Rotary Laser Cutting

Rotary laser cutting rotates a cylindrical or tubular workpiece under a laser to cut, engrave, or mark its curved surface with the same precision as flat-sheet laser processing. It is used to cut complex profiles into tubes, engrave serial numbers and barcodes onto round components, and perform marking or welding on cylindrical parts in aerospace, medical device, defense, and industrial electronics manufacturing.

Rotary laser cutting and engraving works on a wide range of materials including stainless steel, specialty alloys, aluminum, titanium, ceramics, and plastics — in tubular or cylindrical form. The process is particularly well-suited to precision medical tubing, aerospace structural components, and any round or curved part that cannot be processed flat.

Accumet has extensive experience with rotary cutting and engraving across a wide size range — from stainless steel pipes 12" long by 10" in diameter down to tubes as small as 0.010" long by 0.058" in diameter. This range makes Accumet's rotary laser cutting service equally capable on large structural aerospace components and the smallest precision medical tubing.

Yes. Rotary laser engraving is the preferred method for applying permanent barcodes, serial numbers, logos, and alphanumeric identifiers to curved or round surfaces. Computer-controlled rotary optics can mark any variation of curved geometry including tubes, cylinders, and tapered components — delivering marks that meet medical device and aerospace traceability requirements without the limitations of flat-bed laser systems.

Yes. Accumet employs its rotary positioning systems across laser cutting, laser welding, and laser marking applications. This means cylindrical and tubular components can be cut to profile, welded, and marked using the same rotary infrastructure — making Accumet a single-source provider for complex tubular parts that require multiple laser processes without re-fixturing or outsourcing.

For permanent identification on cylindrical parts, rotary laser engraving outperforms both pad printing and mechanical engraving in most precision manufacturing contexts. Pad printing uses inks that can flake, fade under sterilization, or fail regulatory requirements for implantable and aerospace components. Mechanical engraving applies cutting force that can stress thin-walled tubes or delicate components. Rotary laser engraving is non-contact, produces permanent marks without consumables, and meets the durability requirements of medical device and aerospace standards.