INDUSTRY SOLUTION

Co-Packing & Contract Manufacturing Facilities — Engineered to Scale

DPS designs, builds, and automates high-throughput co-packing facilities and contract manufacturing plants for food and beverage producers across all 50 U.S. states and Canada. From process engineering and multi-format filling line integration through PLC/SCADA automation and SQF-ready infrastructure, we deliver turnkey co-man operations under a single Design-Build-Manage contract — so your facility hits rated capacity on schedule and stays there.

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DPS · Co-Packing & Contract Manufacturing Systems
Aseptic Beverage Processing
Industry Overview

Helping Manufacturers Navigate Operational Complexity

The co-packing and contract manufacturing sector is one of the fastest-expanding segments in U.S. food and beverage production. The global food contract manufacturing market was valued at approximately $404 billion in 2025 and is projected to grow to $692 billion by 2034 at a 6.22% CAGR. The beverages segment commands the largest share of this market, driven by high-volume production, frequent new product launches, and standardized processes. For facility owners — whether launching a greenfield beverage co-packing operation or expanding an existing food contract packaging plant — the economics are compelling but the engineering is unforgiving. A co-man facility that cannot execute rapid changeovers between client SKUs, maintain SQF/BRC audit readiness across simultaneous production runs, or scale filling capacity without gutting existing utility infrastructure will hemorrhage margin on every case it ships.

What separates profitable co-packing operations from those trapped in chronic underutilization is whether the facility was engineered as a multi-client, multi-format production system from Day One — or retrofitted from a single-product plant that was never designed for the changeover frequency, sanitation complexity, and scheduling volatility that contract manufacturing demands. Embedded flavor and compliance teams shifted $280 million of development spend to co-packers in 2025, while Texas and Southeast plants logged 30–40% surges in SKU counts per client, forcing investment in modular tooling to minimize allergen cross-contact risks. Every co-packing facility DPS engineers is designed around the operational reality that your client roster, product mix, and volume requirements will change — and the plant must absorb those changes without capital-intensive line rebuilds.

$404B
Global food contract manufacturing market value in 2025, with beverages commanding the largest segment share and North America leading regional demand
~15%
Share of total U.S. beverage production (excluding dairy) that is contract packed — over 3.3 billion 288-ounce cases annually, spanning carbonated soft drinks, RTD teas, juices, functional beverages, and craft beer
3,000+
New beverage products created annually in the United States, driving sustained demand for flexible co-packing capacity and multi-format filling infrastructure
68%
Percentage of U.S. beverage companies expecting moderate to significant increases in packaging machinery investment over the next two to three years, according to PMMI’s 2025 industry research
Key Deliverables

What We Deliver to Manufacturers

Practical engineering solutions designed to improve efficiency, scalability, and operational performance.

  • 1

    Multi-Format Filling Line Design & Integration

    DPS engineers co-packing facilities to handle the format diversity contract manufacturing demands — hot fill, cold fill, aseptic, carbonation, HPP-ready, and nitrogen dosing — across PET, glass, aluminum can, pouch, and carton packaging on shared or dedicated lines. We design changeover sequences, filler-to-packer transitions, and container-handling systems so your facility switches between client SKUs in minutes, not hours, without compromising fill accuracy or food safety protocols.
  • 2

    Upstream Process & Batching Systems for Multi-Client Production

    DPS designs ingredient receiving, blending, high-shear mixing, pasteurization (HTST/UHT/tunnel/flash), and batch preparation infrastructure sized for the throughput diversity a co-man facility requires — handling everything from carbonated RTDs and functional juices to sauces, dairy, and protein beverages across a single production schedule. We engineer recipe-driven PLC automation with allergen-segregation logic so operators manage multi-client batch sequences from the HMI without manual cross-contamination risk.
  • 3

    CIP Architecture for High-Changeover Environments

    DPS designs multi-circuit CIP systems specifically for the sanitation intensity co-packing demands — where a dairy protein shake, a carbonated fruit beverage, and an allergen-containing sauce might run on the same line in a single shift. We size CIP supply, recovery, chemical dosing, and rinse verification systems to complete validated changeover sanitation within your production scheduling windows, not around them.
  • 4

    Automation, Batch Records & Multi-Client Traceability

    DPS programs PLC/SCADA systems that manage recipe selection, batch sequencing, lot-level traceability, CIP scheduling, and electronic production records across every client running on your lines — giving each brand owner the documentation, yield data, and regulatory traceability (FDA, USDA, SQF, BRC) their compliance teams require without manual logbook transcription between production runs.
  • 5

    Phased Expansion & Utility Infrastructure

    DPS engineers co-packing facilities with Phase 2 and Phase 3 capacity pre-designed into Day One utility infrastructure — steam boilers, compressed air, glycol/chilled water, process water, wastewater, refrigeration, and electrical distribution — so adding a second filling line, a new processing technology, or doubling case output does not trigger a mechanical shutdown and six-figure utility rebuild. We fabricate key process vessels (up to 12,000 gallons), CIP skids, and batch tanks in-house, controlling critical-path lead times that external procurement typically delays by 8–14 weeks.
DPS vs Traditional

Integrated Delivery vs Traditional Execution

When co-packing and contract manufacturing facility projects are split across a standalone process engineer, separate equipment OEMs for filling, batching, and pasteurization, an independent controls integrator, and a general contractor with no food-safety facility experience, accountability fractures at every system boundary — and the resulting plant underperforms from commissioning day forward.

Dimension DPS Integrated Approach Fragmented / Traditional Model
Multi-Format Line Design Filling, pasteurization, batching, and packaging lines engineered as a coordinated throughput system — validated for changeover speed, format range, and simultaneous multi-client scheduling before equipment procurement Filler, packer, labeler, and palletizer purchased from four OEMs with no validated changeover time or throughput match — discovering during commissioning that switching between can and PET formats requires 90+ minutes of manual adjustment
CIP for Contract Manufacturing Multi-circuit CIP designed for the allergen complexity and changeover frequency co-packing demands — validated chemical sequences, temperature profiles, and automated rinse verification integrated into the production schedule Single-circuit CIP not designed for multi-client allergen transitions; changeovers require extended manual cleaning that consumes 2–4 hours per product switch and generates inconsistent audit documentation for each brand owner
Utility Sizing for Multi-Line Ops Steam, compressed air, glycol, process water, and electrical systems sized for simultaneous peak demand across all filling lines, CIP, and upstream processing — with Phase 2 expansion capacity pre-engineered into Day One infrastructure Utilities sized for a single line; running CIP during production, adding a second filler, or onboarding a high-volume client triggers boiler, chiller, and electrical upgrades requiring mechanical shutdown and six-figure capital outlays
Multi-Client Traceability PLC/SCADA automation manages recipe selection, batch records, lot-level traceability, and electronic production documentation for every client — each brand owner receives audit-ready data without manual transcription Manual logbooks and disconnected data systems across batching, filling, and packaging — generating inconsistent traceability records that fail SQF/BRC audit scrutiny and create liability exposure across multiple brand owner accounts
Scalable Facility Architecture Facility layout, structural loading, floor drains, utility routing, and dock capacity designed for phased growth — adding a line or process technology requires connecting to pre-engineered infrastructure, not redesigning the plant Facility designed for Day One footprint only; every expansion triggers structural analysis, utility re-routing, floor cutting, and production downtime measured in weeks, not days
Single-Point Accountability One Design-Build-Manage contract from feasibility through commissioning — DPS owns the schedule, coordinates all trades via a vetted national contractor network, and is accountable for the integrated co-packing outcome across all 50 states 5–8 separate contracts with no single party responsible when the filler doesn’t match the upstream batching rate, the CIP can’t handle allergen transitions, or the utility plant lacks capacity for simultaneous multi-line production
Project Verification Questions

Common Questions About Co-Packing & Contract Manufacturing

DPS co-packing and contract manufacturing facility projects range from approximately $400K for targeted expansions — adding a filling line, upgrading automation and batch records, integrating CIP for multi-client allergen changeovers — up to $5M+ for comprehensive greenfield co-man facilities with multiple filling technologies, upstream batching and pasteurization, and plant-wide PLC/SCADA traceability. Every engagement begins with a capital feasibility study that models your investment against projected client volume, product mix, and per-case margin structure so the facility is sized for profitability, not just capacity.
Co-packing facilities face compounded regulatory exposure because every client’s products must meet FDA, USDA (where applicable), and third-party audit standards (SQF, BRC, HACCP) under your facility registration — not theirs. DPS designs allergen control zones, sanitation circuits, air handling, and process flow separation with these multi-client compliance requirements embedded from the engineering phase. Our automation systems generate the electronic batch records, CIP verification logs, and lot-level traceability documentation that auditors and brand owners expect — without relying on manual logbooks that introduce transcription errors across dozens of simultaneous SKUs.
Yes, and this is where integrated engineering eliminates the coordination failures that fragment most dual-capability projects. Food and beverage co-packing share upstream infrastructure — ingredient batching, blending, CIP, utilities — but diverge at the filling, thermal processing, and packaging stages. DPS designs the shared and dedicated zones as a unified system, with PLC automation managing product routing, CIP sequencing, allergen segregation, and scheduling across food and beverage lines simultaneously. The result is higher asset utilization and lower per-case overhead than operating separate single-purpose plants.
Targeted expansions — adding a filling line, upgrading controls and traceability, integrating CIP for new product categories — typically run 4–8 months from engineering kickoff to commissioning. Complete greenfield co-packing facilities run 10–18 months depending on scale, number of filling technologies, and long-lead equipment procurement. Because DPS fabricates process vessels up to 12,000 gallons, CIP skids, and batch tanks in-house, we control critical-path lead times that external-only procurement typically extends by 8–14 weeks.
This is exactly the assessment DPS conducts before recommending a capital project. In many co-packing facilities, the real constraint is not filling-line speed — it is CIP cycle duration between client changeovers, upstream batching that cannot keep the filler fed during multi-product schedules, utility systems that cannot support simultaneous line operation and sanitation, or downstream case-packing and palletizing bottlenecks. DPS performs a detailed capacity and throughput analysis before proposing any buildout scope. If a PLC scheduling optimization, CIP re-sequencing, or utility rebalancing unlocks the capacity you need without a major capital project, we will recommend that path first — and we have done exactly that for clients who then came back when genuine expansion was warranted.