A turn-key brewery normally needs 3–8 weeks for on-site installation and commissioning, but the full project often takes 4–9 months from approved drawings to production. A 10–20 BBL brewery installed in a prepared building may need 2–4 weeks for mechanical work and another 5–10 working days for testing, cleaning, calibration, and operator training. Larger 30–60 BBL plants can require 6–12 weeks on site when they include 15–30 fermentation vessels, automated controls, steam systems, glycol distribution, CIP, and packaging lines. A practical schedule should also reserve about 10–15% extra time for inspections, utility corrections, freight delays, and final adjustments.
The installation clock should start only after the building can accept the equipment. A brewery may receive every vessel on the planned delivery date and still lose two or three weeks if electrical service, drainage, natural gas, steam, glycol piping, or ventilation is unfinished. For a commercial project planned in 2026, contractors should confirm utility capacities before the equipment leaves the factory, not after trucks arrive.
Floor layout matters early because tanks are difficult to reposition after process piping has been installed. A 20 BBL fermenter can hold more than 2,300 liters of product before headspace is considered, while a brewery with 10 fermenters may place tens of thousands of liters of liquid above the production floor at one time. Structural capacity, drain placement, ceiling height, door width, and forklift access need to match the approved equipment layout.
A useful planning sequence is:
-
equipment placement and leveling: 2–5 working days;
-
process piping and valve connections: 5–15 days;
-
glycol, water, steam, and compressed-air connections: 4–10 days;
-
electrical and control work: 4–10 days;
-
commissioning and operator training: 5–10 days.
The ranges overlap because several trades can work during the same period. A prepared 10 BBL site may finish inside 3–4 weeks, while a 30 BBL facility with 20 or more tanks can remain under installation for 6–10 weeks.
Installation time is usually determined by the number of field connections, not only by brewhouse size. Two breweries with the same 20 BBL brewhouse can have very different schedules when one has 6 tanks and the other has 18 tanks, automated valves, two CIP vessels, and a larger glycol network.
Fabrication happens before any of that field work starts. Stainless-steel brewhouses, fermenters, bright tanks, platforms, piping assemblies, and control cabinets commonly require 8–20 weeks to manufacture, depending on customization and production capacity. A standard system built from an established design may stay near the lower end, while a brewery requiring custom vessel dimensions, unusual ceiling restrictions, or extensive automation may move toward 16–20 weeks.
Engineering can add another 2–6 weeks before fabrication. Suppliers usually need confirmed batch volume, heating method, cellar capacity, tank dimensions, utility specifications, floor plans, process flow, and electrical requirements. Changing from electric heating to steam after fabrication drawings are approved can affect vessel fittings, utility demand, piping, controls, and the building's mechanical work, so late revisions can move several activities at once.
Equipment selection also changes field labor. A brewery buying a complete package of Beer Brewing Equipment from one supplier can reduce interface work because the brewhouse, cellar tanks, pumps, heat exchangers, control cabinets, and utility requirements can be designed around the same process layout. Projects assembled from several suppliers require installers to confirm flange sizes, voltage, communication protocols, sensor types, pump capacity, and control boundaries before commissioning.
By comparison, connecting a standardized pump skid may take hours, while resolving an incompatible electrical supply or incorrectly sized steam line can take days. A 2026 project schedule should therefore identify every connection point before shipment, including voltage and frequency, hot- and cold-water demand, steam pressure, glycol supply and return temperatures, compressed-air pressure, drainage flow, and exhaust requirements.
| Project activity | Typical planning range | Main schedule influence |
|---|---|---|
| Engineering and approval | 2–6 weeks | layout changes, utilities, automation |
| Equipment fabrication | 8–20 weeks | tank count, customization, workload |
| Factory inspection | 3–7 days | testing scope and corrections |
| Freight and delivery | 1–8+ weeks | distance, port handling, customs |
| Mechanical installation | 2–6 weeks | vessel count, piping, access |
| Electrical and controls | 1–3 weeks | automation and field wiring |
| Commissioning | 5–10 days | testing, calibration, training |
Freight deserves its own allowance because shipping dates are not installation dates. Domestic delivery may take several days, while international freight can add 3–8 weeks when container booking, port handling, customs processing, inland transport, and unloading are included. Oversized tanks may also require special transport permits or lifting equipment, particularly when vessel diameter exceeds normal door or trailer constraints.
Unloading must be planned before delivery. If a fermenter weighs 800–1,500 kg empty, the installer needs lifting equipment rated for the actual load and geometry, not an estimated tank weight. Rigging time rises when tanks must pass through restricted doors, stand upright inside low-clearance rooms, or move across finished floors. A site that receives 12–20 vessels can spend several working days only on unloading, positioning, leveling, and securing equipment.
Mechanical piping follows placement. A brewery with 8 tanks may have dozens of sanitary process connections; a larger cellar with 20–30 vessels can require hundreds of hose, pipe, valve, glycol, gas, and instrument connections. Prefabricated pipe sections reduce site welding, but field measurements are still needed where building dimensions differ from drawings by even a few centimeters.
Sanitary process lines also need appropriate slope, drainage, cleanability, and access. Poorly positioned piping may collect product or cleaning solution in low sections. For that reason, experienced brewery installers normally check the installed route before insulation or permanent supports are completed. Spending an extra day checking slope and access can prevent repeated modifications after commissioning.
Utilities usually take more coordination than the stainless-steel vessels. A steam-heated brewhouse needs a boiler or another steam source sized for peak demand, plus condensate handling and safe pressure control. An electrically heated brewhouse places more demand on the electrical service. Glycol systems must remove heat from fermenters during active fermentation and later cooling, so chiller sizing must consider simultaneous tank demand rather than one vessel in isolation.
A planning allowance of 10–20% above calculated peak cooling demand is sometimes used to accommodate operating conditions and future changes, although the final figure should come from the refrigeration engineer and equipment manufacturer. Chiller sizing should not be selected from brewhouse volume alone because fermentation schedule, tank insulation, room temperature, crash-cooling targets, and the number of vessels cooling at once all affect demand.
Electrical installation becomes longer as automation increases. A manual brewery may use individual pump starters, temperature controllers, and simple valve operation. An automated system can include PLC cabinets, touchscreen interfaces, variable-frequency drives, pressure transmitters, flowmeters, automated valves, level sensors, and recipe control. A project with 50–100 field signals requires substantially more wiring, labeling, testing, and software verification than one with fewer than 20.
Commissioning should test equipment as a connected production system. A pump that runs correctly by itself can still create a process problem if a valve sequence is wrong, a temperature sensor is assigned to the wrong tank, or a control interlock stops the wrong motor.
Water testing normally comes before the first brew. Installers circulate water through the brewhouse, heat exchanger, pumps, piping, tanks, and CIP circuits while checking leaks, valve positions, pump direction, temperature readings, pressure behavior, and control sequences. A small brewery may complete this work in 2–3 days; a more automated 30–60 BBL installation may require a week or longer.
CIP testing follows because cleaning performance depends on flow, temperature, chemical concentration, contact time, and spray coverage. Operators should confirm that each vessel drains correctly and that pumps can provide the required circulation. If a brewery has 15 fermentation and bright tanks, testing representative circuits is faster than discovering after production begins that several return paths have poor flow.
Operator training can take 2–5 days for a small brewery and longer when automation, yeast handling, filtration, or packaging equipment is included. Training normally covers startup and shutdown, brewhouse sequencing, tank controls, cleaning, basic fault finding, routine maintenance, and safety procedures. Two operators trained together also provide better coverage than relying on one person to retain every commissioning detail.
Permits and local inspections should remain outside the supplier's promised mechanical installation duration unless the contract explicitly includes them. Electrical, gas, boiler, fire, wastewater, occupancy, and food-production requirements vary by jurisdiction. In projects opened during 2025–2026, an inspection scheduled one week late can move commissioning even when equipment installation is already complete.
The same applies to packaging. Adding a canning line, bottle filler, keg washer, labeler, date coder, conveyors, or pasteurization equipment can add one or more weeks because each machine needs utilities, product connections, controls, setup, and test production. A brewery focused only on kegging can usually reach production sooner than a facility starting with several package formats.
Future expansion should also be considered during the first installation. Adding 20–30% spare electrical capacity, additional glycol headers, capped process connections, or space for several future fermenters can reduce later construction work where engineering allows it. Oversizing every utility is unnecessary, but leaving no physical or service capacity can make a later tank addition more expensive than the tank itself.
A realistic construction schedule therefore works backward from the first planned commercial brew. If production must start on September 1, equipment should not arrive in late August. A 20 BBL project may need 4–6 weeks for installation and commissioning, followed by several additional days for cleaning, trial brewing, fermentation setup, and operator practice. Reserving 10–15% schedule contingency gives the project room for inspection changes, replacement components, utility corrections, or freight variation.
Contract scope should state where the supplier's responsibility ends. “Turn-key” can describe very different packages in 2026: one supplier may include equipment, field installation, process piping, commissioning, and training, while another may supply equipment and an installation supervisor but require the brewery owner to provide electricians, plumbers, refrigeration contractors, cranes, steam work, and permits.
Before signing, the equipment list and responsibility schedule should identify who provides unloading, rigging, anchors, sanitary piping, insulation, electrical cable, cable trays, control wiring, glycol piping, gas lines, steam lines, water treatment, drains, ventilation, startup chemicals, lubricants, and spare parts. Thirty minutes spent reviewing one missing scope item can prevent several days of stopped field work.
For most 10–30 BBL turn-key breweries, 4–9 months from approved engineering to operational handover is a practical planning range. On-site installation generally occupies 2–6 weeks of that period, with another 1–2 weeks for commissioning and training. A prepared building, confirmed utilities, complete drawings, factory-tested controls, labeled connections, coordinated contractors, and an agreed responsibility schedule keep the installation near the shorter end of the range.