A device for extracting aroma substances from vegetable aroma carriers into a brewing liquid, in particular into beer, includes a fluidized bed extractor accommodating a suspension bed including the brewing liquid and solid particles contained in aroma carriers. The fluidized bed extractor has at least an inlet and an outlet for the brewing liquid. A feed pump pumps the brewing liquid from the inlet through the fluidized bed extractor to the outlet. A feeding speed of the feed pump is set to a value at which an average vertical feeding speed of the brewing liquid in the fluidized bed extractor is lower than an average vertical sedimentation speed of the solid particles in the fluidized bed extractor.

A beer making system may use direct steam injection during wort manufacturing. Steam may be added directly to the wort, and may be part of a recirculating mash system. The steam may be the primary mechanism for adding heat to the system, and may eliminate many problems that often occur when using conventional heating systems. A water reservoir may feed a stream generator, which may inject steam into wort during mashing or boiling steps. A controller may monitor temperature and other parameters, and may calculate the dilution of wort based on the water added through the steam injection and allow a brewing system to compensate for said dilution and still produce desired results

A beer making system may use direct steam injection during wort manufacturing. Steam may be added directly to the wort, and may be part of a recirculating mash system. The steam may be the primary mechanism for adding heat to the system, and may eliminate many problems that often occur when using conventional heating systems. A water reservoir may feed a stream generator, which may inject steam into wort during mashing or boiling steps. A controller may monitor temperature and other parameters, and may calculate the dilution of wort based on the water added through the steam injection and allow a brewing system to compensate for said dilution and still produce desired results

A method, and related apparatus, for producing beer from any types of grains includes activating phenomena of controlled hydro-dynamic cavitation during all the steps of the process, from mashing to hopping, and possibly after yeast inoculation. The present method and apparatus provide a number of advantages over traditional techniques, for example, avoiding the pre-crushing of the malts or the grains, thereby increasing the efficiency of saccharification and of starch extraction, and avoiding the boiling at equal efficiency of the hopping. Another advantage is the opportunity of causing the concentration of gluten to fall in the final product simply with controlled hydraulic processes through electromechanics, and of possibly extending fermentation.

A automated beer-brewing system and method includes plural brewing containers, supply containers, and post-beer-brewing containers to bottle the brewed beer and to handle waste fluids and solids. Plural pipes couple the brewing containers to the group post-beer-brewing containers and beer-brewing containers. Plural brew-cycle control valves are coupled to each of the pipes, to locate all of the control valves in a central region of the system.

A beer making system may use direct steam injection during wort manufacturing. Steam may be added directly to the wort, and may be part of a recirculating mash system. The steam may be the primary mechanism for adding heat to the system, and may eliminate many problems that often occur when using conventional heating systems. A water reservoir may feed a stream generator, which may inject steam into wort during mashing or boiling steps. A controller may monitor temperature and other parameters, and may calculate the dilution of wort based on the water added through the steam injection and allow a brewing system to compensate for said dilution and still produce desired results.

A beer making system may use direct steam injection during wort manufacturing. Steam may be added directly to the wort, and may be part of a recirculating mash system. The steam may be the primary mechanism for adding heat to the system, and may eliminate many problems that often occur when using conventional heating systems. A water reservoir may feed a stream generator, which may inject steam into wort during mashing or boiling steps. A controller may monitor temperature and other parameters, and may calculate the dilution of wort based on the water added through the steam injection and allow a brewing system to compensate for said dilution and still produce desired results.

A brewing device may have several different configurations to make various beverages. Under computer control, the device may be able to sequence various ingredients using direct or recirculating percolation for immediate consumption, such as coffee and tea, or for fermenting for later consumption, such as beer, kombutcha, or other consumable products. The device may be capable of a sequenced percolation, such as coffee infusion of a first type of coffee, then a second type of coffee, followed by vanilla, and followed by spices. The device may be capable of sequential, cascading, or parallel percolation directly or using recirculating paths. Ingredients may be pre-packaged or may be placed into various removable and cleanable containers. The device may further be capable of infusion by steeping ingredients in a dispensing device.

A modular home beer brewing stand includes: a base having a center post and three or more adjustable legs, a first leg fixedly attached to the center post with holes, a second leg attached via a first hinge to the first leg and attached via a second hinge to a third leg; a leg pin to secure the legs into a fixed open position surrounding the center post; and modules each having an integrally attached support post with a female end and a male end and each end having matching holes, wherein the male end of a first selected module is inserted into the center post, holes are aligned and a first extension pin is placed through the holes to form a first tier of the stand located vertically above a ground level.

A modular home beer brewing stand includes: a base having a center post and three or more adjustable legs, a first leg fixedly attached to the center post with holes, a second leg attached via a first hinge to the first leg and attached via a second hinge to a third leg; a leg pin to secure the legs into a fixed open position surrounding the center post; and modules each having an integrally attached support post with a female end and a male end and each end having matching holes, wherein the male end of a first selected module is inserted into the center post, holes are aligned and a first extension pin is placed through the holes to form a first tier of the stand located vertically above a ground level.