Bottling Line Cost and Technology Comparison
Benchmark ranges, selection criteria and a practical guide to rotary vs. linear fillers and PET vs. glass lines for producers in the feasibility stage.
Why This Guide Exists
Anyone evaluating a bottling line quickly discovers that a straight question — how much does a bottling line cost? — has no straight answer. The bottling line cost depends on the container (PET, glass, can), the target speed, the product (still water, CSD, wine, spirits, beer, sauce, oil, dairy), the level of automation, hygienic requirements and the layout constraints of the building that will host it. This guide gives realistic benchmark ranges and the selection criteria we use with producers who are still in the feasibility stage, so a first business case can be built before quotations arrive.
The focus is on greenfield or major upgrade projects for small and mid-size producers, including wineries evaluating their first inline monobloc or an upgrade to a rotary bottling line for wine. Costs are 2026 European ex-works ranges and exclude civil works, utilities, VAT and shipping.
Rotary vs. Linear Fillers: When Each Wins
Linear fillers move bottles in a straight line and fill a batch of containers standing still under a set of nozzles. They are mechanically simpler, cheaper, more compact and easier to change over. Realistic throughput sits between 500 and 6,000 bottles per hour depending on head count, product viscosity and closure type. A linear filler-capper monobloc for still wine or oil in the 1,500 bph range typically lands between 45,000 and 120,000 EUR ex-works.
Rotary fillers carry bottles on a rotating carousel with a filling valve per station. They dominate above roughly 6,000 bph because filling happens continuously while bottles move, so speed scales with valve count rather than cycle time. A 24-valve rotary monobloc for wine at 6,000 to 9,000 bph typically ranges from 180,000 to 350,000 EUR; a 40-valve CSD or water rotary at 12,000 to 18,000 bph sits between 400,000 and 900,000 EUR; high-speed water lines above 36,000 bph exceed 1.5 million EUR for the filling block alone.
The crossover point is rarely just about speed. Rotary wins earlier when the product needs isobaric filling (CSD, sparkling wine, beer), when foam control is critical, when changeovers between formats are frequent and fast changeover parts justify the premium, or when OEE targets above 75 percent make the mechanical robustness of a rotary carousel pay back. Linear wins when SKUs are few, runs are long, budget is tight, or footprint is severely constrained.
PET vs. Glass Line Costs
PET and glass lines share the same downstream logic — labeller, coder, case packer, palletiser — but diverge sharply upstream. A PET line typically integrates a stretch-blow moulder (SBM) or, increasingly, a combi block that couples blowing, filling and capping into a single machine. A mid-range PET combi for still water at 12,000 bph lands between 700,000 and 1.2 million EUR; the same throughput built as separate blower + rinser + filler + capper is 15 to 25 percent cheaper on paper but consumes more floor space, more conveyors and more air.
Glass lines skip the blower but add a depalletiser, an air or water rinser, and often an inspection station for empty bottles. A complete glass line for still wine at 3,000 bph — depalletiser, rinser, filler-corker-capsuler-labeller monobloc, case packer, palletiser — typically runs 350,000 to 700,000 EUR. The same architecture at 9,000 bph for beer or CSD, with an isobaric filler and pasteurisation or tunnel cooling, easily reaches 1.2 to 2.5 million EUR.
Beyond capex, operating cost differs. PET adds preform cost and blower energy (0.15 to 0.30 kWh per bottle for a stand-alone SBM, roughly half of that for a combi with heat recovery). Glass adds significant weight in logistics and higher breakage risk that translates into slower line speeds around the filler infeed.
Benchmark Ranges by Product
Still wine, glass, 1,500 bph, semi-automatic monobloc with corker and capsuler: 120,000 to 220,000 EUR. Same architecture at 6,000 bph on a rotary block with inline labeller: 450,000 to 800,000 EUR.
Still water, PET, 12,000 bph combi with rinser: 700,000 to 1,200,000 EUR. Full line with shrink wrapper and palletiser: 1.4 to 2.2 million EUR.
CSD, PET, 18,000 bph rotary combi with isobaric filler, mixer and CO2 saturator: 1.8 to 3.5 million EUR for filling and syrup room combined.
Craft beer, glass, 3,000 to 4,000 bph counter-pressure rotary filler with capper and pasteurisation tunnel: 400,000 to 900,000 EUR.
Spirits, glass, 2,000 to 4,000 bph linear or small rotary with capper and capsuler, no rinsing required for high-proof: 150,000 to 400,000 EUR.
Oil and sauce, glass, 1,500 to 3,000 bph gravimetric or piston filler with induction sealer and labeller: 180,000 to 450,000 EUR.
Selection Criteria That Actually Matter
Peak speed is the number vendors quote and the number producers fixate on. In practice, nameplate speed rarely reflects realised output. OEE — the product of availability, performance and quality — is the honest metric, and mid-range lines typically deliver 55 to 70 percent OEE in the first year, climbing to 75 to 85 percent after two years of tuning. Size the line to the target OEE, not the brochure.
Format flexibility is the second lever. A line that runs one bottle for one product hides its true cost the moment marketing launches a second SKU. Budget 20,000 to 60,000 EUR per additional format on a rotary filler for change parts, and account for the hours lost to each changeover — 30 minutes on a well-designed line, 3 to 4 hours on a rigid one.
Utilities are the silent capex. Compressed air at 40 bar for PET blowing, chilled water for isobaric filling, steam for pasteurisation and CIP — these often add 15 to 30 percent to the total investment and are frequently missed in first business cases. Ask suppliers for the utility specification sheet before comparing quotes.
Automation level and traceability drive both cost and long-term flexibility. A line with vision inspection, torque monitoring on every capper head, and MES integration costs 10 to 20 percent more than a manual-supervised equivalent, but pays back through reduced scrap and audit-ready records. For wine and spirits with lot traceability requirements, this is not optional.
From Feasibility to Quotation
A useful feasibility exercise starts by fixing four numbers: target annual volume, number of active SKUs, container type and mix, and available shifts. From there, required nameplate speed falls out of the OEE assumption, and the filler class (linear vs. rotary, isobaric vs. gravity, combi vs. separate blocks) is largely determined.
Only then should quotations be requested — and always for the full line, not just the filler. A cheap filler married to an undersized labeller or a slow case packer will bottleneck the whole investment. If the internal team lacks the bandwidth to spec the full line, an independent feasibility review is usually cheaper than the change orders it prevents.
Next Steps
Producers evaluating a first line or a major upgrade can browse pre-qualified suppliers by vertical and technology on the Find a Supplier directory, and reach out for an independent feasibility review through the Consultancy page. The benchmark ranges in this guide are a starting point — a proper business case still needs vendor-specific quotations and a utility audit of the target site.
