Laser industry statistics span global source sales, processing systems, research institutions, manufacturing jobs, additive manufacturing, laser performance and workplace controls. The measures below cover global, national, company, institute and occupational populations across 2020–2025, plus clearly labeled forecasts and regulatory thresholds.
Key Laser Industry Statistics
The most broadly useful figures are:
- Global industrial laser-source revenue reached an estimated $4.3 billion in 2020, up 2% from 2019.
- The global laser-material-processing-systems market declined 2% in 2020 compared with 2019.
- The global laser-material-processing-systems market was forecast at $19.5 billion for 2021, representing 12% growth.
- China’s laser-market volume was estimated at almost $13 billion in 2021, after increasing 18.3%.
- TRUMPF Laser Technology order intake was €1.191 billion in fiscal 2024/25, down 9.9% year over year.
- TRUMPF Laser Technology sales revenue was €1.247 billion in fiscal 2024/25, down 9.5% from €1.378 billion.
- Fraunhofer ILT reported 552 employees in Germany in 2023, including 194 scientists and engineers.
- Fraunhofer ILT reported €48.5 million in general budget in 2023, alongside €25.2 million in industrial revenues.
- The United States had 272,050 machine-tool cutting workers in May 2025, with a $49,050 annual mean wage.
- The United States had 416,210 welders, cutters, solderers and brazers in May 2025, with a $56,760 annual mean wage.
- Manufacturing employed 63% of U.S. welders, cutters, solderers and brazers in 2025.
- U.S. additive-manufacturing shipments were approximately $2.8 billion in the NIST summary, although the underlying reference year is not displayed.
- A 2016 adoption model assumed additive-manufacturing saturation of 5% to 35% of relevant sectors, not observed adoption.
- NIST describes typical laser powder-bed fusion power levels from 50 W to 1 kW in its project updated March 26, 2025.
- A 2023 NIST round-robin found delivered laser-power spreads from 5.6% to 14.1% across the study sample.
- OSHA identifies four broad laser hazard classes, I through IV, based on potential biological damage.
- OSHA defines Class IV continuous-wave lasers at 500 mW and above in its high-power summary.
- FDA requires protective housing for all six listed laser classes in its product table.
Contents
- Industrial laser market scale and trends
- Laser research capacity and commercialization
- Laser manufacturing workforce and wages
- Laser additive manufacturing data
- Laser power and process performance
- Laser safety thresholds and hazard classes
- Laser product compliance and applications
Industrial Laser Industry Market Scale and Trends
Market measures use different boundaries, so they should not be combined into one industry total. Fraunhofer’s figures are analyst or conference estimates, while TRUMPF’s figures describe one company or division.
| Measure | Period and geography | Result |
|---|---|---|
| Industrial laser sources | 2020, global; estimate | $4.3 billion; +2% year over year |
| Laser-material-processing systems | 2020, global; estimate | -2% year over year |
| Laser-material-processing systems | 2021 forecast, global | $19.5 billion; +12% |
| Laser-market volume | 2021, China; estimate | Almost $13 billion; +18.3% |
Sources: Fraunhofer: The Laser of Tomorrow and Fraunhofer: Development of laser beam sources. The 2021 systems figure was a forecast made in 2020/21, and the market boundaries for the Fraunhofer estimates are not specified.
TRUMPF provides a more recent company-level business-cycle signal for fiscal 2024/25:
- TRUMPF’s Laser Technology order intake fell 9.9% to €1.191 billion.
- TRUMPF Laser Technology sales revenue fell 9.5% to €1.247 billion from €1.378 billion.
- TRUMPF Group sales revenue fell 16.3% to €4.329 billion from €5.172 billion, including businesses beyond lasers.
- TRUMPF reported just under €1.8 billion in orders on hand at June 30, 2025.
The same annual report records €700 million in Germany revenue, down 15.0%, and €1.055 billion in Europe excluding Germany revenue, down 11.2%, in fiscal 2024/25. These are TRUMPF regional revenues, not regional industry totals.
Laser Industry Research Capacity and Commercialization
Fraunhofer ILT’s 2023 profile illustrates the scale of one research institute rather than the whole laser research ecosystem. Its reported staffing, financing and facilities show how applied research can connect laboratories to industrial partners and spin-offs.
| Fraunhofer ILT measure | 2023 result |
|---|---|
| Total employees | 552 |
| Permanent staff | 287 |
| Scientists and engineers | 194 |
| General budget | €48.5 million |
| Industrial revenues | €25.2 million |
| Federal, state and EU financing | €18.2 million |
| Granted patents | 19 |
Source: Fraunhofer ILT Annual Report 2023.
The institute also reported more than 19,500 square meters of net floor area, about 40 spin-offs by its 2023 annual report, and more than 50 industrial partners in its laser-technology network. The spin-off figure is an approximate cumulative count, and the partner figure is a network count rather than an industry census.
Laser Manufacturing Workforce, Wages and Outlook
U.S. labor statistics do not isolate laser work in the cited occupation tables. They are useful proxies for the broader machining, cutting and joining workforce that can include laser-based processes.
| U.S. occupation proxy | May 2025 employment | Annual mean wage |
|---|---|---|
| Machine-tool cutting setters, operators and tenders | 272,050 | $49,050 |
| Cutting, punching and press machine workers | 171,200 | $48,430 |
| Drilling and boring machine-tool workers | 4,680 | $51,810 |
| Grinding, lapping, polishing and buffing workers | 67,000 | $48,170 |
| Lathe and turning machine-tool workers | 16,710 | $52,490 |
| Milling and planing machine workers | 12,460 | $56,740 |
| Machinists | 287,050 | $59,320 |
| Welders, cutters, solderers and brazers | 416,210 | $56,760 |
Source: U.S. Bureau of Labor Statistics, Occupational Employment and Wages—May 2025. These occupations include conventional and non-laser processes.
For welders, cutters, solderers and brazers specifically, the BLS Occupational Outlook Handbook reports median annual pay of $53,750 in May 2025 and says manufacturing employed 63% of the occupation in 2025. It projects about 40,300 openings per year from 2025 through 2035, including replacement openings and work beyond laser processing.
Laser Additive Manufacturing Scale, Economics and Adoption
Additive-manufacturing statistics are broader than laser additive manufacturing unless the measure explicitly names laser powder-bed fusion. They provide context for the commercial environment in which laser-based systems compete and develop.
- NIST’s additive-manufacturing summary cites approximately $2.8 billion in U.S. shipments of goods produced using additive manufacturing and $1.4 billion in U.S. value added; the underlying reference year is not displayed on the page.
- A NIST-cited 2016 adoption model assumed additive-manufacturing saturation between 5% and 35% of relevant sectors.
- The same model forecast 50% of modeled market potential between 2031 and 2038 and 100% between 2058 and 2065.
- The model forecast global additive-manufacturing industry revenue of $50 billion between 2029 and 2031 and $100 billion between 2031 and 2044.
Source for the model: NIST, Costs, Benefits, and Adoption of Additive Manufacturing. These are 2016 model forecasts under stated assumptions, and the revenue forecasts include non-laser additive manufacturing.
Laser Power Delivery, Accuracy and Industrial Performance
NIST’s laser-power work focuses on measurement comparability in metal additive manufacturing. The figures describe typical system ranges, reference-instrument uncertainty and a round-robin study; they are not a census of all industrial laser equipment.
- NIST’s Metal Additive Manufacturing Laser Power Assessment describes typical laser powder-bed fusion power levels from 50 W to 1 kW.
- NIST reports a calibrated power meter with expanded uncertainty of U=1.2% and coverage factor k=2.
- Each participating LPBF site was asked to deliver approximately five prescribed laser powers in the 2023–2025 assessment design; the page does not give the final site count.
- A 2023 NIST round-robin study found delivered laser-power values spread from 5.6% to 14.1% across U.S. additive-manufacturing equipment in industry, academia and government.
- The same round-robin used a thermal power meter with 1.3% uncertainty and coverage factor k=2 to assess delivery and operator measurements.
Source: NIST, Laser Power Accuracy of Additive Manufacturing Systems—A Round Robin Study. The study sample and conditions limit generalization, and reference-meter uncertainty is not the same as total machine variation.
Laser Safety Thresholds and Hazard-Class Statistics
OSHA’s classification figures are hazard and control thresholds, not injury rates. The exact classification also depends on wavelength, radiance, pulse characteristics and other conditions.
| OSHA class or control | Supplied threshold or count |
|---|---|
| Broad hazard classes | 4: I through IV |
| Typical continuous-wave visible Class I level | 0.4 microwatts |
| Class II visible laser | At or below 1 mW radiant power |
| Class IIIA continuous-wave laser | 1–5 mW |
| Class IIIB continuous-wave laser | 5–500 mW |
| Class IV continuous-wave laser | 500 mW and above |
| Pulsed Class IIIB summary threshold | 10 J/cm² or diffuse-reflection limit, whichever is lower |
| Class IV major hazard categories | 3: viewing, fire and skin |
Source: OSHA Technical Manual, Section III, Chapter 6. OSHA also says ventilation for laser welding and cutting fumes should reduce concentrations below one of two applicable benchmark types: TLVs or OSHA PELs, depending on the substance.
Laser Product Compliance and Application Reach
Regulatory categories help show why laser industry statistics include industrial, research and medical applications rather than only engraving. OSHA maps FDA Class IIIb to IEC Class 3B and lists industrial lasers among the examples; it maps FDA Class IV to IEC Class 4 and lists industrial, research, medical eye-surgery and skin-treatment lasers.
FDA’s product table reports the following requirements for U.S. laser products:
| Product-control measure | Classes covered |
|---|---|
| Protective housing | All 6 listed classes: I, IIa, II, IIIa, IIIb and IV |
| Safety interlocks, subject to conditions | All 6 listed classes |
| Remote-control connectors and key controls | 2 classes: IIIb and IV |
| Beam attenuators | 4 classes: II, IIIa, IIIb and IV |
| Warning logotypes | 4 classes: II, IIIa, IIIb and IV |
Source: OSHA Laser Hazards and FDA Appendix A: Tabulation of FDA Requirements for Laser Products.
The FDA guide distinguishes Class IIIa caution at irradiance up to 2.5 mW/cm² from danger above 2.5 mW/cm². It also says protective housing must prevent human access above Class I limits for all six listed classes wherever that access is not needed for intended function, subject to intended-function and maintenance exceptions.