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Applications Scientific and biomedical

Scientific and biomedical

Stable, clean femtosecond pulses for multiphoton microscopy, photopolymerization and ophthalmic research. Compact fiber sources that fit the instrument, not the other way round.

[Photo: multiphoton microscopy setup with a LITILIT laser]

70 fs

Pulse duration of the BIOLIT 2 fiber laser.

20 MHz

Repetition rate of the BIOLIT 2 fiber laser.

[value] %

Pulse-to-pulse energy stability over [hours] h of operation.

From problem to process

Repeatable results need a source you can trust to stay put.

  1. 01 · Problem

    Drift and downtime cost measurements

    Research and biomedical setups run for hours, and a drifting source wastes samples and invalidates comparisons. Bulky lasers with water loops add vibration, heat and service visits to a bench that has no room for them.

  2. 02 · Requirement

    What the process needs

    • Short pulses with stable energy over long runs
    • A compact, quiet source that fits the instrument
    • Wavelength and repetition rate matched to the sample
    • Repeatable results and long-term availability for validation
  3. 03 · Process

    Ultrashort pulses, low thermal load

    Femtosecond pulses deliver peak power for multiphoton excitation and photopolymerization while keeping average power, and heat in the sample, low. Fiber delivery keeps the beam path simple and the alignment stable.

Why the architecture fits

Compact laser head

Fits into microscopes, imaging heads and OEM instrument housings.

Passive air cooling

The BIOLIT 2 laser head is passively air cooled. No chiller or water loop near the sample.

Stable pulse energy

Stable output keeps images and structures comparable from one run to the next.

Simple integration

CAN and USB control for lab software and instrument controllers.

Evidence

Results from the application lab

Images and measurements from LITILIT test runs. Every sample lists its setup, settings and magnification.

[Image: multiphoton microscopy of a stained tissue sample]
Multiphoton imaging [Sample], [laser settings], [value]× magnification
[Image: photopolymerized micro-structure]
Photopolymerized micro-structure [Material], [laser settings], [value]× magnification
Case study

From lab bench to OEM instrument

[Customer] built a LITILIT laser into [instrument type] and moved from prototype to repeatable supply. Here are the stability and uptime numbers.

Read the case study

Typical process window

Starting parameters from our lab. Your sample, dye and optics will move them, so we confirm every number on your own setup.

Materials
Multiphoton microscopy, photopolymerization, ophthalmic research, [others]
Thickness
[value] – [value] µm penetration depth
Feature size
[value] fs at the sample, after delivery optics
Tolerance
[value] mW average power at the sample
Recommended wavelength
1050 nm (BIOLIT 2) or 1030 nm (INDYLIT 3)
Recommended laser
BIOLIT 2

Lasers for this application

The laser we recommend for this application.

BIOLIT 2 laser, view 1BIOLIT 2 laser, view 2BIOLIT 2 laser, view 3BIOLIT 2 laser, view 4

BIOLIT 2

Femtosecond fiber laser for biophotonics: 70 fs pulses at 1050 nm.

  • 70 fs pulses
  • 1050 nm · 20 MHz
  • 2 W average power

View BIOLIT 2

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Send us a sample. We'll match the setup.

Describe your instrument or experiment. Our application engineers suggest a laser and, where possible, test it on your samples in our Vilnius lab.

Discuss your application with an engineer.

Tell us the material and the result you need. A laser engineer replies within [response time].

Buying for production?

Ask about lead times, volume pricing, supply capacity and long-term availability.

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