Apple juice concentrate (AJC) looks like a “simple” ingredient until you manage it as a category: it’s campaign-produced, inventory-led, and quality risk is amplified by concentration. This guide maps the physical flow and shows where cost and continuity risk are structurally created—so procurement can negotiate and govern what actually moves outcomes.
Apple juice concentrate (AJC, typically ~70–72°Bx) is a seasonal, campaign-manufactured ingredient: most of the year you’re consuming inventory produced in a short post-harvest window, not “making to order.” The physical chain is simple on paper— apples → juice → concentrate → drums → containers—but the economics are set by three hard constraints: (1) processing-grade apple availability versus the fresh market, (2) plant capacity utilization during a narrow harvest window, and (3) energy-intensive evaporation plus aseptic packaging.
AJC is a “short-campaign, long-consumption” supply chain—processing and concentration happen in a tight seasonal window, while buyers draw down stock over many months.
Commercial AJC is commonly specified and traded around 70–72°Bx and shipped aseptically in bag-in-drum formats; many commercial references cite ~260 kg net per drum (and it’s common to see ~250–275 kg depending on pack and density).
Your landed cost and continuity exposure are structurally shaped by harvest-time fruit solids/yield, evaporation energy, and packaging + container logistics—costs that are difficult to “optimize away” downstream once concentrate is produced.

AJC costs accumulate in predictable “physics-based” places—fruit solids/yield upstream, energy in evaporation, and packaging + container logistics at shipment.
U.S. customs brix tables list unconcentrated natural apple juice at ~13.3°Bx; moving to ~70°Bx implies roughly a ~5–6x concentration factor (before you account for process losses and spec targets).
Small changes in fruit solids, evaporation efficiency, and packaging density can move the cost-per-ton of concentrate more than many downstream handling optimizations.
These ratios are structural/typical—not a quote. They help teams see where costs are “physically created.”
| Supply Chain Node | Cost Ratio (% of Final Landed Cost) | Notes |
|---|---|---|
| Upstream apples (processing-grade fruit) | 35% | Driven by fruit solids/yield and harvest availability. |
| Primary processing (pressing/clarification) | 10% | Enzymes, filtration, yield loss into pomace/fines. |
| Secondary processing (evaporation + aroma handling) | 20% | Energy + plant utilization during campaign. |
| Packaging & QA (aseptic bags/drums + testing) | 12% | High-barrier packaging, sterile filling, verification. |
| Logistics & distribution (inland + ocean + warehousing) | 18% | Container freight, port handling, inventory carrying. |
| Processor/exporter margin | 5% | Varies by integration and market tightness. |

| Supply Chain Node | Cost Ratio (% of Final Landed Cost) | Notes |
|---|---|---|
| Upstream apples | 33% | Similar fruit economics to aseptic. |
| Primary processing | 10% | Similar extraction/clarification requirements. |
| Secondary processing | 18% | Evaporation energy still central. |
| Packaging & QA | 10% | Packaging differs; integrity and testing still critical. |
| Cold-chain logistics + frozen storage | 24% | Freezing energy + reefer transport/storage adds structural cost. |
| Processor/exporter margin | 5% | Typically stable unless capacity is constrained. |
| Supply Chain Node | Cost Ratio (% of Final Cost at Juice Plant Gate) | Notes |
|---|---|---|
| Concentrate input (AJC) | 55% | Dominant cost driver; determined upstream. |
| Water + blending/standardization | 8% | Water treatment, brix/acid adjustments, blending losses. |
| Pasteurization/processing | 10% | Thermal processing + utilities. |
| Packaging (consumer or foodservice pack) | 20% | Often the largest incremental cost vs bulk concentrate. |
| Plant margin/overheads | 7% | Site-dependent. |
Three non-obvious realities repeatedly shape AJC availability, quality workload, and landed cost—regardless of which origin you buy from.
Two of these constants are anchored in U.S. regulatory/standards reality: (1) brix definitions/specification frameworks for apple juice/concentrate trade, and (2) contamination controls (e.g., patulin) that apply to apple juice and concentrates.
These are not market “events.” They are structural constraints that determine how much risk and cost you must carry in specs, QA capacity, and inventory design.
(Analyzed at: May, 2026)
In the current market, China is reported to be carrying surplus AJC stocks even after weather-related production losses, which tends to cap spot price upside but increases the risk of “commercially motivated” lot variability if you buy opportunistically without governance. Lock in a two-origin portfolio (e.g., keep your incumbent origin but qualify a second plant/origin for 20–30% of volume) and write receipt terms that force lot-level traceability plus patulin compliance on a reconstituted single-strength basis. It works because the biggest cost-and-risk creation points (yield, evaporation control, aseptic integrity) are fixed upstream, and your only real leverage downstream is acceptance criteria and the ability to switch volume quickly. Teams that wait until a disruption typically pay a mid-to-high single-digit premium in expedited freight, rework, or claims—often more than the price gap they were trying to save.