mhurhangee/ep-ind-claims huggingface dataset:
Process to manufacture an interconnected stack of thermoplastic frames having two sides by stacking the thermoplastic frames (1,1a) to obtain a stack of frames such that the facing sides of two neighbouring frames (1,1a) are in contact with each other at a contact area, wherein as a result of stacking the frames (1,1a) and as a result of at least one opening (5,6,7,8) present in the frame (1,1a) at least one longitudinal conduit is formed which runs along the length of the stack, wherein as a result of stacking the frames (1,1a) and as a result of an elongated gutter as present on or in at least one side of the frame at the contact area a branched conduit is formed at the contact area, which branched conduit is fluidly connected to the longitudinal conduit, and wherein a pressurised melt of a plastic material is supplied to the elongated conduit and branched conduits while the stack is held together by external means to obtain the interconnected stack of thermoplastic frames. stacking the thermoplastic frames (1,1a) to obtain a stack of frames such that the facing sides of two neighbouring frames (1,1a) are in contact with each other at a contact area, wherein as a result of stacking the frames (1,1a) and as a result of at least one opening (5,6,7,8) present in the frame (1,1a) at least one longitudinal conduit is formed which runs along the length of the stack, wherein as a result of stacking the frames (1,1a) and as a result of an elongated gutter as present on or in at least one side of the frame at the contact area a branched conduit is formed at the contact area, which branched conduit is fluidly connected to the longitudinal conduit, and wherein a pressurised melt of a plastic material is supplied to the elongated conduit and branched conduits while the stack is held together by external means to obtain the interconnected stack of thermoplastic frames.
A rotor configured to convey crop material from a pickup assembly to an inlet of an agricultural machine, the rotor comprising: a rotor shaft; a plurality of rotatable rotor fingers, each rotor finger secured to the rotor shaft for rotation with the rotor shaft, the plurality of rotatable rotor fingers spaced apart along a length of the rotor shaft; and a plurality of rotor strippers, each rotor stripper sized and shaped to securely fit between adjacent rotor fingers and to securely engage the rotary shaft, each rotor stripper comprising a segment comprised of two opposing side walls with an interior section extending between the two opposing side walls, each segment comprising a first end portion comprising a curved hook section shaped to securely fit around the rotary shaft for secure engagement therewith; a second end portion configured to be secured to a backbone portion of the rotor allowing the segment to remain fixed with respect to rotation of the rotary shaft; and a middle portion extending between the first and second end portions in a curved manner to strip the crop material and facilitate flow of the crop material supplied to the rotor rearward from near the first end portion to beyond the second end portion characterized in that each rotor stripper extend forwardly from the backbone portion above and then forward of the rotor shaft and ends at a tip of the curved hook section rearward of the rotor shaft creating an opening between the tip and the second end portion allowing the curved hook section to securely fit around a majority portion of a circumference of the rotary shaft for secure engagement therewith. a rotor shaft; a plurality of rotatable rotor fingers, each rotor finger secured to the rotor shaft for rotation with the rotor shaft, the plurality of rotatable rotor fingers spaced apart along a length of the rotor shaft; and a plurality of rotor strippers, each rotor stripper sized and shaped to securely fit between adjacent rotor fingers and to securely engage the rotary shaft, each rotor stripper comprising a segment comprised of two opposing side walls with an interior section extending between the two opposing side walls, each segment comprising a first end portion comprising a curved hook section shaped to securely fit around the rotary shaft for secure engagement therewith; a second end portion configured to be secured to a backbone portion of the rotor allowing the segment to remain fixed with respect to rotation of the rotary shaft; and a middle portion extending between the first and second end portions in a curved manner to strip the crop material and facilitate flow of the crop material supplied to the rotor rearward from near the first end portion to beyond the second end portion characterized in that each rotor stripper extend forwardly from the backbone portion above and then forward of the rotor shaft and ends at a tip of the curved hook section rearward of the rotor shaft creating an opening between the tip and the second end portion allowing the curved hook section to securely fit around a majority portion of a circumference of the rotary shaft for secure engagement therewith.
Saw device comprising: - a machine base frame, - a machine support fixedly disposed on the machine base frame for positioning a workpiece and - a first workpiece support having a support surface for a workpiece, - a saw unit comprising a saw blade holder which is mounted so as to be rotatable about an axis of rotation disposed underneath the machine support and displaceable along a feed axis, - a saw unit actuator, which is coupled with the saw unit to enable a movement of the saw unit relative to the machine base frame along the feed axis, - the first workpiece support being provided in the form of a cross slider and having a coupling device by means of which it can be connected to a holder device disposed on the machine base frame, characterised in that - the machine base frame has at least one holder device (53 a, b) respectively on either side of the feed axis oriented parallel with the feed axis, and - the at least one cross slider and/or at least one support table has a coupling device which is designed to be coupled with any one of the two holder devices (53 a, b) on the machine base frame. - a machine base frame, - a machine support fixedly disposed on the machine base frame for positioning a workpiece and - a first workpiece support having a support surface for a workpiece, - a saw unit comprising a saw blade holder which is mounted so as to be rotatable about an axis of rotation disposed underneath the machine support and displaceable along a feed axis, - a saw unit actuator, which is coupled with the saw unit to enable a movement of the saw unit relative to the machine base frame along the feed axis, - the first workpiece support being provided in the form of a cross slider and having a coupling device by means of which it can be connected to a holder device disposed on the machine base frame, characterised in that - the machine base frame has at least one holder device (53 a, b) respectively on either side of the feed axis oriented parallel with the feed axis, and - the at least one cross slider and/or at least one support table has a coupling device which is designed to be coupled with any one of the two holder devices (53 a, b) on the machine base frame.
An intraocular lens injector for injecting an intraocular lens into an eye, comprising: a hollow body (5, 7); a lens setting portion provided inside the hollow body (5, 7); a slider for advancing an intraocular lens that has been set on the lens setting portion; and a rod for further advancing the intraocular lens that has been advanced using the slider, wherein, when a side in the optical axis direction (Z-direction) of the intraocular lens that comes into contact with the lens setting portion when the intraocular lens is set on the lens setting portion is defined as a bottom side (direction Z2), a side opposite to the bottom side is defined as a top side (direction Z1), a side toward which the intraocular lens is advanced is defined as a front side (direction X1), a side opposite to the front side is defined as a rear side (direction X2), and a direction orthogonal to the Z-direction and X-direction is defined as a width direction (Y-direction), and wherein the hollow body (5, 7) defines an inner-circumference lower portion (54, 74) and an inner-circumference upper portion, characterized by a space that extends downwardly from the inner-circumference lower portion (54, 74) and into which a part of a rear side of the intraocular lens is capable of moving downward is provided at a position α on the inner-circumference lower portion (54, 74) of the hollow body (5, 7), and a front limit of a range of motion of a portion of the slider that abuts against an outer circumference of an optical portion of the intraocular lens is located above the position α. a hollow body (5, 7); a lens setting portion provided inside the hollow body (5, 7); a slider for advancing an intraocular lens that has been set on the lens setting portion; and a rod for further advancing the intraocular lens that has been advanced using the slider, wherein, when a side in the optical axis direction (Z-direction) of the intraocular lens that comes into contact with the lens setting portion when the intraocular lens is set on the lens setting portion is defined as a bottom side (direction Z2), a side opposite to the bottom side is defined as a top side (direction Z1), a side toward which the intraocular lens is advanced is defined as a front side (direction X1), a side opposite to the front side is defined as a rear side (direction X2), and a direction orthogonal to the Z-direction and X-direction is defined as a width direction (Y-direction), and wherein the hollow body (5, 7) defines an inner-circumference lower portion (54, 74) and an inner-circumference upper portion, characterized by a space that extends downwardly from the inner-circumference lower portion (54, 74) and into which a part of a rear side of the intraocular lens is capable of moving downward is provided at a position α on the inner-circumference lower portion (54, 74) of the hollow body (5, 7), and a front limit of a range of motion of a portion of the slider that abuts against an outer circumference of an optical portion of the intraocular lens is located above the position α.
A fastener stringer comprising: a knitted fastener tape; and a fastener element attached to the fastener tape, wherein the fastener tape includes a first side-edge portion where the fastener element is provided, a second side-edge portion provided at an opposite side of the first side-edge portion, and a tape main portion provided between the first and second side-edge portions (51, 52), the first side-edge portion including one or more chain-stitch yarns formed in one or more wales, characterized in that: the second side-edge portion does not include a chain-stitch yarn and the tape main portion includes M or more chain-stitch yarns formed in M or more wales so that difference in yarn density perceivable by human eyes is caused between the tape main portion and the second side-edge portion in which the yarn-density of the tape main portion is higher than the yarn-density of the second side-edge portion, M indicating a natural number equal to or greater than one third of the total number of wales included in the fastener tape. a knitted fastener tape; and a fastener element attached to the fastener tape, wherein the fastener tape includes a first side-edge portion where the fastener element is provided, a second side-edge portion provided at an opposite side of the first side-edge portion, and a tape main portion provided between the first and second side-edge portions (51, 52), the first side-edge portion including one or more chain-stitch yarns formed in one or more wales, characterized in that: the second side-edge portion does not include a chain-stitch yarn and the tape main portion includes M or more chain-stitch yarns formed in M or more wales so that difference in yarn density perceivable by human eyes is caused between the tape main portion and the second side-edge portion in which the yarn-density of the tape main portion is higher than the yarn-density of the second side-edge portion, M indicating a natural number equal to or greater than one third of the total number of wales included in the fastener tape.
Tool element for a tool for the injection molding of plastic parts, wherein the tool element is composed at least of a first assembly (61, 61, 61") and of a second assembly (62, 62', 62"), wherein at least one mold insert (1, 2 and/or 214) associated with the first assembly (61, 61', 61") is fastened to the second assembly in order to form the mold cavity, and wherein an ejecting device (82, 83, 232) for ejecting finished injection-molded parts is combined in the tool element with the mold insert (1, 2 and/or 214), and wherein at least the one mold insert (1, 2 and/or 214) and the ejecting device (82, 83, 232) form the first assembly (61, 61', 61") and wherein the first assembly (61, 61', 61") is detachably arranged on the second assembly (62, 62', 62") of the associated tool element in such a way that the first assembly (61, 61', 61") can be inserted into and/or placed onto the second assembly (62, 62', 62") at least in some regions in a predetermined stacking direction and is mounted in the stacking direction, wherein the first assembly (61, 61', 61") is inserted into and/or placed onto and mounted on the second assembly (62, 62', 62") in such a way that the first assembly (61, 61', 61") has a limited mobility in the operating state of the tool relative to the second assembly (62, 62', 62") in a direction of movement obliquely, in particular perpendicularly or substantially perpendicularly, to the stacking direction, characterized in that a plurality of first assemblies (61, 61', 61") are releasably arranged via a single locking mechanism, and in that the ejecting device (82, 83, 232), when arranged in a recess (650, 650', 650") of a first retaining plate (3, 3') of the tool element for accommodating the ejecting device (82, 83), is supported on said first retaining plate (3, 3') of the tool element.
A non-medical use of at least one of assamicains represented by the formula: wherein G represents a galloyl group; theasinensins represented by the formula: wherein R 1 represents G or H, and R 2 represents G; wherein G represents a galloyl group; or theaflavins represented by the formula: wherein R 1 and R 2 independently represent G or H; wherein G represents a galloyl group; for inhibiting the absorption of dietary fats by inhibiting pancreatic lipase activity. wherein R 1 and R 2 independently represent G or H; wherein G represents a galloyl group; for inhibiting the absorption of dietary fats by inhibiting pancreatic lipase activity.
A method performed by a service communication proxy, SCP, entity in a wireless communication system, the method comprising: transmitting, to a network repository function, NRF, entity, a network function, NF, register request message including an SCP profile of the SCP entity; and receiving, from the NRF entity, an NF register response message including a result of a registration for the SCP entity, wherein the SCP profile is maintained at the NRF entity, characterized in that the SCP profile includes connection information associated with at least one other SCP entity connected with the SCP entity. transmitting, to a network repository function, NRF, entity, a network function, NF, register request message including an SCP profile of the SCP entity; and receiving, from the NRF entity, an NF register response message including a result of a registration for the SCP entity, wherein the SCP profile is maintained at the NRF entity, characterized in that the SCP profile includes connection information associated with at least one other SCP entity connected with the SCP entity.
A method for modifying a network configuration, comprising: receiving, by a network device, requirement information sent by a terminal device, wherein the requirement information comprises electricity-saving request information of the terminal device or a maximum transmit power of the terminal device; searching, by the network device, for a mapping relationship between a service mode and the requirement information, and determining at least one service mode of the network device according to the mapping relationship; sending, by the network device, service mode information of the determined at least one service mode of the network device to the terminal device, so that the terminal device determines selection information according to the received service mode information, wherein the service mode information is used to indicate the at least one service mode of the network device; and receiving, by the network device, the selection information sent by the terminal device, and modifying a configuration of the network device according to the determined service mode in the selection information, wherein the selection information corresponds to a service mode in the service mode information. receiving, by a network device, requirement information sent by a terminal device, wherein the requirement information comprises electricity-saving request information of the terminal device or a maximum transmit power of the terminal device; searching, by the network device, for a mapping relationship between a service mode and the requirement information, and determining at least one service mode of the network device according to the mapping relationship; sending, by the network device, service mode information of the determined at least one service mode of the network device to the terminal device, so that the terminal device determines selection information according to the received service mode information, wherein the service mode information is used to indicate the at least one service mode of the network device; and receiving, by the network device, the selection information sent by the terminal device, and modifying a configuration of the network device according to the determined service mode in the selection information, wherein the selection information corresponds to a service mode in the service mode information.
An imaging system (10, 20) for material characterization of a sample, the imaging system (10, 20) comprising: at least two imaging arrays (12a, 12b, 12c, 12d, 12e, 12f) configured to form at least one imaging array pair, each of the at least two imaging arrays (12a, 12b, 12c, 12d, 12e, 12f) comprises a two-dimensional monostatic or multistatic array, wherein the imaging system (10, 20) is configured to perform at least one reflection measurement (13a, 13b) with the aid of at least one imaging array (12a, 12b, 12c, 12d, 12e, 12f), wherein the imaging system (10, 20) is configured to perform at least one transmission measurement (14a, 14b) with the aid of the at least one imaging array pair, wherein the imaging system (10, 20) is configured to determine material characteristics of the sample on the basis of the at least one reflection measurement (13a, 13b) and/or the at least one transmission measurement (14a, 14b), and wherein the imaging system (10, 20) is configured to determine the electrical thickness across the sample and/or homogeneity information with respect to the sample on the basis of the at least one transmission measurement (14a, 14b), preferably on corresponding phase information thereof. wherein the imaging system (10, 20) is configured to perform at least one reflection measurement (13a, 13b) with the aid of at least one imaging array (12a, 12b, 12c, 12d, 12e, 12f), wherein the imaging system (10, 20) is configured to perform at least one transmission measurement (14a, 14b) with the aid of the at least one imaging array pair, wherein the imaging system (10, 20) is configured to determine material characteristics of the sample on the basis of the at least one reflection measurement (13a, 13b) and/or the at least one transmission measurement (14a, 14b), and wherein the imaging system (10, 20) is configured to determine the electrical thickness across the sample and/or homogeneity information with respect to the sample on the basis of the at least one transmission measurement (14a, 14b), preferably on corresponding phase information thereof.
A displacement detecting device (1; 101; 201; 301; 401; 501; 1001; 1201; 1301) comprising: a light source for emitting light; a beam splitting section adapted to split the light emitted from the light source into a first beam to be incident on a member-to-be-measured and a second beam used as reference light; a diffraction grating (4; 4A, 4B; 404; 1004, 1044) adapted to diffract the first beam split by the beam splitting section and reflected by a surface-to-be-measured of the member-to-be-measured, and cause the diffracted first beam to be incident again on the surface-to-be-measured of the member-to-be-measured, wherein the diffraction grating is arranged so that its surface on which gratings are formed is perpendicular to the surface-to-be-measured of the member-to-be-measured, and wherein the surface-to-be-measured of the member-to-be-measured is a flat surface; a reflecting section adapted to reflect the second beam split by the beam splitting section; a beam combining section (3; 1016) adapted to superimpose the first beam diffracted by the diffraction grating and reflected again by the surface-to-be-measured and the second beam reflected by the reflecting section on each other; a light receiving section adapted to receive interfering light of the first beam and the second beam superimposed by the beam combining section; and a relative position information output section adapted to output displacement information of the surface-to-be-measured in the height direction based on intensity of the interfering light received by the light receiving section. a light source for emitting light; a beam splitting section adapted to split the light emitted from the light source into a first beam to be incident on a member-to-be-measured and a second beam used as reference light; a diffraction grating (4; 4A, 4B; 404; 1004, 1044) adapted to diffract the first beam split by the beam splitting section and reflected by a surface-to-be-measured of the member-to-be-measured, and cause the diffracted first beam to be incident again on the surface-to-be-measured of the member-to-be-measured, wherein the diffraction grating is arranged so that its surface on which gratings are formed is perpendicular to the surface-to-be-measured of the member-to-be-measured, and wherein the surface-to-be-measured of the member-to-be-measured is a flat surface; a reflecting section adapted to reflect the second beam split by the beam splitting section; a beam combining section (3; 1016) adapted to superimpose the first beam diffracted by the diffraction grating and reflected again by the surface-to-be-measured and the second beam reflected by the reflecting section on each other; a light receiving section adapted to receive interfering light of the first beam and the second beam superimposed by the beam combining section; and a relative position information output section adapted to output displacement information of the surface-to-be-measured in the height direction based on intensity of the interfering light received by the light receiving section.