Pallet pooling or your own system? The cost of 4 models for a company running 50,000 cycles a month

Key takeaways

• There are four basic models for managing transport load carriers (returnable packaging, RTP): purchase with an in-house loop (your own pool), pooling with an operator, rental or leasing of a dedicated fleet, and the exchange system. What separates them above all is who owns the load carrier and who manages its circulation.
• Pallet pooling transfers ownership and management (delivery, washing, repairs, rotation) to the operator; the company pays for use instead of investing in a fleet, which makes it a load-carrier-as-a-service model (opex instead of capex).
• Total cost of ownership (TCO) is not the price of the load carrier. It is made up of capex and the cost of capital, charges for use or rental, washing, reverse logistics, losses and damage (shrinkage), record-keeping, repairs and replacement of the fleet once it wears out – less the savings on single-use packaging and the reduction in product damage. RTP is not a buy-once-and-forget purchase.
• Scale (50,000 cycles a month, say) tips the balance but does not settle it. Whether an in-house pool pays off is decided above all by rotation and the redemption rate, by how repeatable the routes are and by how closed the loop is, not by the number of cycles on its own.
• PPWR (Article 29) makes this choice a compliance question too: from 2030 at least 40% of transport packaging within re-use systems (from 1 January 2040 – an aim of 70%), and in controlled loops – full reusability within a re-use system from 2030. Whatever the model, the load carrier has to work inside a genuine re-use system.

What pallet pooling is – and why it is a decision today, not a detail

Pallet pooling (more broadly, the pooling of returnable packaging) is a model in which a specialist operator owns a pool of load carriers and rents them to users, then collects them after use, inspects them, repairs them and puts them back into circulation. The user does not buy the pallets but pays for using them, usually per cycle or per period, and fleet management stays with the operator. In short, the load carrier becomes a service rather than a fixed asset. We say more about the model itself on our pooling page. For decades the choice between pooling and owning load carriers was an operational and financial one: some preferred not to tie up capital in a fleet and to outsource its handling, while others, on repeatable routes, came out cheaper with an in-house loop. From 12 August 2026 a third dimension is added, PPWR compliance. Regulation (EU) 2025/40 requires the re-use of transport packaging (Article 29), so the way you manage load carriers stops being purely a question of cost and becomes a question of whether, and how, you can demonstrate re-use. Let us say this plainly at the outset, to avoid any misunderstanding: bekuplast is not a pooling operator. We have been a manufacturer of reusable transport packaging (RTP) since 1985; we describe pooling as a real market context and one of the options a customer weighs up, not as a service we are selling here. That is why we deliberately neither name operators nor compare them.

The four models for managing load carriers

The market comes down to four models. They differ along three dimensions: who owns the load carrier, who manages its circulation (washing, repairs, rotation) and how the cost is spread over time.1. Purchase with an in-house loop (your own pool). You buy the load carriers and they become your asset, and your responsibility. You handle washing, repairs, record-keeping and reverse logistics yourself. The initial cost is high (capex), but with large, repeatable rotation the unit cost per cycle is the lowest available. Full control over specification and availability; full exposure to losses and shortfalls. Best for closed, repeatable loops with a high redemption rate. 2. Pooling with an operator. The operator owns the pool and is responsible for delivery, washing, repairs and rotation; you pay for use. No large capex and no fleet to manage; a predictable unit cost and flexibility when volumes vary. In return, a charge falls due with every use and you have less control over specification. Best for one-way, seasonal or dispersed flows, where an in-house loop is hard to close. 3. Rental or leasing of a dedicated fleet. A hybrid: the load carriers belong to the lessor (no capex), but circulation, often including washing and reverse logistics, is managed by you. Renting pallets or containers is settled through rent or a subscription rather than a one-off purchase. It lets you match the fleet to a contract without tying up capital, but it shifts part of the operational burden of the in-house model onto you. 4. The exchange system (“pallet for pallet”). On delivery the recipient hands back as many empty load carriers as they received, or is left “in the red”. The cost of entry is low, and so is the reputation: disputes on the loading dock, new load carriers swapped for worn ones (a quiet erosion of fleet quality) and pallets that “go missing”, which in an open system is a direct loss. It works best in stable, trusted commercial relationships and with standard load carriers. In practice the mixed model increasingly wins: an in-house loop for fixed, closed routes with a high return rate, and pooling for one-way flows or seasonal peaks. A pure all-or-nothing choice is rarely the optimum.

What the cost is really made of – the anatomy of TCO

The commonest mistake when models are compared is confusing the price of the load carrier with its cost. The price is one line; TCO (total cost of ownership) is the whole bill across the entire life of the carrier. It is made up of at least the following:

• Capital: the purchase price (capex) and the cost of tied-up capital – or, in pooling and rental, the charge for use or the rent (opex). This is the main axis that separates the models.
• Washing and inspection: industrial cleaning (water, chemicals, energy) is a recurring operating cost, particularly where there is contact with food.
• Reverse logistics: transporting empty load carriers back. What counts here is the collapsing and nesting ratio: the smaller the volume an empty carrier occupies, the cheaper the return leg. Collapsible carriers cut the volume carried on the return leg by up to about 80% (per bekuplast public product data).
• Losses and damage (shrinkage): load carriers go missing, are appropriated or are destroyed. In open models that is a direct loss of capital; in an in-house pool it forces reinvestment.
• Record-keeping and tracking: a register of circulation, balances with partners, marking (codes, RFID) – the precondition for closing any re-use system and, in time, for reporting.
• Repairs and maintenance, plus depreciation spread over the number of cycles.
• Fleet replacement: load carriers wear out and go missing, so after several or a dozen-odd years the pool has to be rebuilt. This is a real, recurring component of the cost rather than a one-off outlay – RTP is not a buy-once-and-forget purchase.
• Extended producer responsibility (EPR) fee: it falls mainly on the single-use route and is sometimes used as an argument for re-use, but with care – the EPR legal framework is confirmed, whereas the rates in PLN/kg and their escalation are an assumption or a forecast, not a regulatory fact.

On the benefit side, TCO also takes in what single-use cannot give: less single-use packaging consumed, less product damage, fewer “touches” of cardboard and lower disposal costs. The quiet hero of the whole calculation is rotation and the redemption rate: the more cycles a load carrier completes and the more reliably it comes back, the lower the cost per single cycle, and the sooner an in-house pool starts to beat models built on a charge for use. For the record: durable RTP load carriers achieve up to 120 re-use cycles over a service life of 7–12 years (for RPC-type crates – per Reusable Packaging Europe, 2022 factsheet).

Why a scale of 50,000 cycles a month tips the balance – but does not settle it

Scale works in favour of ownership: the more cycles, the better capex is amortised and the more a recurring charge for use hurts. Hence the popular claim that above a certain volume the in-house pool always wins. That simplification hides a trap. Scale is not the same as the nature of the process. The same 50,000 cycles a month can describe two entirely different realities: a dense, closed loop between two plants with almost complete return, or dispersed distribution to hundreds of points from which load carriers come back slowly and unpredictably. In the first case an in-house loop can be markedly cheaper; in the second, the cost of reverse logistics, losses and record-keeping can swallow the whole advantage, and pooling is often the more sensible option. The outcome is decided by the process – rotation, the redemption rate, how repeatable the routes are, how closed the loop is – and the number of cycles is only one of the inputs. That is why this article gives no single magic threshold. Anyone promising a universal break-even cycle count that holds regardless of the process is selling a simplification. The part that can be calculated honestly we give as a direction of travel: the verified bekuplast model shows from which year an in-house RTP loop becomes cheaper than single-use packaging, with no payback in months, no ROI percentage and no headline about saving X. The choice between management models (your own pool, pooling, rental, exchange) is a comparison of cost structures, and pooling, as market context, stays outside our calculator.

How Article 29 PPWR changes this calculation

Until recently the choice of model was a question of cost. From 12 August 2026 compliance is added. Article 29 PPWR sets re-use targets for transport packaging: at least 40% from 1 January 2030, and from 1 January 2040 – an aim of 70% (this is the wording the regulation uses), while in controlled loops – full reusability within a re-use system from 2030 (between the sites of one company, within a group of linked or partner enterprises, and on supplies to another economic operator in the same Member State). Pallets are transport packaging and fall under this regime; so do pallet wraps and straps, although the first delegated act under PPWR – Commission Delegated Decision (EU) 2026/429 of 25 February 2026, in force since 26 May 2026 – excluded them from the requirement that applies in closed loops, while keeping the 40% target. We unpack Article 29 in detail in a separate article on transport packaging. What does that mean for the choice of model? First, each of the four models has to work as a genuine re-use system – buying more durable pallets is not enough; what counts is circulation, washing, record-keeping and returns. Second, the full reusability requirement in Article 29(2) and (3) covers controlled loops – short, domestic, within-company – precisely those in which an in-house loop is often the most efficient. The provision itself does not require the loop to be closed: it requires a re-use system, and that system may run as a closed loop system (with no change in the ownership of the packaging) or as an open loop system (with a change of owner). Annex VI defines both variants. The distinction matters in practice here, because pooling usually works as a closed loop system, in which the operator manages the pool and the owner of the load carrier does not change. Third, the obligations under Article 29 rest on economic operators using transport packaging, including where the load carriers come from an operator’s pool. Exactly how to count those cycles towards your own target will be set out in the calculation methodology that the Commission is to adopt by 30 June 2027, and the obligation to demonstrate the targets starts on 1 January 2030 or 18 months after that methodology enters into force, whichever is later. So it is worth agreeing with the operator, at the point of choosing the model, how circulation will be recorded and reported. We bring the full map of obligations, deadlines and tools together in our PPWR knowledge hub.

An illustrative scenario (not a client case). A company running 50,000 cycles a month operates two types of flow: a closed loop between its own production plant and a regional distribution centre (high, predictable return) and one-way deliveries to dispersed recipients (low, slow return). The same company can have two different optima at once: an in-house pool for the closed loop and pooling for the one-way part. That is why we compare the “4 models” as variants of one decision rather than as a contest for a single winner. We describe similar set-ups more fully in our solutions for industrial manufacturing and logistics and transport.

What this calculation does not cover – and why that is honest

The title promises “the cost of 4 models for a company running 50,000 cycles a month”, and we have set out the anatomy of that cost above – but we do it on a verified model, not by eye. The verified bekuplast model calculates one thing concretely: the directional break-even point between single-use packaging and RTP over a horizon of several to a dozen-odd years, that is, from which year an in-house RTP loop is cheaper. It does not calculate a ranking of the four models and does not cover pooling (bekuplast is not a pooling operator), so we describe the cost of pooling structurally, as market context, not as a figure of ours. Open TCO comparisons online usually rest on assumptions that suit their author; we show figures that will withstand scrutiny. There are three concrete reasons for that caution. First, the prices of load carriers and of their handling are volatile today – a figure quoted without a date loses its validity quickly. Second, the extended producer responsibility (EPR) fee: the legal framework is confirmed, but the rates in PLN/kg and their escalation remain an assumption or a forecast (the Polish system has no final act), which is why we do not present EPR multipliers or amounts as a regulatory fact. Third, most companies do not know their own data well (their real redemption rate, the cost of washing, actual losses), and without those any result is illusory. So we hold to the rule that RTP is an investment, not an automatic saving, and we give the result as a direction of travel (break-even from about year X), never as a payback in months, an ROI percentage or a headline about saving X. The calculation methodology, every formula in the open, is shown in our article on the RTP TCO calculator. Environmental costs (CO₂), recyclate and PFAS are separate content topics, not part of this TCO calculation.

What the verified model calculates – and what that means for the four models

The bekuplast TCO model compares two cost paths over one horizon: single-use packaging, bought afresh every year, and a returnable load carrier, bought once and then maintained. It looks for the point at which the cumulative costs of the two paths meet. The full set of formulas is shown openly in our article on the RTP TCO calculator; what interests us here is what that mechanism implies for the choice of a load carrier management model.

The single-use curve is linear, and that is the heart of it. It rises by the same amount every year, because every year you buy the full volume again and every year you pay the environmental charge on it. There is no point at which the cost stops growing.

The RTP curve has a step and then a flat plateau. Year one is the purchase of the fleet plus a buffer for carriers in transit, in the wash bay and under repair. The years that follow are maintenance only: washing, return transport and – the item that is easiest to forget – replacement of fleet losses. In the model that is a cost recurring every year, not a one-off write-down. It is why RTP is never bought once and for all.

The intersection of the two curves is the break-even point, and that is the form in which we give the result: RTP cheaper from about year X or, where annual fleet maintenance exceeds the annual purchase of single-use packaging, plainly that within this horizon the curves do not meet. We deliberately do not convert that into an amount saved, an ROI percentage or a payback in months.

What this changes in the choice between the four models. The model calculates the relation between single-use packaging and a returnable load carrier, not a ranking of four ways of managing a fleet, and it does not pretend otherwise. But the three parameters that move its result most are exactly the ones that separate our four models:

• Loss of load carriers per circuit enters the calculation multiplied by the number of circuits in a year, so it works as a lever. It is the numerical counterpart of what we called above how closed the loop is, and the main reason why, with dispersed flows, an in-house pool performs worse than an operator who takes the risk of loss on themselves in the price per cycle.
• The price of the load carrier raises the starting point of the RTP curve and so shifts the intersection to the right. In the in-house pool model it burdens your capex; in pooling and rental it is spread through the charge for use, which does not mean it disappears, only that it changes place in the bill.
• The number of circuits in a year works in two directions at once: it shortens the return on the fleet purchase but at the same time increases the annual replacement of losses. On repeatable routes the first effect wins, which is why closed loops close fastest.

What the calculation leaves out, deliberately. Outside the TCO result we leave pooling as a business model (it is the context of this article, not a cost line in the comparison), CO₂ emissions, recyclate content and compliance with the PFAS restrictions. Each of these has its own methodology, and folding them into a single figure would make that figure indefensible.

A caveat on EPR rates. The level of the fee is an assumption in the model, not a regulatory fact – the Polish implementing act has not been adopted. The rate affects the slope of the single-use curve and therefore the break-even point directly. In the calculator it stays an editable parameter: you can substitute your own assumption and see how far it moves the result.

FAQ

What is pallet pooling? It is a load carrier management model in which an operator owns a pool of pallets and rents them to users, then collects them after use, repairs them and puts them back into circulation. You pay for using the load carrier rather than for buying it, and the fleet and its handling stay with the operator.

Pallet pooling or your own pool – which works out cheaper? It depends on the process, not on scale alone. With variable, one-way or dispersed flows, pooling usually wins on simplicity and the absence of capex; with a large, repeatable, closed loop and a high redemption rate an in-house loop tends to be cheaper per cycle. The verified bekuplast model shows this as a direction of travel, from which year an in-house RTP loop becomes cheaper than single-use packaging; pooling itself we do not calculate in the calculator (bekuplast is not a pooling operator).

Is bekuplast a pooling operator? No. bekuplast manufactures reusable transport packaging (RTP). We describe pooling as market context and one of the customer’s options, not as a service we offer, which is why we neither point to operators nor compare them.

How does PPWR affect the choice of model? Article 29 PPWR sets re-use targets for transport packaging: at least 40% from 2030 (with an aim of 70% from 1 January 2040), and in within-company loops and on supplies to another economic operator in the same country, full reusability from 2030. Whatever the model, the load carrier has to circulate within a genuine re-use system; the provision itself does not settle whether that system is to be closed or open.

What is a pallet exchange system? It is the “pallet for pallet” model: the recipient hands back as many empty load carriers as they received. Cheap to enter, but prone to disputes on the loading dock, an erosion of fleet quality and losses. It works best in stable, trusted relationships.

What decides the moment when an in-house pool becomes cheaper? Above all rotation and the redemption rate, how repeatable the routes are and how closed the loop is, rather than one universal cycle count. You also have to allow for the cost of replacing the fleet once it wears out (RTP is not bought once and for all). That is why we give the result as a direction of travel, from about year X, and not as a payback in months.