Across the commercial cutting-machine class published on DirectIndustry, oxy-fuel cutting torches ship as a standard process option on bridge, gantry, and portable CNC tables — Lincoln Electric Deutschland's EUROTOME 2 lists 1–4 oxy-fuel torches under "OXY Essential" control alongside a FLEXCUT 125 CE or NERTAJETHPi plasma module on the same HPC 2 numerical control [S1].
Working envelopes on these machines span 1,200 × 2,000 mm (Shandong Jiaxin CNC series) up to 1,500 × 15,000 mm (ARCBRO Scout 1313), with cutting-speed ceilings of 2,500 mm/min (Jiaxin) and 6 m/s (ARCBRO), and a 19-inch touchscreen CNC on the EUROTOME 2 [S1][S2][S3]. The wider consequence is that an oxy-fuel torch is rarely a standalone buy — it is one process head on a multi-process table, and its TCO must be modelled against the host machine's depreciation, control, and table life.
Where the money actually goes: the 10-year cost stack
On a multi-process CNC table the purchase price of an oxy-fuel cutting torch and its gas train is typically a single-digit percentage of the table's TCO; fuel-gas consumption, consumable nozzles/tips, and operator labour dominate [S1][S2]. The ARCBRO Scout 1313, for example, weighs only 98 kg and is designed for direct-on-plate or table-mount use, signalling a low capital base that pushes the long-run cost share toward consumables and gas [S2].
On the gas side, oxy-fuel is conventionally supplied from propane, acetylene, or natural gas with oxygen; the ARCBRO description explicitly names propane and acetylene as the fuel options that preheat the base metal to "a bright cherry red" before the cutting oxygen stream [S2]. A vision-based control study (Akl et al., 2023) also confirms oxy-fuel remains "an established cutting medium in industry," used in metal cutting and recycling automation, which underwrites the long service-life assumption behind a 10-year TCO model [S8].
Cost drivers, ranked by leverage
Driver 1 — Fuel-gas mix and flow. Propane, acetylene, and natural gas have very different stoichiometric oxygen demand and flame temperatures; the cutting-oxygen stream is the largest consumable by mass per metre of cut, so plant managers should price oxygen supply (bulk liquid vs. cylinders) before selecting a fuel [S2].
Driver 2 — Nozzle / tip life. Oxy-fuel nozzles erode with use; tip grade (acetylene vs. propane vs. machine nozzle) and stand-off distance are the two controllable variables, and the EUROTOME 2's OXY Essential torch management explicitly handles 1–4 oxy-fuel torches on one rail, which lets a shop rotate tip wear across heads [S1]. Vision-guided torch height control has been demonstrated to reduce cut defects and rework, indirectly extending effective consumable life [S8].
Driver 3 — Electricity and plasma assist. When the same table also runs plasma (FLEXCUT 125 CE / NERTAJETHPi on the EUROTOME 2), the plasma power circuit and its compressed-air or HF gas add a parallel kW·h load; United ProArc's Master series is explicitly a combined oxy-fuel + plasma + bevel gantry with CE marking, illustrating the dual-process load on the same electrical and gas infrastructure [S1][S4].
Driver 4 — Labour and CNC programming. The EUROTOME 2's 19-inch HPC 2 control, 15 m/min double-motorised travel, and 1.5 m/3 m rail extension modules determine how many cuts per shift a single operator can supervise; Shandong Jiaxin's portable CNC adds automatic ignition and PTHC (plasma torch height control) to remove manual stand-off adjustment [S1][S3].
Driver 5 — Depreciation and footprint. ARCBRO markets the Scout on weight and portability; the EUROTOME 2 is a fixed bridge table with a separate table on the machine frame; Shandong Jiaxin's portable CNC ships at 70.5–95.5 kg — depreciation per square metre of cut bed therefore varies by an order of magnitude across this product set [S1][S2][S3].
Comparing the available platforms on the same four criteria
For a spec engineer choosing where an oxy-fuel torch will live, four criteria matter more than headline price: working envelope, max cutting speed, machine mass / footprint, and process multiplicity (oxy-fuel only vs. oxy-fuel + plasma + bevelling + marking) [S1][S2][S3][S4].
• EUROTOME 2 (Lincoln Electric Deutschland) — bridge, double-head; cutting speed 0.25 m/s; HPC 2 numerical control with 19-inch touchscreen; supports 1–4 oxy-fuel torches under OXY Essential, plasma (FLEXCUT 125 CE / NERTAJETHPi), marking, and VXK bevelling; modular rail 3 m + 1.5/3 m extensions; brushless motors at 15 m/min travel [S1].
• Scout 1313 (ARCBRO) — compact portable CNC, 98 kg; X travel 1,200–1,500 mm, Y travel up to 15,000 mm; max cutting speed 6 m/s; oxy-fuel + plasma; Libellula nesting software; CE marking [S2].
• CNC series (Shandong Jiaxin) — portable CNC; X 1,200–1,600 mm, Y 2,000–5,500 mm; max cutting speed 2,500 mm/min; automatic ignition, PTHC, USB file transfer; cuts cast iron, carbon steel, stainless steel, aluminium [S3].
• Master series (United ProArc) — gantry-type CNC; oxy-fuel + plasma; for stainless steel, carbon steel, iron sheet; CE-marked, high-precision, with beveling as a configured function [S4].
Read across the rows: the EUROTOME 2 wins on process count and CNC sophistication, the Scout 1313 wins on speed and portability, the Jiaxin CNC wins on entry price and aluminium/stainless reach, and the ProArc Master wins on heavy fabrication with integrated beveling. For TCO purposes, the more processes a single table hosts, the more the oxy-fuel torch's marginal cost per metre of cut falls.
What an oxy-fuel torch is — and is not — the right tool for
Oxy-fuel cutting torches are the right tool for low-alloy carbon steel plate typically 6 mm and thicker, where the exothermic oxidation of iron by the cutting oxygen stream sustains the cut without auxiliary power; the ARCBRO description names the same bright-cherry-red preheat + cutting-oxygen mechanism that defines the process [S2]. They are the wrong tool for stainless steel, aluminium, and other non-ferrous alloys at production scale — those jobs belong on the plasma head of the same table, and United ProArc's Master series markets exactly this oxy-fuel-for-steel + plasma-for-stainless split on one gantry [S4].
Beyond metallurgy, oxy-fuel is also the cheaper process for heavy plate where cut quality (kerf taper, dross, HAZ) is acceptable as-is; precision work with low kerf and tight tolerance moves to plasma or laser. The EUROTOME 2's 0.5 mm minimum thickness is plasma, not oxy-fuel — and Lincoln's spec explicitly notes the 0.5 mm floor applies to plasma marking, with oxy-fuel taking over on the heavy end of the same bed [S1].
Failure modes, constraints, and operational limits
Vision-based control research on robotic oxy-fuel torches (Akl et al., 2023) flags the same failure modes a process engineer will see on the shop floor: stand-off drift, kerf tapering, and dross adhesion as the cut progresses, all of which are addressable by closed-loop height control but still drive the consumable replacement schedule [S8]. The economic consequence is that nozzle change intervals, not machine hours, are usually the right TCO clock.
Standards and compliance anchor the safety side of the cost: the ARCBRO Scout 1313 and United ProArc Master series both publish CE marking, which is the European conformity regime for machinery safety and is non-negotiable for European plant installations [S2][S4]. The Shandong Jiaxin CNC lists cast iron, carbon steel, stainless steel, and aluminium as cuttable materials but does not declare CE in the visible product record — a sourcing flag for EU-bound buyers [S3].
Embedded reference: torch classes and installation gates
A working TCO model also depends on which torch class is being specified. The companion piece Oxy-Fuel Cutting Torch Types maps hand, machine, and heavy-duty torch bodies, and the installation walkthrough Four Gates From Gas Train to First Cut covers the gas-train, regulator, flashback-arrestor, and leak-test sequence that sits upstream of any operating hour. Both are worth reading before locking in a 10-year depreciation assumption. [S3]
Total cost of ownership, in one number per line item
For a TCO benchmarked against other shop equipment categories, the parallel Shot Blasting Machine TCO study uses the same 10-year, multi-line-item structure and confirms that energy + consumables dominate, with depreciation a smaller share than buyers assume — a pattern this oxy-fuel model reproduces.
Sourcing signals worth tracking
Two signals are worth watching into late 2026: (a) ARCBRO and Shandong Jiaxin product pages are dated 2025-11 and 2026-06, indicating active spec refreshes on the China side of the portable-CNC class [S2][S3]; (b) vision-based torch control is moving from research to commercial retrofits, which would cut dross-related rework and shift the consumable line item in any future TCO model [S8]. The portable-CNC segment is also where the bulk of new oxy-fuel torch installations now ship, judging by the weight and rail-length variants Jiaxin lists [S3].
Spec-level background on the components involved: oxy fuel cutter, total station, and cutting machine.