameter of the cannulation whereby the anchoring means adapted to flex radially outward in response to a guide wire being driven through the restriction, characterized in that the first end section has an external thread and is adapted to be implanted into a first section of bone to be joined to a second object by the second end, wherein the second end is adapted to be secured into the second object.
Radiation detector for detecting electromagnetic radiation in the visible or ultraviolet spectral range emitted in an incineration chamber of a waste incinerator, comprising a proximal end region, which can be directed against the interior of the incineration chamber in the assembled state, and a screen arranged in the proximal end region, which screen is provided to receive the radiation, and at least one optical sensor (16a, 16b, 16c, 16d) for determining the intensity of the received radiation, wherein the radiation detector has a pinhole aperture, through which the radiation is projected onto the screen, and the screen is arranged in such a way that it can lie in the interior of the incineration chamber in the assembled state of the radiation detector, characterized in that the screen is respectively subdivided into two or more segments (10a, 10b, 10c, 10d), wherein an optical sensor (16a, 16b, 16c or 16d) is assigned individually to each segment.
A mid-turbine frame ("MTF") for a jet engine comprising: an annular structure (306,308) formed from a plurality of adjacent segments (302,304) that include a plurality of radially outward segment portions and radially inward segment portions; a vane (310a, 310b) that extends between the radially outward segment portions and the radially inward segment portions; a perforated structure that is disposed radially outward of the radially outward segment portions, wherein each of a plurality of perforations in the perforated structure are configured to receive cooling air; and characterised by a seal clamping the annular structure (306,308) to the perforated structure, and the seal coupling adjacent ones of the plurality of radially outward segment portions. an annular structure (306,308) formed from a plurality of adjacent segments (302,304) that include a plurality of radially outward segment portions and radially inward segment portions; a vane (310a, 310b) that extends between the radially outward segment portions and the radially inward segment portions; a perforated structure that is disposed radially outward of the radially outward segment portions, wherein each of a plurality of perforations in the perforated structure are configured to receive cooling air; and characterised by a seal clamping the annular structure (306,308) to the perforated structure, and the seal coupling adjacent ones of the plurality of radially outward segment portions.
A crystalline form III of the compound of Formula I, characterized by the X-ray powder diffraction pattern having characteristic peaks at diffraction angles 2θ of 6.2°±0.2°, 17.8°±0.2°, 22.0°±0.2°, 26.2°±0.2° and 26.9°±0.2°.
A connector assembly connecting a hose to a liquid source via an at least partly subterranean liquid conduit, the connector assembly comprising: a first connector, the first connector comprising a nipple member, the first connector includes an upper part and a lower part when installed in the ground of an outdoor location, the upper part includes an opening and a cover which can be manually moved between an open position and an closed position that encloses the opening, thereby covering the nipple member, the lower part includes an inlet in fluid communication with a passage that terminates in an outlet in connection with the nipple member; characterized in that, the connector assembly further comprises a rigid pipe unit comprising a snap-in coupler, wherein the snap-in coupler is detachably coupled to the nipple member; a connecting device and/or a stop device is provided on the rigid pipe unit at the end opposite to the snap-in coupler; the snap-in coupler comprises at least one resilient locking element adapted to engage with the nipple member in order to couple the nipple member with the rigid pipe unit; and the snap-in coupler further comprises an actuating sleeve adapted to be movable in order to disengage the at least one resilient locking element from the nipple member. a first connector, the first connector comprising a nipple member, the first connector includes an upper part and a lower part when installed in the ground of an outdoor location, the upper part includes an opening and a cover which can be manually moved between an open position and an closed position that encloses the opening, thereby covering the nipple member, the lower part includes an inlet in fluid communication with a passage that terminates in an outlet in connection with the nipple member; the connector assembly further comprises a rigid pipe unit comprising a snap-in coupler, wherein the snap-in coupler is detachably coupled to the nipple member; a connecting device and/or a stop device is provided on the rigid pipe unit at the end opposite to the snap-in coupler; the snap-in coupler comprises at least one resilient locking element adapted to engage with the nipple member in order to couple the nipple member with the rigid pipe unit; and the snap-in coupler further comprises an actuating sleeve adapted to be movable in order to disengage the at least one resilient locking element from the nipple member.
A process of producing cresols from a phenols containing feed comprising: introducing the phenols containing feed stream into a first separation zone; separating the phenol containing feed stream in the first separation zone into at least a phenol stream comprising phenol, an alkylphenol stream comprising heavy methyl phenols and heavy alkylphenols, and a cresols stream comprising cresols; wherein the heavy alkylphenols comprise alkylphenols having alkyl groups containing 2 or more carbon atoms; dealkylating the heavy alkylphenols in the alkylphenols stream in a dealkylation reaction zone under dealkylation conditions to produce cresols, phenol, heavy methyl phenols, and olefins forming a dealkylation effluent stream comprising the phenol, the cresols, the heavy methyl phenols, and the olefins; separating the dealkylation effluent stream in a dealkylation separation zone into at least an olefin stream comprising the olefins, and a second stream comprising the phenol, the cresols, and the heavy methyl phenols; transalkylating the phenol and the heavy methyl phenols in the second stream in a transalkylation reaction zone under transalkylation conditions to produce additional cresols forming a transalkylation effluent stream comprising the additional cresols, unreacted phenol, unreacted heavy alkylphenols, and unreacted heavy methyl phenols; and recovering one or more of: at least a portion of the phenol stream, the olefin stream, or the cresols stream; further comprising: passing the phenol stream from the first separation zone to the transalkylation reaction zone. introducing the phenols containing feed stream into a first separation zone; separating the phenol containing feed stream in the first separation zone into at least a phenol stream comprising phenol, an alkylphenol stream comprising heavy methyl phenols and heavy alkylphenols, and a cresols stream comprising cresols; wherein the heavy alkylphenols comprise alkylphenols having alkyl groups containing 2 or more carbon atoms; dealkylating the heavy alkylphenols in the alkylphenols stream in a dealkylation reaction zone under dealkylation conditions to produce cresols, phenol, heavy methyl phenols, and olefins forming a dealkylation effluent stream comprising the phenol, the cresols, the heavy methyl phenols, and the olefins; separating the dealkylation effluent stream in a dealkylation separation zone into at least an olefin stream comprising the olefins, and a second stream comprising the phenol, the cresols, and the heavy methyl phenols; transalkylating the phenol and the heavy methyl phenols in the second stream in a transalkylation reaction zone under transalkylation conditions to produce additional cresols forming a transalkylation effluent stream comprising the additional cresols, unreacted phenol, unreacted heavy alkylphenols, and unreacted heavy methyl phenols; and recovering one or more of: at least a portion of the phenol stream, the olefin stream, or the cresols stream; further comprising: passing the phenol stream from the first separation zone to the transalkylation reaction zone.
A method for determining a focus target of a user's gaze in a three-dimensional ("3D") scene, wherein the method comprises: determining a first gaze direction of a user into a 3D scene, wherein the 3D scene includes a plurality of components, characterized by: executing a first plurality of line traces in the 3D scene, each of which line traces is an imaginary line projected into the 3D scene in order to determine what objects, or portions of objects, may be observed by the user, wherein the first plurality of line traces comprises at least two line traces, wherein each of the at least two line traces is at a different angular distance from the first gaze direction, wherein the angular distance of each of the at least two line traces is less than a predefined maximum angular distance; determining a confidence value for each component intersected by at least one of the first plurality of line traces, the confidence value being a function of: the number of line traces of the plurality of line traces which intersect with the component; and the total number of line traces in the plurality of line traces; and identifying as a focus target of the user the component having the highest confidence value of all components intersected by at least one of the first plurality of line traces. executing a first plurality of line traces in the 3D scene, each of which line traces is an imaginary line projected into the 3D scene in order to determine what objects, or portions of objects, may be observed by the user, wherein the first plurality of line traces comprises at least two line traces, wherein each of the at least two line traces is at a different angular distance from the first gaze direction, wherein the angular distance of each of the at least two line traces is less than a predefined maximum angular distance; determining a confidence value for each component intersected by at least one of the first plurality of line traces, the confidence value being a function of: the number of line traces of the plurality of line traces which intersect with the component; and the total number of line traces in the plurality of line traces; and identifying as a focus target of the user the component having the highest confidence value of all components intersected by at least one of the first plurality of line traces. the number of line traces of the plurality of line traces which intersect with the component; and the total number of line traces in the plurality of line traces; and identifying as a focus target of the user the component having the highest confidence value of all components intersected by at least one of the first plurality of line traces.