A large-scale multifunctional rice noodle making machine, along the direction of materials delivery comprises sequentially a rice lifting machine inlet, a rice lifting machine, a fermenter, a rice feeder, a rice-flour outlet, an auxiliary ingredients machine, a continuously mixing and conveying machine, an outlet, a self-ripening and shaping machine, a hot water circulation tank, a rice-flour feeder, an extruding machine, a conveyor of aging machine, a fan, an aging machine, a first noodle loosen machine, a noodle steamer, an out-feed channel, a second noodle loosen machine, a conveyor, an inlet, an inner packaging machine, a conveyor I, a weighing scale, a metal detector, a conveyor II, a sterilizer, and a rice noodle collector. The present invention relates to a large-scale multifunction rice noodle machine, which can automatically and efficiently produce a variety of rice noodles, such as fermented and non-fermented rice noodles.

Systems, apparatuses, and method for preparing dough-based products are disclosed. One disclosed system for preparing dough-based products comprises a fryer comprising a bottom and at least one sidewall, a proofer comprising a proofing chamber with a top, bottom, and at least one sidewall, and a conveying mechanism configured to transport the dough-based products from the proofing chamber to the fryer, wherein the top of the proofing chamber is located below the bottom of the fryer.

Systems, apparatuses, and method for preparing dough-based products are disclosed. One disclosed system for preparing dough-based products comprises a fryer comprising a bottom and at least one sidewall, a proofer comprising a proofing chamber with a top, bottom, and at least one sidewall, and a conveying mechanism configured to transport the dough-based products from the proofing chamber to the fryer, wherein the top of the proofing chamber is located below the bottom of the fryer.

An automated production system is disclosed herein. One aspect of the present technology, for example, is directed toward an automated system for the continuous production of baked bread. The system can include a priming assembly having a dry ingredients priming unit and a wet ingredients priming unit. The dry ingredients priming unit can include a vertically-oriented hopper and a screw positioned within an interior region of the hopper, wherein the first screw extends along the central longitudinal axis of the hopper and is configured to rotate about its own central longitudinal axis. The system can also include a mixing assembly, a forming assembly, an oven, and a controller. The controller can be coupled to the priming assembly and configured to adjust the amount of dry ingredients delivered from the hopper to the mixing chamber by controlling rotation of the screw.

An automated pan shaker has a central longitudinal axis and a central lateral axis. The automated pan shaker includes a shaker assembly that has a carriage assembly, a clamping assembly supported by the carriage assembly and an actuation assembly. The actuation assembly further includes an actuator post connected to the carriage assembly, a first actuator assembly that includes a first actuator linkage connected to the actuator post, and a second actuator assembly that includes a second actuator linkage connected to the actuator post. Also disclosed is a method for inducing orbital movement in a bakery pan using a plurality of offset actuation assemblies.

A vehicle-based, automated pizza-making system including a two-piece pizza pan conveyed between pizza-making components on a series of pan drive rails. The two-piece pizza pan can include a base and a removable ring for containing the unfinished pizza and toppings. The rails can include timing belts for conveying the two-piece pizza pan through the system with improved positional control and accuracy.

A vehicle-based, automated pizza-making system including a two-piece pizza pan conveyed between pizza-making components on a series of pan drive rails. The two-piece pizza pan can include a base and a removable ring for containing the unfinished pizza and toppings. The rails can include timing belts for conveying the two-piece pizza pan through the system with improved positional control and accuracy.

A vertical transport comprises a first rotatable element having a first support surface extending about a first axis. The vertical transport further includes a second rotatable element having a second support surface extending about a second axis spaced from the first axis. The first and second rotatable elements are configured to move a pan engaged with the first and second support surfaces in a vertical direction by rotating the first and second rotatable elements. In some examples a vertical transport is incorporated within a proofing enclosure or other storage for food items.

A vertical transport comprises a first rotatable element having a first support surface extending about a first axis. The vertical transport further includes a second rotatable element having a second support surface extending about a second axis spaced from the first axis. The first and second rotatable elements are configured to move a pan engaged with the first and second support surfaces in a vertical direction by rotating the first and second rotatable elements. In some examples a vertical transport is incorporated within a proofing enclosure or other storage for food items.

A vehicle-based, automated pizza-making system including a two-piece pizza pan conveyed between pizza-making components on a series of pan drive rails. The two-piece pizza pan can include a base and a removable ring for containing the unfinished pizza and toppings. The rails can include timing belts for conveying the two-piece pizza pan through the system with improved positional control and accuracy.