Marking is almost always the last thing that happens to a part. By the time a housing or a fitting reaches the marking step it has been machined, deburred, passivated, and inspected — every dollar of value already added. That is the wrong moment to scrap something because a data matrix code landed 2 mm off the datum, and the wrong moment to find that the only marking system on site is sized for a line the shop does not run.
The FOBA M1000 fills that gap: a manually loaded, Class 1 fiber laser marking workstation small enough for a bench or a cart, built on the same laser sources, software, and vision stack as the larger M2000 and M3000. It takes parts up to 450 x 250 x 200 mm and 25 kg on a 0.45 m² footprint, runs on single-phase 100–240 VAC at 400 VA, and is entirely air-cooled. No chiller, no three-phase drop, no laser-safe enclosure to build around it.
Check your worst-case part — including its fixture — against these numbers before anything else.
One detail the spec sheet undersells: with the door open the interior is accessible from three sides, and the laser head can be manually adjusted left, right, front, and rear during operation. On a machine where the marking field is smaller than the table, that is how you reach a mark position on a larger part without building a fixture.
The laser inside is a Class 4 device per DIN EN 60825-1. The machine around it is Class 1. That distinction is the whole safety argument for a workstation marker: the enclosure and interlocks let it sit next to people who are not wearing eyewear, rather than in a controlled-access laser room.
The one utility that needs planning is extraction. Exhaust systems are an option rather than standard equipment, and for plastics, coatings, or paint removal, fume extraction is not optional in practice.
The M1000 is a housing; the result comes from the source and the optic. FOBA lists five pulsed ytterbium fiber markers, all at 1064 nm on the same CP10 head: Y.0100 (10 W), Y.0200 and Y.0201 (20 W), Y.0300 (30 W), and Y.0500 (50 W). Each includes High-Q and High-S tunings and a pilot laser, marking at up to 1,000 characters per second — 1,200 with High-S.
The optic is where the trade-off lives. Focusing optics come in f = 100, 163, 254, and 420 mm, giving marking fields from roughly 60 x 76 mm up to 315 x 368 mm depending on the application.
Note that even the largest optic gives a field smaller than the work space, and shorter optics trade field for spot size and energy density. For a small, deep, high-contrast mark on stainless, take the short optic and use manual head adjustment to reach other areas. For a large logo in one shot, field size drives the optic.
One integration detail for quote time: FOBA lists the Y.0500 supply unit at 700 VA, while the M1000 machine spec cites 400 VA for the listed fiber sources. If a 50 W source is on the table, confirm total draw and circuit sizing before the panel schedule is finalized.
A programmable Z-axis is standard, handling focus height across part thicknesses without shimming. A rotation axis is optional, and MarkUS supports up to five axes (X, Y, Z, rotary, swivel) where the hardware exists. For round parts, radial segmentation marks text and logos around cylindrical, arced, concave, and convex surfaces while holding focus.
Vision is where a low-volume machine earns back fixture cost. Both systems view the part through the marking lens, so alignment references the same optical path as the mark:
MarkUS runs on an external Windows PC and is identical across the M-Series, so jobs and operator training carry over if you add capacity later. It imports DXF (to AutoCAD 2015), HPGL, and FOBA’s MCL format, marks and reads back DataMatrix (ECC200), QR, BC128 A/B/C, and BC39, and includes a verification tool that passes or fails a mark on read content or contrast — the mechanism that turns a marking cell into a traceability step. Remote access runs over TCP/IP, Profibus, or serial.
Anything over 25 kg or larger than the envelope above is an M2000 or M3000 conversation, and anything where cycle time is dominated by load and unload wants a two-station rotary machine the M1000 does not offer. What it does well: marking volume that is real but modest, small parts, scarce floor space, and a marking step that needs to move between cells rather than anchor one.
Sizing a marking workstation is a sequence of narrowing questions: largest part, weight with fixture, material and contrast requirement, mark size, positions per part, and whether the mark must be verified. Those answers select the housing, then the wattage, then the optic and field, then the vision package — in that order. Talk to the HESCO team at hesconet.com/contact-us and we will work through it against your parts rather than a catalog page.