China Brew & Beverage 2026: How to Source a Beverage Production Line

A beverage line is defined by the product and package moving through it. Beer, carbonated soft drink, juice, water, liquid dairy and sauce may share tanks, pumps or fillers, but they require different treatment, hygiene, gas control, temperatures and shelf-life evidence. China Brew & Beverage 2026 brings these systems to the Shanghai New International Expo Centre from 12 to 15 October.

The organiser describes CBB as a beverage and liquid-food process exhibition with a 30-year history. Its scope runs from malt, raw materials and processing through filling, packaging, automation, utilities, inspection and intralogistics. That distinguishes it from a finished-drinks fair: the useful outcome is a defensible process and line architecture, not a list of beverage brands.

Fix the product, package and operating target

Prepare a production brief for each priority product family. Include formulation, raw-material specifications, process flow, quality attributes, shelf-life target and the conditions under which the product will be distributed. If the formula is confidential, provide a controlled technical version containing the properties needed to size and test the equipment.

Set the line boundary:

sellable output by hour, day and year;
product families, recipes and planned changeovers;
incoming water and raw-material quality;
target batch size and continuous or batch operation;
processing temperatures, hold times, pressure, gas and oxygen limits;
container material, size, closure, label, secondary pack and pallet;
cold, hot, ultra-clean, aseptic or another validated filling route;
required shelf life and storage temperature;
labour plan, uptime, yield and sanitation schedule;
factory space, expansion plan and operating environment;
electricity, steam, water, refrigeration, compressed air, CO₂, nitrogen and drainage;
destination-market food, alcohol, packaging, machinery and workplace requirements.

Use the same rated basis across suppliers. Containers per hour has little meaning without container size, product, temperature, carbonation, closure, line efficiency and changeover assumptions. Separate mechanical maximum speed from guaranteed sellable output.

Keep the main processing routes distinct

Beer and fermented beverages

For beer, map malt and raw-grain handling, milling, mashing, lautering or separation, wort boiling, clarification, cooling, yeast management, fermentation, maturation, filtration and bright-beer storage. Craft and industrial breweries may use different batch sizes, automation and product-change strategies, but both need a stable material and energy balance.

Bring recipes, original and final gravity targets, fermentation profile, oxygen limits, carbonation, filtration route and intended beer loss. Ask how vessel geometry, agitation, heat-transfer area, pressure rating and cleaning support the proposed cycle. Identify every transfer that can introduce oxygen or contamination.

For low- or no-alcohol products, define the production route and acceptance criteria. Fermentation control, membrane separation, vacuum or thermal dealcoholisation affect flavour and energy differently. The supplier should explain aroma handling, microbiological control and final alcohol verification for the exact concept.

Water, carbonated drinks, juice and tea

These products may require raw-water treatment, syrup preparation, dissolution, filtration, deaeration, blending, homogenisation, carbonation, pasteurisation, hot filling, sterile treatment or combinations. Start with incoming water and product sensitivity rather than choosing a familiar equipment block.

For sugar and ingredient preparation, define dissolution rate, temperature, filtration, concentration accuracy and batch traceability. For juice, tea, plant or protein beverages, examine extraction, particle size, sedimentation, heat damage, fouling and cleaning. Carbonated products need a pressure and temperature path that preserves target CO₂ through blending, buffer tanks and filling.

Compare thermal treatment using the product’s microbial target and quality limits. Record heating and cooling curves, holding time, residence-time distribution, recovery, fouling and start-up or shutdown product. A nominal pasteuriser capacity does not prove the complete line delivers the validated process.

Liquid dairy, condiments and other liquid foods

Milk products, yoghurt drinks, plant-based products, sauces, vinegar, edible oils and liquid condiments introduce different viscosity, particles, emulsions, allergens and microbiological risks. Confirm that pumps, valves, heat exchangers, fillers and pipework are sized for the real rheology and inclusions.

Ask how the system prevents separation, air incorporation, shear damage or particle breakage. For viscous or particulate products, review drainability, dead legs, product recovery, pushing or pigging and cleaning verification. Treat each product family as its own process case even when suppliers propose shared equipment.

Design hygiene and CIP with the process

Hygienic performance comes from the full system: material, surface finish, welds, slopes, seals, valve design, instrumentation, drainage, zoning and operating procedure. Request a process and instrumentation diagram that marks product, cleaning, utility and waste routes.

Review:

product-contact materials and surface-finish specification;
hygienic weld standard, inspection and documentation;
pipe slopes, drainability, low points and dead-leg control;
valve matrices and prevention of product-cleaning cross-contamination;
CIP circuits, flow, temperature, concentration and return measurement;
tank spray coverage and verification;
chemical preparation, recovery and disposal;
sterilisation or sanitisation route where required;
separation of raw, processed and packaged zones;
allergen or flavour changeover and release criteria.

Ask for the cleaning recipe and evidence behind it. Time, temperature, mechanical action and chemistry work together. A quoted CIP skid does not demonstrate that remote tanks, long lines, fillers and complex valve groups receive the necessary flow and contact.

Include cleaning in capacity and utility calculations. Frequent product changes may make sanitation time a greater constraint than filling speed.

Match the package to the filling process

CBB covers PET, glass, cans, cartons, pouches, kegs and other containers, plus blowing, cleaning, filling, sealing, labelling and secondary packaging. Choose the package system with the product, distribution and market position.

For PET, define preform, resin, bottle weight, neck finish, barrier need, recycled-content target, blowing conditions and empty-bottle transport. For glass and cans, examine incoming-container quality, rinsing or cleaning, breakage or deformation control and inspection. Kegs need washing validation, valve handling, filling, traceability and return logistics.

Filling trials should use the proposed product characteristics and container. Measure fill accuracy, dissolved oxygen or gas pickup where relevant, foam, product loss, closure application, leakage and package cleanliness. For hot, ultra-clean or aseptic routes, connect container and closure treatment, environmental control, sterilant management, filler design and validation as one system.

Secondary packaging and palletising must protect the container through the intended distribution chain. Bring case count, film or board specification, pallet pattern, warehouse height and transport tests into the line review.

Balance the whole line, including failures and changeovers

Map each machine’s nominal and guaranteed speed, planned efficiency, buffer and changeover. Trace containers from depalletising or blowing through filling, closure, inspection, labelling, packing, palletising and warehouse handover.

Ask what happens when the filler, labeller, packer or palletiser stops. Accumulation can protect upstream output, but it also adds residence time, pressure, warm product exposure and floor space. Define controlled stop, emptying and restart logic for product and packaging.

Run changeover analysis by product, package size, closure and label. Record parts, tools, recipes, cleaning, adjustment, first-good-product checks and waste. A flexible line qualifies through repeatable changeover evidence, not through a catalogue listing many formats.

Connect automation, inspection and traceability

Define which system owns recipe, production order, material lot, machine state, quality result and finished-goods code. Map PLCs, line control, SCADA, laboratory systems, MES, warehouse and ERP interfaces.

Inspection may include empty-container checks, fill level, closure, leak, label, code, foreign material, pressure, weight and pallet condition. For each device, specify defect type, detection limit, test method, line speed, reject confirmation and data retention. Challenge suppliers with labelled defect samples rather than an all-green screen.

Trace one batch from raw materials through processing tanks, filler, packaging materials and pallet. Then run a mock hold or recall. The system should identify affected production without treating every product made that day as the same batch.

Build utilities from simultaneous demand

List electrical load, steam, hot water, chilled water, glycol, refrigeration, compressed air, process air, CO₂, nitrogen, vacuum, water treatment and wastewater. Separate average, peak and simultaneous demand, plus start-up and cleaning conditions.

Review heat recovery, condensate, water reuse, CO₂ recovery, variable-speed drives and product recovery against the actual process. Savings depend on operating hours, temperatures, contamination risk and local utility cost; keep them as calculated cases until measured.

Wastewater design needs flow, temperature, pH, solids, sugar, alcohol, cleaning chemicals and peak discharge. Include product dumping, first rinse and exceptional cleaning, not only normal operation.

Run one controlled product and package trial

Agree the purpose before the demonstration: process feasibility, filling behaviour, package integrity, inspection capability or line acceptance. Use representative product or a documented simulant with matching viscosity, foaming, particle and temperature characteristics.

Record:

product or simulant composition and batch;
equipment models, product path and software versions;
temperature, pressure, flow, gas and speed;
container, closure and packaging-material lots;
start-up, steady-state, stop and restart conditions;
fill, gas, closure, leak and inspection results;
product and packaging loss;
cleaning or changeover steps demonstrated;
operator actions and every parameter adjustment.

Keep labelled packs and raw data where product safety permits. A short stand test will not prove commercial shelf life or sustained uptime, but it can reveal whether the supplier understands the process and can structure the next trial.

Use the four days to close one line architecture

12 October — compare process concepts

Start with product treatment and complete-line integrators. Present the production brief and ask for a block flow, material balance and initial utility basis. Keep beer, soft-drink, water, dairy and other liquid-food workstreams separate.

13 October — investigate filling and packaging

Follow the shortlisted process into container manufacture or preparation, filling, sealing, inspection, labelling and secondary packaging. Run agreed trials and record the exact package and product conditions.

14 October — close hygiene, automation and utilities

Review P&IDs, CIP, zoning, controls, inspection, data, line balance, changeover and simultaneous utility demand. Mark buyer, integrator and third-party scope on one layout and responsibility matrix.

15 October — define the post-show evidence

Use return meetings to agree the next stage: product trial, line simulation, layout, mass and energy balance, reference visit, factory audit, quotation and acceptance plan. Leave with two or three comparable architectures rather than a list of isolated machines.

Visit Zhangjiagang only for selected filling-equipment factories

Suzhou government documentation has identified a plastic and beverage-machinery cluster in Zhangjiagang. The area can therefore be a practical post-show direction for buyers who shortlist bottle blowing, water treatment, filling, labelling, conveying or secondary-packaging suppliers at CBB.

The cluster name is not a qualification. Before travelling, confirm the supplier’s legal entity, address, export experience and the processes carried out at that site. Select visits around unresolved technical questions, and avoid a generic tour of companies that assemble similar standard machines without application evidence.

At each factory, trace engineering, fabrication, purchased components, electrical assembly, software, hygienic finishing, testing, spare parts and service. Confirm whether the site can run the proposed product and package or only water through a standard demonstration line.

Verify the process, factory and operating reference

Use an application centre for product treatment, filling or package trials that the stand could not complete. Extend the run long enough to observe warm-up, steady operation, stops, restart, changeover and cleaning.

At the equipment factory, agree a factory-acceptance plan using the quoted configuration. Define test material, line speed, duration, product or simulant, package loss, quality measures, changeover and document set. Items that cannot be proven before shipment belong in a site-acceptance plan with clear responsibility.

A relevant operating plant can show hygiene discipline, uptime, maintenance, format change, operator load, utility use and local support. Access requires the owner’s approval. Match the reference by product family, filling route, package, speed and automation level rather than accepting any line from the same brand.

Compare total cost at sellable output

Normalise quotations around the same product families, packages, sellable speed, operating hours, changeovers and scope. Include processing, tanks, piping, CIP, utilities, filler, packaging, inspection, conveyors, controls, software, installation, commissioning, training, spares and acceptance testing.

Calculate product and package loss, ingredients, water, energy, gas, chemicals, labour, consumables, maintenance and downtime per sellable unit. Compare the ramp-up period as well as mature operation; a high-speed line can be expensive if process development, local skills and service are not ready.

Finally, agree configuration and substitution control. Changes to product-contact materials, valves, pumps, instruments, PLCs, fillers or package components can affect the validated result. Define which changes require written approval and requalification before the purchase order is signed.

Official sources and update

Information checked and updated on 30 July 2026. Confirm the final exhibitor list, hall plan, registration, opening hours and programme with the organisers before travel.

Xentra Global can help international beverage producers turn product and package briefs into CBB supplier shortlists, coordinate technical trials and interpretation, compare line proposals and arrange focused post-show equipment-factory and operating-reference visits.