mhurhangee/ep-ind-claims huggingface dataset:
A method of automatically orienting produce items, wherein each produce item has a stem and a blossom comprising the steps: - transporting individual produce items into a programmable manipulator, - manipulating each produce item, - imaging each produce item repeatedly with one or more depth imaging cameras, as said produce item is manipulated, - creating a digital three dimensional characterization of the surface of said produce item being manipulated, - utilizing said digital three dimensional characterization of the surface of said produce item being manipulated to locate said stem and said blossom using a principal axis of curvature, PAC, algorithm, and - actuating said manipulator to correct the orientation of said produce item to a proper orientation, wherein once the stem and blossom have been located, the manipulator is actuated to orient the stem vertically with respect to blossom by rotating the manipulator about a first axis until the stem and blossom lie in a plane including the first axis and a second axis, wherein the second axis is perpendicular to a plane including the first axis and a third axis, and rotating support cups (121, 122) of the manipulator around the third axis to reach the proper orientation, wherein the support cups (121, 122) are utilized to contact and manipulate said produce item. - transporting individual produce items into a programmable manipulator, - manipulating each produce item, - imaging each produce item repeatedly with one or more depth imaging cameras, as said produce item is manipulated, - creating a digital three dimensional characterization of the surface of said produce item being manipulated, - utilizing said digital three dimensional characterization of the surface of said produce item being manipulated to locate said stem and said blossom using a principal axis of curvature, PAC, algorithm, and - actuating said manipulator to correct the orientation of said produce item to a proper orientation, wherein once the stem and blossom have been located, the manipulator is actuated to orient the stem vertically with respect to blossom by rotating the manipulator about a first axis until the stem and blossom lie in a plane including the first axis and a second axis, wherein the second axis is perpendicular to a plane including the first axis and a third axis, and rotating support cups (121, 122) of the manipulator around the third axis to reach the proper orientation, wherein the support cups (121, 122) are utilized to contact and manipulate said produce item.
A master piston for a hydraulic vehicle brake which can be arranged in a master cylinder of the hydraulic vehicle brake so as to be movable in a reciprocal manner along the master piston longitudinal axis, wherein the master piston comprises a piston element with at least one seal (6, 8, 72) and wherein the seal (6, 8, 72) is injection molded onto the piston element, wherein the master piston has at least one guide portion (10, 12, 42, 56, 60, 66, 74) for guiding the master piston in the master cylinder, wherein the guide portion (10, 12, 42, 56, 60, 66, 74) is elastically deformable at least in some portions in a radial direction to the longitudinal axis, wherein the guide portion (10, 12, 42, 56, 60, 66, 74) is formed at least partially from a different material than the piston element, characterized in that the piston element, the at least one seal (6, 8, 72) and the at least one guide portion (10, 12, 42, 56, 60, 66, 74) are produced together by a multi-component injection molding method.
Trailer coupling for a motor vehicle, in particular a passenger car, comprising a retainer which is arranged on or can be fastened to the motor vehicle, and a retainer part, which can be detachably fastened to the retainer and which has a retainer insertion projection for inserting into a retainer insertion receptacle of the retainer, wherein the retainer part has an integrated locking device having at least one locking body and an actuation body, which is supported in the retainer part so as to be movable in order to actuate the at least one locking body into a locking position, wherein the at least one locking body interlockingly engages in a locking receptacle on the retainer in the locking position and is moved out of the locking receptacle in a detaching position, so that the retainer insertion projection of the retainer part is interlockingly engaged in the retainer projection receptacle of the retainer in the locking position of the at least one locking body and in the release position can be removed from the retainer insertion receptacle of the retainer, wherein the retainer part is provided for forming a coupling arm, which has a coupling part having a coupling element, in particular a coupling ball, for coupling a load carrier or a trailer, or for directly coupling a load carrier, wherein the retainer part has a receiving sleeve with a tubular coupling insertion receptacle for inserting a coupling insertion projection (66;266) of the coupling part or of the load carrier, characterised in that the coupling insertion receptacle has an end stop projecting into its inner cross-section in the form of a base for a free end face of the coupling insertion projection (66;266).
An imaging device, comprising: a first substrate including a first multilayer wiring layer, the first multilayer wiring layer including a first wiring for bonding the first substrate to a second substrate and being configured to receive electrical signals based on electric charge generated by at least one photoelectric conversion unit; a plurality of second wirings for bonding the first substrate to the second substrate; at least one third wiring (271 M 3) configured to receive a power supply signal; and a plurality of fourth wirings configured to connect the at least one third wiring (271 M 3) to the plurality of second wirings; wherein the at least one third wiring (271 M 3) is wider than the plurality of second wirings and the plurality of fourth wirings, and wherein, the plurality of second wirings, the at least one third wiring (271 M 3), and the plurality of fourth wirings are located closer to at least a portion of a pixel region than the first wiring. a first substrate including a first multilayer wiring layer, the first multilayer wiring layer including a first wiring for bonding the first substrate to a second substrate and being configured to receive electrical signals based on electric charge generated by at least one photoelectric conversion unit; a plurality of second wirings for bonding the first substrate to the second substrate; at least one third wiring (271 M 3) configured to receive a power supply signal; and a plurality of fourth wirings configured to connect the at least one third wiring (271 M 3) to the plurality of second wirings; a first wiring for bonding the first substrate to a second substrate and being configured to receive electrical signals based on electric charge generated by at least one photoelectric conversion unit; a plurality of second wirings for bonding the first substrate to the second substrate; at least one third wiring (271 M 3) configured to receive a power supply signal; and a plurality of fourth wirings configured to connect the at least one third wiring (271 M 3) to the plurality of second wirings; wherein the at least one third wiring (271 M 3) is wider than the plurality of second wirings and the plurality of fourth wirings, and wherein, the plurality of second wirings, the at least one third wiring (271 M 3), and the plurality of fourth wirings are located closer to at least a portion of a pixel region than the first wiring.
A microwave integrated circuit multi-chip-module comprising: a package substrate having a front surface and a back surface and a high frequency transmission line formed on the front surface, the high frequency transmission line being suited for transmitting microwave signals; a plurality of microwave integrated circuits mounted on the front surface; and a shielding member bonded to the front surface substrate and electromagnetically shielding the high frequency transmission line and each microwave integrated circuit from each other, wherein the shielding member has a recesses formed such as to face the high frequency transmission line and the microwave integrated circuits and shielding wall portions partitioning the recesses from one another, characterized in that the package substrate has a blind rectangular cavity open on the back surface, a microstrip antenna on a portion of the front surface which is above the blind rectangular cavity and a plurality of via holes formed in a tubular fashion around the blind rectangular cavity, wherein the blind rectangular cavity, the microstrip antenna and the plurality of via holes together constitute a tubular waveguide part for guiding electromagnetic waves inputted to or outputted from the high frequency transmission line. a package substrate having a front surface and a back surface and a high frequency transmission line formed on the front surface, the high frequency transmission line being suited for transmitting microwave signals; a plurality of microwave integrated circuits mounted on the front surface; and a shielding member bonded to the front surface substrate and electromagnetically shielding the high frequency transmission line and each microwave integrated circuit from each other, wherein the shielding member has a recesses formed such as to face the high frequency transmission line and the microwave integrated circuits and shielding wall portions partitioning the recesses from one another, characterized in that the package substrate has a blind rectangular cavity open on the back surface, a microstrip antenna on a portion of the front surface which is above the blind rectangular cavity and a plurality of via holes formed in a tubular fashion around the blind rectangular cavity, wherein the blind rectangular cavity, the microstrip antenna and the plurality of via holes together constitute a tubular waveguide part for guiding electromagnetic waves inputted to or outputted from the high frequency transmission line.
A tire (10, 20) comprising a buttress portion (8, 28) between a tread portion and a sidewall portion thereof, wherein a ridge line portion (12, 22) extending in a tire radial direction through at least one bending point (F, F1, F2) on a surface of the buttress portion (8, 28) and a valley line portion (13, 23) extending parallel to the ridge line portion (12, 22) at a spacing from the ridge line portion (12, 22) in a tire circumferential direction and located inward from the surface of the buttress portion (8, 28) in a normal direction of the surface, the ridge line portion (12, 22) and the valley line portion (13, 23) alternately arranged in the tire circumferential direction, a total number of the ridge line portion (12, 22) and the valley line portion (13, 23) being three or more, and a first slanting line portion (14, 24) connects the bending point (F, F1, F2) of the ridge line portion (12, 22) and a bending point (G, G1, G2) of the valley line portion (13, 23) on a same circumference, and a second slanting line portion (15, 25) connects the ridge line portion (12, 22) and the valley line portion (13, 23) in parallel with the first slanting line portion (14, 24) at each of a position away from the first slanting line portion (14, 24) outward in the tire radial direction and a position away from the first slanting line portion (14, 24) inward in the tire radial direction. a buttress portion (8, 28) between a tread portion and a sidewall portion thereof, wherein a ridge line portion (12, 22) extending in a tire radial direction through at least one bending point (F, F1, F2) on a surface of the buttress portion (8, 28) and a valley line portion (13, 23) extending parallel to the ridge line portion (12, 22) at a spacing from the ridge line portion (12, 22) in a tire circumferential direction and located inward from the surface of the buttress portion (8, 28) in a normal direction of the surface, the ridge line portion (12, 22) and the valley line portion (13, 23) alternately arranged in the tire circumferential direction, a total number of the ridge line portion (12, 22) and the valley line portion (13, 23) being three or more, and a first slanting line portion (14, 24) connects the bending point (F, F1, F2) of the ridge line portion (12, 22) and a bending point (G, G1, G2) of the valley line portion (13, 23) on a same circumference, and a second slanting line portion (15, 25) connects the ridge line portion (12, 22) and the valley line portion (13, 23) in parallel with the first slanting line portion (14, 24) at each of a position away from the first slanting line portion (14, 24) outward in the tire radial direction and a position away from the first slanting line portion (14, 24) inward in the tire radial direction.
An x-ray imaging system comprising: an x-ray source; an x-ray detector comprising a plurality of detector strips arranged in a first direction of the x-ray detector, each detector strip further comprising a plurality of detector pixels arranged in a second direction of the x-ray detector; a phase grating; and a plurality of analyzer gratings comprising grating slits; wherein the x-ray source and the x-ray detector are adapted to perform a scanning movement in relation to an object in the first direction, in order to scan the object; wherein the analyzer gratings are arranged between the x-ray source and the x-ray detector, wherein each of the plurality of analyzer gratings is arranged in association with a respective detector strip with the grating slits arranged in the second direction; and wherein the grating slits of the analyzer gratings of the detector strips are displaced relative to each other in the second direction; wherein the grating slits of analyzer gratings of two consecutive detector strips with analyzer gratings in a first direction are displaced relative to each other in the second direction in a systematic manner, wherein the systematic manner comprises a defined displacement distance (d). an x-ray source; an x-ray detector comprising a plurality of detector strips arranged in a first direction of the x-ray detector, each detector strip further comprising a plurality of detector pixels arranged in a second direction of the x-ray detector; a phase grating; and a plurality of analyzer gratings comprising grating slits; wherein the x-ray source and the x-ray detector are adapted to perform a scanning movement in relation to an object in the first direction, in order to scan the object; wherein the analyzer gratings are arranged between the x-ray source and the x-ray detector, wherein each of the plurality of analyzer gratings is arranged in association with a respective detector strip with the grating slits arranged in the second direction; and wherein the grating slits of the analyzer gratings of the detector strips are displaced relative to each other in the second direction; wherein the grating slits of analyzer gratings of two consecutive detector strips with analyzer gratings in a first direction are displaced relative to each other in the second direction in a systematic manner, wherein the systematic manner comprises a defined displacement distance (d).
A flow splitter comprising: an inlet configured to receive a fluid flowing along a first linear axis; at least two outlets, one outlet configured to receive a first portion of the fluid flow and another outlet configured to receive a second portion of the fluid flow; an internal vane comprising a first end corresponding to the inlet and a second end corresponding to the at least two outlets, wherein the internal vane forms a first conduit and a second conduit using the internal vane and wherein the internal vane is twisted about the first axis from 0 degrees at the first end to a degree between about 60 degrees and 150 degrees at the second end; characterised in that the average cross-sectional area of the first conduit is greater than the average cross-sectional area of the second conduit. an inlet configured to receive a fluid flowing along a first linear axis; at least two outlets, one outlet configured to receive a first portion of the fluid flow and another outlet configured to receive a second portion of the fluid flow; an internal vane comprising a first end corresponding to the inlet and a second end corresponding to the at least two outlets, wherein the internal vane forms a first conduit and a second conduit using the internal vane and wherein the internal vane is twisted about the first axis from 0 degrees at the first end to a degree between about 60 degrees and 150 degrees at the second end; characterised in that the average cross-sectional area of the first conduit is greater than the average cross-sectional area of the second conduit.
A business form including a separable wristband comprising a lamination ply and a face stock ply; the face stock ply comprising one or more die cuts defining a print area; the lamination ply having one or more die cuts (330, 350) defining a laminating portion, said laminating portion comprising a first strap, a second strap, a first panel, and a second panel; said first strap extending from said first panel and said second strap extending from said second panel; and the first and second panels being substantially aligned for folding over the print area to encapsulate the print area; characterized in that: said print area has a length less than a combined length of said first and second straps; and at least one of said panels comprises a width greater than a width of each strap and a sloped transition area located adjacent said strap extending therefrom. the face stock ply comprising one or more die cuts defining a print area; the lamination ply having one or more die cuts (330, 350) defining a laminating portion, said laminating portion comprising a first strap, a second strap, a first panel, and a second panel; said first strap extending from said first panel and said second strap extending from said second panel; and the first and second panels being substantially aligned for folding over the print area to encapsulate the print area; characterized in that: said print area has a length less than a combined length of said first and second straps; and at least one of said panels comprises a width greater than a width of each strap and a sloped transition area located adjacent said strap extending therefrom. said print area has a length less than a combined length of said first and second straps; and at least one of said panels comprises a width greater than a width of each strap and a sloped transition area located adjacent said strap extending therefrom.
An apparatus for displaying a time dependence of a numerical value at a driver's position in a vehicle, in particular a motor vehicle or a commercial vehicle, comprising: a display configured to display a scale of the numerical value; and a controller, which is connected or connectable to the display so as to exchange signals for controlling the display and is configured to capture the numerical value and the time dependence of the numerical value and to display the numerical value and, for values greater than and/or smaller than the numerical value, the time dependence of the numerical value on the scale of the display, wherein the controller is configured to display the time dependence by means of a pattern for values greater than and/or smaller than the numerical value, wherein the pattern has a transverse dimension transversely to the scale, characterized in that the controller is configured to increase the transverse dimension at a predetermined rate up to a maximum dimension for the values that are smaller than the numerical value and/or to reduce the transverse dimension at a predetermined rate up to a minimum dimension for values that are greater than the numerical value. a display configured to display a scale of the numerical value; and a controller, which is connected or connectable to the display so as to exchange signals for controlling the display and is configured to capture the numerical value and the time dependence of the numerical value and to display the numerical value and, for values greater than and/or smaller than the numerical value, the time dependence of the numerical value on the scale of the display, wherein the controller is configured to display the time dependence by means of a pattern for values greater than and/or smaller than the numerical value, wherein the pattern has a transverse dimension transversely to the scale, characterized in that the controller is configured to increase the transverse dimension at a predetermined rate up to a maximum dimension for the values that are smaller than the numerical value and/or to reduce the transverse dimension at a predetermined rate up to a minimum dimension for values that are greater than the numerical value.
Use of a film as a silage film, wherein the film comprises: at least one layer of a resin composition comprising an ethylene-vinyl alcohol copolymer and a hydroxy group-containing compound, wherein said hydroxy group-containing compound has a molecular weight less than or equal to 200, and a ratio of number of hydroxy groups per molecule to the molecular weight ranging from 0.02 to 0.03, and a melting point of greater than or equal to 23°C, and a content of the hydroxy group-containing compound in the resin composition ranges from 3% to 15% by mass. at least one layer of a resin composition comprising an ethylene-vinyl alcohol copolymer and a hydroxy group-containing compound, wherein said hydroxy group-containing compound has a molecular weight less than or equal to 200, and a ratio of number of hydroxy groups per molecule to the molecular weight ranging from 0.02 to 0.03, and a melting point of greater than or equal to 23°C, and a content of the hydroxy group-containing compound in the resin composition ranges from 3% to 15% by mass.
A vehicle guidance device that is installed in a vehicle, comprising: a meter position information acquisition unit that is adapted to acquire information on the position of a parking meter (9; 54 to 56) for an on-street parking zone (4; 51), a parked vehicle detection unit that is adapted to detect that the vehicle (2; 57) is parked in the on-street parking zone (4; 51), and a guidance unit that in a case where the parked vehicle detection unit detects that the vehicle (2; 57) is parked in the on-street parking zone (4; 51), is adapted to provide guidance to the position of the parking meter (9; 54 to 56) for the on-street parking zone (4; 51) in which the vehicle (2; 57) is parked based on the parking meter position information that is acquired by the meter position information acquisition unit. a meter position information acquisition unit that is adapted to acquire information on the position of a parking meter (9; 54 to 56) for an on-street parking zone (4; 51), a parked vehicle detection unit that is adapted to detect that the vehicle (2; 57) is parked in the on-street parking zone (4; 51), and a guidance unit that in a case where the parked vehicle detection unit detects that the vehicle (2; 57) is parked in the on-street parking zone (4; 51), is adapted to provide guidance to the position of the parking meter (9; 54 to 56) for the on-street parking zone (4; 51) in which the vehicle (2; 57) is parked based on the parking meter position information that is acquired by the meter position information acquisition unit.
A connection unit for a beverage dispensing system, the connection unit comprising: - a hollow piston member defining a fluid channel extending between a first end and a second end of the hollow piston member, and - a dispensing line connected to the second end of the hollow piston member and in fluid communication with the fluid channel, characterised in that the connecting unit further comprises a mechanism (45, 46) preventing reuse of the connection unit by blocking the fluid channel and/or changing the geometry of the hollow piston member. - a hollow piston member defining a fluid channel extending between a first end and a second end of the hollow piston member, and - a dispensing line connected to the second end of the hollow piston member and in fluid communication with the fluid channel,