It is the first question in almost every conversation, and the one that cannot honestly be answered with a figure. Two plants with the same catalogue capacity can differ in price by a wide margin, and that is not a sales evasion: the gap is made of measurable line items. Mixer type, bin design, weighing accuracy, silo count, climate package, automation level, scope of erection — each carries its own cost and its own effect on your cost per cubic metre.
Until two quotations describe the same scope, comparing their totals tells you nothing. What follows is the anatomy of the budget, so you can come to the price conversation with your own requirement list.
Capacity is the biggest single price driver, but the number to plan around is not the catalogue m³/h — it is effective output under your own conditions. A catalogue rating assumes an ideal cycle: dry aggregates, nominal mixing time, uninterrupted feeding, a truck always waiting under the discharge chute.
Real cycles run longer: wet aggregates extend batching, stiff mixes need longer mixing, recipe changes cost time, trucks arrive in waves. A plant sized to exactly match calculated demand runs at its limit in peak season, and every delay becomes concrete you could not deliver. Headroom costs more on day one but buys shorter shifts and less wear per cubic metre; how much is reasonable follows from your delivery schedule.
The mixer is the heart of the plant, one of its most expensive components, and the choice sets both the purchase price and the range of concrete you can produce consistently.
There is also the option of no mixer at all. In a dry batch plant the components are weighed straight into the truck mixer, which mixes in transit: that removes the most expensive component and lowers installed power, but shifts mixing quality onto the truck fleet and narrows what you can produce.
The aggregate section looks like simple steelwork, yet it hides much of the price difference between offers. Compartment count is dictated by your recipe portfolio. Three concrete classes on two stone fractions and one sand is one situation; road concrete, hydraulic mixes and precast on different sands and stone sizes need more compartments, which goes straight into the budget. Feeding moves both capital and running cost: a separate belt under each compartment batches faster and keeps materials cleanly separated, at a higher price, while a skip hoist is cheaper but slower per cycle, which quietly caps real hourly output.
The batching system determines how stable your concrete class will be, and it has its own cost scale: separate scales per component or one shared per group; the accuracy class of the load cells; volumetric or gravimetric dosing of admixtures; the number of admixture channels; and whether a moisture probe in the sand bin corrects the water automatically.
The moisture probe is the classic item that reads as an optional extra and pays for itself in quality: sand from an open stockpile after rain carries water nobody measures accurately by hand, and without correction you either exceed the water-cement ratio and lose strength, or over-dose cement as insurance and pay for it every shift.
Accuracy is also maintained, not only bought: load cells drift, and a scale that reads correctly at commissioning will not stay correct without a schedule. Build calibration into the operating plan from the start.
The number and volume of cement silos is regularly underestimated. One silo means one binder; two cement grades, or slag, or fly ash mean separate silos, screw conveyors and weighing. Volume is set by supply logistics: the less frequently you want to receive bulk tankers, the more storage you buy.
The package also includes items the plant will not run correctly without: filters, aeration against bridging, level indicators, and the silo safety system — pressure relief and overpressure protection that prevent damage during tanker discharge. It is not an accessory to trim from a quotation. See cement silos.
The dust filter on the mixing tower is a separate, location-dependent item: in built-up areas the cost of dust suppression and enclosed transfer points rises, while on an industrial site requirements are usually lighter.
Ambient conditions change the configuration more than most buyers expect, and a retrofit after start-up always costs more than the same package specified in the original design, because it adds downtime and re-erection to the hardware.
In cold climates, year-round production usually means water heating, aggregate heating with steam or hot air, insulated bins and pipework, a heated mixing tower and operator cabin, and heat tracing on admixture lines.
In hot climates the problem is the opposite and equally real: fresh concrete temperature at discharge. The tools are chilled mixing water, flake ice dosing, chiller units, insulated and shaded water tanks and stockpiles. Each step adds capital cost and installed power, and the choice follows the maximum concrete temperature specified for the works, so fix that figure and the ambient extremes first and let the equipment follow.
The range runs from semi-automatic control to a fully automatic system with a recipe database, dispatch and delivery-note management, batch reports per load, ERP integration and remote diagnostics.
A higher level earns its cost where there are many recipes, high volumes and strict documentary proof of quality — typical for road works and publicly funded projects, where the batch record is part of the deliverable. For a small site with two or three recipes it can exceed what the operation needs. What is rarely worth cutting is traceability: showing, months later, what went into a given load. See the concrete batching plant automation page.
These are not in the catalogue price, but they are in your budget, and each should be a separate contract line.
How long the plant stays in one place affects all four lines: a permanent installation justifies heavier foundations and a fixed layout that a relocatable one does not — see what is a stationary concrete plant.
The purchase price is only the first instalment. Cost per cubic metre is formed by other items, and after a few years those decide whether the purchase was a good one.
Convert each configuration into a cost per cubic metre over a realistic annual volume. That number changes rankings more often than the purchase price does.
We do not publish a price list, because configuration moves the total too much for an averaged figure to mean anything. A proposal is prepared against your inputs, and the calculation needs:
Send that list to two or three suppliers and the offers become comparable; send only a capacity figure and they never will be.
MEKA has been designing and building concrete batching plants and crushing and screening equipment since 1987, and serves customers in more than 110 countries. Annual design and production capacity stands at 250 concrete batching plants and 150 crushing and screening plants — a capacity figure, which is what determines how quickly a project enters the programme. Standard models are part of the series production programme, so dispatch can take place within a week of order confirmation; non-standard configurations are planned separately.
Technical questions — layout, capacity, foundation loads, power, dosing — are resolved directly with the manufacturer's own engineers rather than through a chain of resellers. Engineering, production and commissioning sit under one roof, which is the practical reason MEKA is counted among the leading manufacturers not only in Türkiye but also in Europe. Background on the why MEKA page, the full range on the concrete batching plants page.
If you are planning a project in these markets, MEKA maintains dedicated pages for Libya and Iraq.
When you are ready to put numbers against a configuration, send your requirement list through the contact form and our engineers will prepare a technical and commercial proposal.