Granite Quarry Equipment List: The Complete Machine Fleet for 1,000 m³/Month Block Production
If you are budgeting a granite quarry, the first serious question is not which machine to buy — it is what the complete fleet looks like, and how many of each machine a real production target demands. This article publishes Set Makina’s reference equipment list for a granite quarry producing 1,000 m³ of blocks per month, drawn from our feasibility studies for new operations. Every unit on the list has a defined role, and the quantities are sized for continuous production, not for a brochure. Use it as the baseline for your own project — then adjust it to your deposit, your bench plan, and your target.
- A 1,000 m³/month granite quarry runs on roughly 25 principal machines and equipment groups: earthmoving, a drilling fleet, three sizes of wire saw, compressed air, power, and site infrastructure.
- The fleet is drilling-heavy by design: eight machine-mounted drilling units and ten hand-held rock drills carry the volume work in granite.
- Wire saws are sized by role, not by habit: 50–60 HP for primary cutting, 25 HP for secondary cutting, 15 HP for block squaring.
- Critical production machines appear in pairs — one machine down must never mean production down.
- Compressed air is the quarry’s artery: two 20–25 m³/min compressors feed the pneumatic fleet, and undersizing them is the most common planning error we correct.
01Start from the production target, not from the catalogue
A machine list only means something relative to a production target. One thousand cubic metres of commercial blocks per month is a realistic benchmark for a serious new granite operation — large enough to justify the investment, small enough to be managed by a single well-run site. Everything below is sized to that number: the drilling metres it implies, the cutting surface it implies, and the air and power that feed both.
The target also disciplines the method. As we showed in our cost comparison of drilling vs. cutting for granite extraction, hard granite is separated economically by a drilling fleet, with diamond wire machines assigned to the cuts where precision pays. Published comparative research on dimension stone mining reaches the same conclusion: controlled, well-planned extraction methods decide recovery, waste, and revenue. The list below is that principle translated into machines.
02The complete granite quarry equipment list (1,000 m³/month)
| Qty | Equipment | Role in production |
|---|---|---|
| Earthmoving & block handling | ||
| 1 | Loader, 30/35 t class | Block handling, loading, bench cleaning |
| 1 | Excavator, 35/40 t class | Overburden removal, block tipping, bench preparation |
| 1 | Heavy truck for excavation | Waste and overburden haulage |
| Drilling fleet — the production backbone | ||
| 2 | TIGERDRILL pneumatic column drill with DTH hammer | Large-diameter vertical holes for wire threading and deep separation lines, 25–30 m without deviation |
| 2 | TIGERLINE block cutting machine, vertical & horizontal (1 top-hammer rock drill each) | Line drilling of separation planes in both directions |
| 2 | TIGERLINE II block cutting machine, mainly vertical (2 top-hammer rock drills each) | High-output vertical line drilling for the main separation planes |
| 2 | TIGER HORDRILL horizontal driller | Horizontal holes for wire threading and bench undercutting lines |
| 10 | TIGER Y24 hand-held rock drills | Splitting holes, corrections, secondary division work across the site |
| 1 | 90 mm DTH hammer (spare) | Zero-downtime reserve for the column drills |
| 200 | Integral drill steels | Consumable stock for the hand-drill fleet |
| Diamond wire cutting fleet — sized by role | ||
| 2 | Diamond wire saw, 50 or 60 HP (e.g. TIGER GRANFILL) | Primary cuts: bench geometry and main free faces |
| 2 | Diamond wire saw, 25 HP (TIGER MINIFILL) | Secondary cutting: dividing primary volumes into blocks |
| 2 | Diamond wire saw, 15 HP (TIGER MICROFILL) | Block squaring to commercial dimensions |
| ~200 m | Diamond wire, specified for granite | Working stock across the three saw sizes |
| Air, power & site infrastructure | ||
| 2 | Compressors, 20–25 m³/min each | Air supply for the entire pneumatic fleet |
| 1 | Electric transformer station | Power for the wire saws and site systems |
| 4 | Containers | Workshop, spare parts store, office, crew facilities |
| — | Site services: water tank, hoses, beds, kitchen equipment, pick-up vehicle | Keeping a remote site running and a crew productive |
Read the pattern before the items: the list contains 18 drilling units (8 machine-mounted + 10 hand-held) against 6 wire saws — and the wire saws step down in power as the work gets finer. That ratio is not an accident; it is the cost structure of hard granite, expressed as a fleet.
03Why the fleet is built this way
Drilling carries the volume
In granite, the main separation planes are produced by disciplined line drilling — vertical planes by the TIGERLINE units and column drills, horizontal planes by the TIGER HORDRILL machines — then opened by controlled splitting. Drilling consumables tolerate granite’s hardness far better than diamond wire does, which is why the drilling fleet, not the wire fleet, is sized for daily production volume.
Wire saws are specialised by cut, not interchangeable
The three saw sizes are three different jobs. The 50–60 HP machines make the primary cuts that define bench geometry — long cuts that need sustained power and, critically, variable cutting speed in the 25–40 m/s range on a rail-type chassis. The 25 HP machines divide the freed volumes into blocks. The 15 HP machines square blocks to commercial dimensions — shorter, stationary cuts where a smaller drive earns its keep. Buying one large saw “for everything” means paying primary-cut power for squaring work, every day.
Everything critical comes in pairs
Two column drills, two of each TIGERLINE configuration, two horizontal drillers, two saws at every power level, two compressors, plus a spare DTH hammer. A quarry earns money only while rock is moving; a single point of failure anywhere in the chain stops the whole site. Redundancy on the critical path is not luxury — it is what makes a monthly target a commitment instead of a hope.
Air is the artery
Nearly the entire drilling fleet is pneumatic. Two compressors at 20–25 m³/min are sized to run the column drills, line-drilling machines, and hand drills concurrently — with margin for altitude, heat, and line losses. Undersized air is the most common bottleneck we find on underperforming sites: the drills are fine; they are simply starving.
04The “if necessary” list — and when it becomes necessary
The reference study closes with a short optional list: a hydraulic breaker, a ripper, and a block splitter for the excavator, plus two hydraulic block splitter sets. These are not padding. Each one answers a specific site condition:
- Hydraulic breaker — heavy overburden or waste too coarse for the bucket alone;
- Ripper — fractured or weathered cap rock that can be ripped instead of drilled;
- Excavator-mounted block splitter — mechanised splitting where manual wedging is too slow;
- Hydraulic block splitter sets — controlled division of freed volumes along drilled lines, the partner of the hand-drill fleet.
Whether they enter the initial purchase depends on the geological study of your deposit — which is precisely why a machine list should always be the output of a feasibility study, never its starting point.
05Scaling the list — and 4 decisions before you sign a purchase order
The list scales, but not linearly. At 500 m³/month, the pairs become singles only where the risk is acceptable — a site with one compressor is a site that stops when it does. Growing beyond 1,000 m³/month, the drilling fleet and air supply grow first, because they carry the volume; the wire fleet grows only when primary-cut length demands it. Before signing any purchase order, settle these four questions:
-
Has the deposit been studied — cores, quartz content, fracture pattern?
The geological study decides drill hole spacing, wire specification, and whether the optional equipment is optional. Machines bought before the study are guesses with invoices.
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Is the air supply sized for the whole fleet running together?
Add up the consumption of every pneumatic unit that works simultaneously, then add margin for heat, altitude, and hose losses. The compressor line on the budget is the easiest to cut and the most expensive place to have saved money.
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Are the wire saws specified for granite — not adapted from marble?
Rail-type chassis, inverter-driven variable speed, electronic tension control, and wire matched to your stone’s quartz content. A marble machine on granite consumes its price difference in diamond wire.
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Who supports the fleet after delivery — with what spare parts, from where?
A quarry in production cannot wait weeks for a hammer or a tension card. Buy the fleet from a manufacturer who stocks the consumables and answers the phone — and keep the spare DTH hammer on the shelf from day one.
06Frequently asked questions
What machines are needed for a granite quarry?
A production granite quarry needs four groups: earthmoving and handling (loader, excavator, truck), a drilling fleet (column drills, line-drilling machines, horizontal drillers, hand-held rock drills), diamond wire saws in three sizes (primary, secondary, squaring), and support systems — compressors, a transformer station, and site infrastructure. For 1,000 m³/month, the reference fleet totals roughly 25 principal items.
How many wire saws does a granite quarry need?
The reference plan uses six, in three sizes: two 50–60 HP machines for primary cuts, two 25 HP machines for secondary cutting, and two 15 HP machines for block squaring. Sizing by role costs less to run than one oversized machine doing everything.
What size compressor does a granite quarry need?
The reference fleet runs on two compressors of 20–25 m³/min each, sized so the pneumatic drilling fleet can work simultaneously with margin for heat, altitude, and line losses — and so that one compressor failing does not stop the site.
Can I start a granite quarry with fewer machines?
Yes — at lower production targets the list shrinks, but not evenly. The drilling fleet and air supply are protected first because they carry the volume, and removing redundancy from the critical path converts every breakdown into lost production. A feasibility study for your target and deposit should set the exact fleet.
Budgeting a granite quarry?
This list is the starting point — your deposit sets the final numbers. Send us your production target and stone data, and our engineering team will prepare a modular feasibility study: the exact fleet, consumables, air and power plan, and cost per cubic metre for your project.
Request a Feasibility StudyThis equipment list is Set Makina’s reference configuration for a granite quarry producing 1,000 m³ of blocks per month, drawn from feasibility work for new operations. Final fleet composition depends on the deposit’s geology, bench plan, climate, and logistics — always confirm with a site-specific feasibility study.
