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Metal LPBF systems · OEM & bulk procurement
Laser powder bed fusion systems scoped as complete production cells—from powder and atmosphere control to heat treatment, inspection, FAT and site acceptance.
Illustrative technology image. The final proposal names the actual model, revision, production site and configuration.
EverBen equipment directory
Compare model summaries, configuration limits and adjacent models. Each detail page identifies its reference status and separates pending fields from reference values.
Current availability and the mapping to a quoted machine are pending confirmation for every record. Source specifications require a current signed datasheet; conflicting fields remain open.
SLM · Series
SLM M150 Series: 150 mm cube metal LPBF reference with single- or dual-500 W laser candidates. The 7/9 kW and 20–50 cm³/h entries lack a configuration and alloy mapping.
Availability: pending confirmation · Needs configuration confirmation
SLM · Model
SLM M150D: 150 mm cube LPBF reference with 200 °C substrate heating and a listed filtration cabinet. Single/dual laser options and the combined 8.8 kW supply entry need pairing.
Availability: pending confirmation · Needs configuration confirmation
SLM · Series
SLM M280 Series: 250 × 250 × 320 mm LPBF reference despite the M280 designation. It is distinct from the 280 × 280 × 350 mm M280(S) record; load and output pairing is pending.
Availability: pending confirmation · Needs configuration confirmation
SLM · Model
SLM M450Pro-X: 450 × 450 × 500 mm LPBF build reference with unresolved laser/scanner row conflicts. The reported 10205 kg mass also needs a confirmed equipment boundary.
Availability: pending confirmation · Needs configuration confirmation
SLM · Model
SLM M450Pro-S: M450Pro-S requires a corrected configuration table: laser text occupied the recoating row and scraper text occupied the scanner row. Build height and footprint also remain pending.
Availability: pending confirmation · Needs configuration confirmation
SLM · Model
SLM M300G: M300G combines a disputed build envelope with a source-described 500 W green laser. Confirm the light-source identity, wavelength and copper process before dimensional or material selection.
Availability: pending confirmation · Needs configuration confirmation
SLM · Model
SLM M150G: 150 × 150 × 150 mm green-laser LPBF reference with up to 200 °C plate heating. The source-described 500 W laser lacks a model and wavelength.
Availability: pending confirmation · Needs configuration confirmation
SLM · Series
SLM M480 Series: 480 × 320 × 300 mm rectangular LPBF reference with conflicting two/four-laser records. The 13 kW and material-package scope need the resolved configuration.
Availability: pending confirmation · Needs configuration confirmation
SLM · Series
SLM M280(S) Series: 280 × 280 × 350 mm LPBF reference with one/two 500 W laser options and 380 V / 50 Hz supply. The 14/16 kW loads are not mapped to variants.
Availability: pending confirmation · Needs configuration confirmation
SLM · Series
SLM M650 Series: M650 has conflicting build-height records and four/eight 500 W laser options. The shared 21 kW and 50–100 cm³/h figures cannot define a quoted variant.
Availability: pending confirmation · Needs configuration confirmation
SLM · Series
SLM M50 Series: Small cylindrical LPBF reference, Ø70 × 50 mm, with a 200 W source and a tin-powder entry. Conflicting speed and protective-gas claims are withheld.
Availability: pending confirmation · Needs configuration confirmation
SLM · Series
SLM M100 Series: 100 × 100 × 100 mm LPBF reference with one 500 W laser and a corrected 735 × 920 × 1780 mm outline. The 220 V three-phase supply wording needs a wiring basis.
Availability: pending confirmation · Needs configuration confirmation
SLM · Model
SLM D100: Ø120 × 100 mm cylindrical LPBF reference with a single 300 W infrared fibre laser and no substrate preheating. Alloy, gas and output conditions need qualification.
Availability: pending confirmation · Needs configuration confirmation
SLM · Series
SLM M500 Series: M500 lists four 500 W lasers, but its build envelope conflicts across source records. A malformed jump-speed range is also pending before configuration comparison.
Availability: pending confirmation · Needs configuration confirmation
Owner-supplied third-party catalog reference
These ranges come from a third-party 2025 equipment catalog supplied by the site owner. They are not EverBen-branded specifications and do not prove manufacturing, authorization or current availability. A named manufacturer, authorization status and current signed datasheet must control any proposal or order.
| Process | Laser powder bed fusion / selective laser melting |
|---|---|
| Catalog reference build range | Research-to-production examples are shown, but conflicting large-format dimensions require a current signed model datasheet |
| Catalog laser reference | Fiber-laser configurations from single source to multi-laser layouts; exact power/count must be confirmed |
| Catalog layer reference | Model-dependent layer ranges are shown; the named machine, alloy and qualified parameter revision must control |
| Cell systems to scope | Inert gas, filtration, sieving, powder transfer, heat treatment, support removal and inspection |
| Buyer acceptance focus | Density, chemistry, oxygen, mechanical properties, dimensional result, repeatability and traceability |
01 · Application fit · Metal LPBF
LPBF selectively melts thin metal-powder layers under a controlled atmosphere to build dense geometries that may be difficult to machine conventionally.
The strongest starting cases for this Metal LPBF review are conformal-cooled mold inserts, aerospace and energy development parts, lightweight industrial components, metal additive research and parameter development. The intended output must still be separated into prototype, tooling, bridge production or released production because the evidence and responsibility change at each stage.
Can the proposed process meet the part duty, material route and acceptance method for conformal-cooled mold inserts without relying on an unverified brochure claim?
02 · Machine architecture · Metal LPBF
Laser count and power, optical overlap, recoater, build and feed modules, filtration, gas flow, oxygen control and thermal strategy form one process architecture.
The proposal must name the installed configuration and explain how it supports conformal-cooled mold inserts. The process label is not enough when the build mechanism, thermal or optical design, feed system and accessories can change both performance and maintenance.
For the proposed Metal LPBF route, record the manufacturer, model, revision, installed options, cell boundary and every third-party dependency before quotations are compared.
03 · Build and footprint · Metal LPBF
The owner-supplied catalog reference lists Research-to-production examples are shown, but conflicting large-format dimensions require a current signed model datasheet. Treat that only as an early planning range until the authorized manufacturer returns a current model and signed datasheet.
For aerospace and energy development parts, usable space depends on orientation, process margins, unloading and downstream handling. The site review must also cover machine footprint, packed size, weight, doorway route, floor loading and service clearance.
Fit a representative aerospace and energy development parts part in the usable Metal LPBF envelope, then verify unloading, service access, packed dimensions and floor load for the named machine.
04 · Material route · Metal LPBF
Metal powder needs alloy chemistry, particle-size distribution, morphology, moisture and oxygen control, lot traceability and defined reuse limits.
The material brief should connect the exact grade or SKU with storage, conditioning, the proposed Metal LPBF configuration, process parameters, post-processing and the property test method. Bulk or private-label discussions begin only after this compatibility route is defined.
Approve one traceable Metal LPBF grade or SKU with its TDS, SDS, lot evidence, conditioning, parameter revision and downstream process.
05 · Part quality · Metal LPBF
Residual stress, support strategy, scan layout, thermal history, plate release, heat treatment and machining allowance drive finished dimensions.
Use a representative lightweight industrial components geometry or an agreed coupon. Record orientation, material lot, build position, post-process, datum scheme, instrument and repeat count so input resolution cannot be mistaken for verified finished-part capability.
Use the same lightweight industrial components geometry, material, orientation, post-process, datums, instrument and repeat count for every Metal LPBF candidate.
06 · Output and TCO · Metal LPBF
Qualified build rate must include recoating, warm-up, cool-down, powder recovery, filter change, plate handling, heat treatment and inspection.
A purchasing model for Metal LPBF should count preparation, changeover, build, cooling or curing, recovery, finishing, inspection, rejected parts and maintenance. Compare good parts per staffed shift and the consumables that control uptime rather than one peak speed value.
Calculate accepted Metal LPBF parts per staffed shift with stated yield, changeover, downstream capacity, maintenance and consumable-life assumptions.
07 · Digital workflow · Metal LPBF
Review build preparation, supports, scan strategy, parameter rights, melt-pool or process monitoring, records, export and secure remote service.
For a controlled conformal-cooled mold inserts workflow, ask about file preparation, profile revision, user roles, offline operation, job records, export, backup, licences and remote support. OEM interface or MES work needs a separate functional specification and acceptance test.
For Metal LPBF 3D Printers, freeze licence term, parameter access, offline rights, job-record export, backup, update policy and the remote-service security boundary.
08 · Site and EHS · Metal LPBF
Metal cells may require three-phase power, inert gas, cooling, extraction, explosion/fire risk controls, grounded powder handling and substantial floor loading.
The site-readiness return should assign every Metal LPBF utility, material-control and safety task to the buyer, equipment supplier or a licensed local contractor. A generic certificate cannot replace the exact declaration, manual, interlock review and destination-specific risk assessment.
Approve the Metal LPBF utilities, extraction, material storage, fire controls, PPE, access and contractor responsibilities before shipment release.
09 · Downstream process · Metal LPBF
Common stages include depowdering, stress relief, plate separation, support removal, heat treatment, machining, surface finishing and NDT or metrology.
Size the downstream route for the planned metal additive research and parameter development load. Identify included equipment, buyer-supplied tools, subcontracted operations, consumables, waste streams and the quality gate that releases the finished part.
Confirm every Metal LPBF finishing and inspection step, its owner, batch capacity, consumables, waste route and release record.
10 · Technical acceptance · Metal LPBF
Build witness coupons and a representative part using the proposed alloy, parameter set, powder route and post-treatment, then inspect to agreed standards.
The Metal LPBF acceptance document should fix the sample, material, configuration, parameters, inspection, pass criteria, witness method and corrective-action route. FAT verifies the contracted system before shipment; SAT closes installation and agreed output at the buyer site.
Do not authorize the Metal LPBF shipment or final handover until the named configuration passes the agreed sample, inspection and corrective-action method.
11 · Project deployment · Metal LPBF
Deployment for Metal LPBF should start with the site drawing, access route, readiness checklist, shipment condition and named contacts. Commissioning records must connect utilities, safety checks, calibration, software setup and the acceptance build.
Operator training should use the proposed Metal LPBF 3D Printers workflow and cover material handling, job preparation, routine maintenance, fault recovery and quality records. Manuals, language, attendees, practical exercises and competency sign-off belong in the quote.
Close Metal LPBF 3D Printers commissioning with signed readiness, calibration, sample, training, manuals, maintenance, spares and escalation records.
12 · Lifecycle and OEM scope · Metal LPBF
Plan filters, seals, recoaters, oxygen sensors, optics, sieves, PPE, powder containers, calibration and field-service access around the uptime target.
OEM exterior, interface and documentation can be scoped; laser, gas-flow, powder or parameter changes demand substantial engineering and qualification. The response must also identify the authorized manufacturer and seller, MOQ, forecast, packing, delivery term, warranty start, exclusions, labour or travel treatment, critical spares and change-notification policy. No retail price can represent those variables safely.
The signed Metal LPBF offer must identify authorization, MOQ, OEM scope, delivery, warranty, exclusions, service responsibility, critical spares and change control.
Your RFQ inputs
Comparable supplier return
B2B procurement FAQ
Define the printer, powder receiving and recovery, sieving, inert gas, filtration, heat treatment, support removal, inspection and safety boundary.
No. Density must be tied to alloy, powder lot, parameters, geometry, location, post-treatment and test method.
Decide from qualified throughput, part distribution, overlap consistency, service complexity and material parameter evidence—not laser count alone.
Machine identity and options, safety checks, calibration, atmosphere performance, representative build, inspection results and open-action closure.
Adjacent technologies
Next practical step
Send the part, material, output, destination and acceptance target. The inquiry process structures the configuration, open questions and validation route without publishing a misleading retail price.
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