Laser beam measurement in fundamental research
Validate laser parameters in research projects
Lasers have one shortcoming in particular that is the root cause of many problems for fundamental research: their specifications change over time.
Not only does the laser output drift over time but the optical parameters at the working plane are affected by the optical components that guide the beam to its delivery point and by the environmental conditions in which the system is used.
Our guide shows how to measure and validate laser parameters to ensure reliable, repeatable research results.
What’s Inside the Guide:
- Applications: Measuring laser beams across a wide range of advanced research fields such as nonlinear optics, particle acceleration, attosecond science, THz generation, and laser-matter interaction.
- Common challenges in research environments: high peak power, ultra-short pulses, exotic wavelengths, clean-room constraints, and the need for extremely high sensitivity and accuracy.
- Measurement requirements: remote monitoring, data logging, high repeatability, and traceable measurements across a wide range of laser parameters.
- Use cases: Laser beam measurement in research centers, universities, national laboratories, and advanced photonics facilities around the world.
- Calibration traceability: NIST-traceable calibration ensuring reliable, comparable, and accurate measurements that support experimental validity and scientific publications.
- Research impact and adoption: Gentec-EO instruments used by leading laboratories such as Lawrence Livermore National Laboratory, SLAC, RIKEN, and many other major research institutions.
- Adaptability: Custom detectors, calorimeters, and measurement solutions designed to meet unique experimental setups and extreme laser conditions.
Success story
Measuring energy of one of the most powerful lasers in the USA
Discover how a major U.S. research center measures energy from one of the most powerful lasers in the country. Learn how specialized detectors and calorimeters handle extreme beam sizes, ultra-high power densities, and demanding research environments.
Download Our Guide: Laser Beam Measurement in the fundamental research
Learn how to accurately measure laser beams in the medical field and optimize your development, manufacturing, and quality control processes. Our comprehensive guide gives you the essential insights to master lasers in medical applications.
Instant access to your measurement guide
The Gentec-EO advantages
GOLD Calibration Standards
We use only GOLD Calibration Standards, guaranteeing our customers the lowest calibration uncertainty possible.
NIST TRACEABILITY
Our Personnal Wavelength CorrectionTM (PWC) data offers you NIST and/or NRC traceability over the entire range of the detector.
PROVEN STATISTICAL CALCULATION PROCESSES
Our uncertainty values are based on proven statistical calculation processes.
50 PARAMETERS COLLECTED AND LOGGED
For each detector that we calibrate, 50 parameters are collected and logged in our quality system.
CHECKED UP TO 3 TIMES
The calibration reference is checked 2 to 3 times during EACH calibration process.
TOTAL ACCURACY
Each of these steps contributes to the TOTAL ACCURACY of your detector.
Find a calibrated laser power or energy detector
Let us guide you in selecting the best laser power or energy detector for your application. You only need to answer 3 simple questions about your laser.
