The ULTRA R5000 laser system is a high‑end laser platform with a 32" x 24" (813 x 610 mm) work area and up to 12" (305 mm) Z‑height, designed for precision cutting, engraving and marking across many materials. It supports one or two lasers (CO₂ and optional fiber), making it suitable for production, R&D and advanced education labs.
In practical terms, the ULTRA R5000 is a flexible digital fabrication tool. You can cut acrylic signage one hour, micro‑mark anodised aluminium parts the next, then switch to detailed paper prototypes without re‑aligning optics. The same machine handles these jobs by combining fast motion control (>200 in/sec raster speed in SuperSpeed configuration) with a materials database that suggests processing parameters for plastics, woods, metals and more. For example, you can load 6 mm acrylic, select it in the Intelligent Materials Database, and the system will automatically set power, speed and pulses‑per‑inch to achieve clean, flame‑polished edges with minimal trial‑and‑error.
The large Z‑axis travel also means you can process bulky items, such as 3D-printed enclosures or 250 mm foam blocks, instead of being limited to flat sheets only.
The ULTRA R5000 laser system stands out because several patented features directly affect throughput, quality and repeatability rather than just looking good on a spec sheet. First, Multi-Wave Hybrid technology can combine up to two or three wavelengths (10.6 µm CO₂, 9.3 µm CO₂, and 1.06 µm fiber on some configurations) into a single focal point. That allows, for example, a hybrid beam of 150 W CO₂ plus 50 W fiber to mark both plastics and metals in the same setup, as documented on the ULS platform page at ULS.
Controllable Laser Power Density Optics provide multiple power-density modes (e.g., 1X, 4X and 13X for CO₂, and the equivalent of 52X for fiber). In practice, that means you can switch from a broad, gentle beam for surface annealing on stainless steel to a very tight, high‑power beam to cut thin technical films without changing hardware.
SuperSpeed technology, when the system is fitted with two matched CO₂ lasers, doubles raster throughput by producing two independently controlled scan lines per pass. For a graphics-heavy engraving job on large signage, this can reduce run time by more than 40% compared to a single‑laser raster system of similar power.
The ULTRA R5000 laser system can be configured as CO₂‑only (up to 150 W) or as a mixed system with CO₂ plus a 50 W fiber laser. Your choice should follow the materials you process, the edge quality you require, and whether you need metal marking or cutting.
For most schools, signmakers and architectural model shops, a single 75–150 W 10.6 µm CO₂ configuration is sufficient. It cuts acrylic, plywood, MDF, card, rubber and many textiles cleanly. For packaging prototypes in PET or some technical films, adding or tuning a 9.3 µm CO₂ source can improve edge quality and reduce melting because this wavelength couples differently into certain polymers.
If you need direct metal work—such as marking stainless steel medical components, coding anodised aluminium fixtures, or precision marking on tooling—adding the 1.06 µm, 50 W fiber source is compelling. In a dual‑source configuration, you can, for example, run 6 mm acrylic cutting with a 150 W CO₂ source, then immediately switch to fine serial-number marking on stainless parts using fiber, without changing machines or lenses.
Rapid Reconfiguration allows you to swap supported CO₂ laser tubes without tools or manual realignment. A lab might start with a 40 W and later upgrade to 75 W or 150 W as volumes grow, protecting the initial investment while scaling capability.
The ULTRA R5000 laser system workflow consists of five main steps: create or import a design file, generate a control file in Laser System Manager (LSM), set processes, align material, and run with real‑time control. Each step is designed to reduce operator error and setup time.
You begin by importing a DXF, PDF or G‑code file into LSM, or by printing from CAD software using the supplied driver. The software automatically separates raster and vector elements and maps colours into up to 16 process colours. You then choose a material from the Intelligent Materials Database; for example, 3 mm birch plywood. LSM instantly proposes a raster engrave process and a vector cut process with power, speed, pulses‑per‑inch and gas assist values.
Next, you assign colours: perhaps red for cutting the outer profile, blue for light vector scoring of fold lines, and black for raster‑engraved logos. Using the camera system (where fitted), you capture an augmented‑reality image of the bed, drag your artwork onto the actual sheet on‑screen, and let the Precision Material Independent Autofocus probe set Z‑height.
Finally, you start the job. If you’re cutting a batch of 20 identical panels, the duplication tools in LSM will automatically array the design within the 32" x 24" field with controlled kerf compensation, ensuring dimensions stay within tolerance without editing the CAD file.
The ULTRA R5000 laser system is built for environments where uptime, precision and flexibility are business‑critical. In light manufacturing, it’s often used for small‑batch production of acrylic signage, control panels and gasket sets. For instance, a shop might cut 2,000 neoprene gaskets per week from roll stock, using vacuum hold‑down and material support pins to minimise back‑reflection.
In research and product development, labs use the ULTRA R5000 for rapid iteration on housings, microfluidic channels, and composite layups. The ability to cut 12"‑thick foam or fixtures lets engineers clamp parts vertically for edge treatments or multi‑face engraving. Multi-Wave Hybrid configurations are particularly valuable when you need to mark both polymer housings and internal metal brackets without outsourcing.
Educational institutions benefit from the safety, automation interface and user management features. Class 1 operation with interlocks and laminated laser‑blocking glass helps meet lab safety requirements, while optional Class 4 pass‑through enables processing of oversized sheets under controlled conditions. User Access Administration in LSM allows a technical department to restrict advanced parameters while still letting students run approved jobs, so a STEM lab can support dozens of learners without risking damage to optics or motion components.
The ULTRA R5000 laser system is rated as a Class 1 device for normal enclosed operation, with Class 2 overall due to the red pointer, and can convert to Class 4 with an optional pass‑through module.
Overtemperature detection and optional fire suppression add another layer of protection by shutting down lasers and flooding the processing area with suppressant if sustained combustion is detected.
Routine maintenance is straightforward but essential. The manufacturer recommends cleaning internal surfaces and the multifunction material support structure after heavy use, checking belts monthly, and inspecting optics as needed. Optics contamination can reduce delivered power by tens of percent, so a quarterly inspection regime is sensible for moderate production. With basic care—filter cleaning, lens inspection and debris removal—many users run these systems reliably for years in continuous industrial duty.