Integrated Combiblock Systems

Bottled Water Combiblock System

The bottled water combiblock system integrates preform heating and stretch blow molding, direct container transfer, drinking water filling, and rotary capping into a continuous wet-end sequence.

Project fit snapshot

Check the application boundary before selecting a configuration.

Suitability depends on the product, container, output, hygienic route and connected equipment. Conditions outside the published scope require engineering review.

Technical content: fourth edition

Application scope

  • PET bottled drinking water production lines.
  • Small-format bottled water manufacturing facilities.
  • Production lines requiring minimized open container transport distances.

Project inputs

  • Preform weight, neck finish, and material specifications.
  • Container nominal volume, outer diameter, and overall height.
  • Target production bottle speed.

Engineering interfaces

  • Preform supply inlet
  • High-pressure blowing air
  • Control air

Evidence boundary

Project records shown below are project-specific references, not standard specifications.

The bottled water combiblock system integrates preform heating and stretch blow molding, direct container transfer, drinking water filling, and rotary capping into a continuous wet-end sequence. Once formed, PET bottles transfer directly into the filling area rather than through a long-distance empty-bottle route, allowing blow molding, filling, and capping to be coordinated by one production rhythm. Water treatment, compressed air and cleaning circuits retain their own defined operating boundaries.

01

Scope of Application

  • PET bottled drinking water production lines.
  • Small-format bottled water manufacturing facilities.
  • Production lines requiring minimized open container transport distances.
02

Process Path

Process route — Bottled Water Combiblock System.
Process route — Bottled Water Combiblock System.

Preform Feeding: PET preform supply to the blowing section.

Preform Heating: Controlled thermal preparation of preforms before bottle forming.

Stretch Blow Molding: Axial stretching and high-pressure blowing inside mold cavities.

Neck-Clamped Transfer: Direct container transfer via neck support starwheels.

Water Filling: Filling to the project-defined liquid level.

Rotary Capping: Capping with the specified bottle closure.

Finished Bottle Output: Discharge to downstream conveying and inspection systems.

03

System Design and Operating Logic

The primary design focus of the bottled water combiblock is converging preform supply, compressed air, product water, cap supply, and finished containers under a single machine cycle. Heating and blowing capacities, filling valve counts, capping rates, and downstream transport must be calculated using identical bottle types and target speeds. Formed bottles enter the filling zone through starwheels or direct transfer mechanisms, reducing the swing, tipping, and surface exposure associated with lightweight empty containers in conventional air conveyors. Direct mechanical connection does not remove functional process boundaries: high-pressure blowing air, mold cooling, product water feed, Clean-In-Place (CIP), and cap supply maintain their respective operational interlocks. For 24,000 BPH water lines, project definitions encompass preform, label, packaging, pallet, building, and utility inputs to jointly establish engineering boundaries prior to equipment configuration.

04

Key Design and Technical Details

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Design ObjectTechnical Description
Unified Speed BaselineBlow molding, filling, capping, and downstream transport operate on a single target bottle speed reference with defined deceleration and recovery sequences.
Direct TransferNeck-based container transfer secures stable conveyance from blow molding release to the filling table, controlling starwheel positioning and container engagement.
Water Supply StabilityProduct water storage tanks, supply pumps, and filler bowls maintain continuous liquid feed to prevent upstream hydraulic fluctuations from entering the filling zone.
Cap SupplyCap supply is coordinated with the capping section and participates in defined operating permits.
Cleaning BoundaryFilling supply and cleaning interfaces are defined together with the applicable CIP route.
System InterlocksMaterial availability, equipment status and downstream blockage conditions participate in coordinated operating control.
05

Main Components and Functions

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ComponentFunction
Blow Molding UnitExecutes preform heating, axial stretching, pre-blowing, high-pressure blowing, and mold cooling.
Direct Transfer UnitTransfers formed empty containers directly into the filling zone based on neck support.
Filling UnitFills drinking water through the defined filling system.
Capping UnitApplies the specified bottle cap after filling.
Cleaning InterfaceDefines the applicable cleaning connection and process boundary for the filling system.
06

Operation and Control

Preforms are heated to establish the temperature distribution required for stretch blow molding, then enter molds for axial stretching, pre-blowing and high-pressure blowing. Formed bottles are transferred directly to the filling section through the defined transfer mechanism. The water-supply circuit maintains the filler liquid level; bottles are filled at the filling position and capped immediately. The three main process stages are linked through a common speed reference and material-status signals. Controls coordinate material availability, blow-molding conditions, filling supply, capping and downstream blockage conditions.

07

Cleaning and Maintenance

Blow-molding and wet filling sections require separately defined cleaning and maintenance boundaries. Neck-handling components, transfer parts and capping components must be assessed for the confirmed bottle and cap format. Before production, the filling and cleaning interfaces must be checked for correct connection and drainage according to the project procedure.

08

Engineering Interfaces

  • Preform supply inlet
  • High-pressure blowing air
  • Control air
  • Chilled mold cooling water
  • Treated product water supply
  • Bottle cap supply track
  • CIP return and supply circuit
  • Finished bottle discharge conveyor
09

Project Definition Inputs

  • Preform weight, neck finish, and material specifications.
  • Container nominal volume, outer diameter, and overall height.
  • Target production bottle speed.
  • Product water supply capacity and feed conditions.
  • High-pressure air and chilled mold cooling water availability.
  • Bottle cap specifications.
  • Format changeover scope.
  • Cleaning method requirements.
10

Optional Configurations

High-pressure air recovery and staged air supply systems.

Preform temperature inspection and defective bottle rejection units.

Cap handling sanitization or neck rinsing modules.

Machine status, alarm logging, recipe management, and batch event recording.

11

Project Reference

Project Reference Only — Not a Standard Specification

The figures below apply exclusively to the specified project configuration to illustrate engineering matching against specific products and capacities; they do not represent standard performance metrics for other projects.

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Project ItemProject ScopeConfiguration / ValueBoundary Conditions
24,000 BPH 330 mL PET Water Combiblock LineWhole-Line InputPreforms, caps, labels, packaging, pallets, building, and utility conditionsStandard engineering relationships apply
24,000 BPH 330 mL PET Water Combiblock LineDownstream PathBlow drying, coding, conveying, labeling, film wrapping/cartoning, palletizing, and tray flowThird-party specialized machines excluded
12

Frequently Asked Questions

How does a bottled water combiblock change empty-bottle transfer?

The system transfers formed bottles directly from the blowing section to the filling section through the defined transfer mechanism, reducing the need for long-distance empty-bottle transfer between separate machines.

How are upstream water supply fluctuations prevented from disrupting filling operations?

Product water storage tanks, supply pumps, and filler bowls maintain continuous liquid feed to stabilize fluid delivery and prevent upstream hydraulic fluctuations from entering the filling valves.

What control interlocks govern the combiblock operation?

Operation is governed by interlocks covering track preform fullness, blow molding temperatures, high-pressure air availability, no-bottle-no-fill/cap logic, filler bowl levels, and downstream line blockages.

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Call to Action

Send your bottle, preform, cap, target BPH, packaging route and plant-utility information to begin a combiblock project definition.

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