In an induction system for use with an object processing system, a distribution system is disclosed for providing dissimilar objects into one of a plurality of receiving units. The distribution system includes a conveyor section that travels over a vacuum roller, and the plurality of receiving units arranged generally below the vacuum roller such that an object with a mass will fall toward one of the plurality of receiving units based on both the object's mass and a vacuum force applied to the object through the conveyor section.

A distribution system for use in an induction system with an object processing system. The distribution system provides dissimilar objects into one of a plurality of receiving units. The distribution system includes an air intake system with an opening that is a fixed distance from a conveyor section, said air intake system aiding in moving an object on the conveyor section from the conveyor section to one of a plurality of adjacent transport units.

A can body conveying system comprises a turntable and an unloading conveying line, and the turntable is rotatably erected by a rotary shaft through its center; the turntable is integrated with a loading station and an unloading station of the process; the surface of the turntable is provided with several can locating positions in the circumferential direction; the unloading conveying line is set corresponding to the unloading station of the turntable. The unloading conveying line has a vertical conveying surface and a horizontal conveying surface, and the conveying surfaces are equipped with suction holes, and the negative pressure mechanisms are arranged on the back; the vertical conveying surface is provided with at least two conveying paths arranged in parallel longitudinally and the areas on the turntable facing each conveying path serve as the unloading cross-connection areas; in the unloading state, the can locating positions in the unloading cross-connection area correspond to and align with the conveying paths of the vertical conveying surface one by one, so that the can bodies in the unloading cross-connection area can detach from the turntable and transfer to the corresponding conveying path. The adoption of the present invention can effectively simplify equipment, reduce costs, and also help increase flexibility, increase production capacity, reduce energy consumption, and improve product quality consistency.

Embodiments of the present disclosure generally relate an apparatus for inspecting and sorting a plurality of substrates. The apparatus includes a sorting unit, a first conveyor lane disposed within the sorting unit in a first direction and a first plane, and at least a second conveyor lane disposed within the sorting unit, the second conveyor lane positioned in a second direction at an angle of greater than about 45 degrees relative to the first direction, wherein the second conveyor lane is positioned in a second plane that is different than the first plane.

According to one embodiment, a tablet printing apparatus performs printing by using an inkjet print head device for a tablet conveyed by a conveying device. The conveying device includes a conveyor belt having a suction hole and configured to convey the tablet while sucking the tablet from the suction hole. The tablet printing apparatus further includes a rectifying board arranged at a distance from the conveyor belt so as to face a surface of the conveyor belt. The rectifying board has a gas permeability to let an airflow flowing toward the suction hole pass therethrough.

According to some embodiments a conveying device for conveying goods includes at least one conveyor belt with an outer contact face against which the goods to be conveyed are held during conveyance. A main negative pressure holding area is provided adjacent to the conveyor belt, the main negative pressure holding area being configured to hold or release the goods to or from the conveyor belt by negative pressure. The conveyor belt includes at least one suction chamber on the outer contact face forming an additional negative pressure holding area, the suction chamber being in fluid communication with negative pressure holding means through at least one opening transversely going through the conveyor belt.

A conveyor system comprises a track extending along a conveying path, and one or more carriages having a mounting section slidably engaging the track, with a vacuum connection being formed in the mounting section. A driving mechanism moves the carriages along the conveying path. A plurality of vacuum valves connected to the track along the conveying path, and a vacuum source is connected to the plurality of vacuum valves to supply vacuum thereto. The conveyor system is configured to selectively supply vacuum to the vacuum connection of the least one carriage via the plurality of vacuum valves based on a proximity of the at least one carriage thereto.

A vacuum holder for articles, a combination of a vacuum holder and an article, a system for holding and conveying articles, and a method for holding and conveying articles are disclosed. The vacuum holder includes a main body having a surface and an air passageway leading to the surface, and a valve joined to the main body and in fluid communication with the air passageway. An article can be placed adjacent to the surface of the main body, and a vacuum can be drawn through the air passageway to hold the article to the vacuum holder. The valve maintains the vacuum between the article and the vacuum holder without being connected to a vacuum source, until it is desired to release the article from the vacuum holder.

Apparatus for transporting material in a manufacturing process are disclosed. A disclosed vacuum conveyer system may comprise a vacuum box extending between a first box end and a second box end, the vacuum box comprising a vacuum box vacuum chamber, a nose roll disposed adjacent to the first box end, the nose roll comprising a nose roll vacuum chamber, and a foraminous member disposed about both of the nose roll and the vacuum box. The vacuum system may further comprise a first airflow conduit connecting the vacuum box vacuum chamber to a vacuum source and a second airflow conduit connecting the nose roll vacuum chamber to the vacuum source.

A substrate support system 10 for a conveyor printer is provided, comprising a support unit 100 comprising a plurality of vacuum apertures 108 arranged for fluidic communication with a source of negative pressure. The support unit 100 also comprises at least one air bearing 114 arranged for fluidic communication with a source of positive pressure. The air bearing 114 comprises porous media 116. The substrate support system 10 also comprises a conveyor belt 150 arranged over the support unit 100 for supporting a substrate 170 to be printed on. The conveyor belt 150 comprises a plurality of belt apertures. The vacuum apertures 108 are arranged to convey a negative pressure through the belt apertures for retaining the substrate 170 on the conveyor belt 150. The at least one air bearing 114 is arranged to convey a positive pressure to support the conveyor belt 150.