Compare Model Drawings, CAD & Specs Available Wavelengths1 Mode-Hop Free Fine Tuning Range Free Space Output Power2 Fiber-Coupled Output Power3 Availability Price
459-461 nm >25 GHz (20 pm) 40 mW @ 461 nm N/A
455-457 nm >25 GHz (20 pm) 40 mW @ 455 nm N/A
632.5-640 nm >120 GHz (160 pm) 8 mW @ 638 nm 3 mW @ 638 nm
725-741 nm >100 GHz (180 pm) 20 mW @ 737 nm 10 mW @ 737 nm
765-781 nm >100 GHz (200 pm) 70 mW @ 780 nm 35 mW @ 780 nm
794-810 nm >100 GHz (210 pm) 30 mW @ 795 nm 15 mW @ 795 nm
838-853 nm >90 GHz (220 pm) N/A 15 mW @ 852 nm
890-940 nm >90 GHz (240 pm) 30 mW @ 895 nm 15 mW @ 895 nm
940-990 nm >80 GHz (250 pm) 25 mW @ 965 nm 12 mW @ 965 nm
1030-1085 nm >60 GHz (230 pm) 70 mW @ 1064 nm 24 mW @ 1064 nm
1400-1490 nm >60 GHz (400 pm) 30 mW @ 1400 nm 15 mW @ 1400 nm
1520-1630 nm >60 GHz (400 pm) 30 mW @ 1550 nm 15 mW at 1550 nm

Due to our continuous product improvement program, specifications are subject to change without notice.

Specifications

  • Available Wavelengths
    See model
  • Mode-Hop Free Fine Tuning Range
    See model
  • Free Space Output Power
    See model
  • Fiber-Coupled Output Power
    See model
  • Linewidth
    <200 kHz (50 ms integration time)
  • Wavelength Stability
    2 pm (over 1 hour ±2°C)
  • Power Stability
    <1% (over 1 hour ±2°C)
  • Resolution, Fine Tuning
    0.01% of full PZT tuning range
  • Beam Pointing Stability
    <50 µrad (±2°C)
  • Fine-Frequency Modulation Bandwidth
    >100 Hz (100% amplitude)
    >1.5 kHz (20% amplitude)
  • Maximum Current Modulation Bandwidth
    DC-1 MHz (through controller)
    50 kHz-100 MHz (directly to diode)
  • Optical Output
    Free-space, optically isolated, fiber-coupled
  • Longitudinal Mode
    Single
  • Transverse Mode
    TEM00
  • Polarization
    Vertical
  • Typical Beam Size
    1-2 mm
  • Typical Beam Ellipticity
    1:1-2:1
  • User Interface
    Controller front panel, RS232, USB
  • Power Supply Requirement
    100-240 VAC (50-60 Hz)
    power consumption <170 W
  • Operating Temperature
    15-30°C (environment)
  • Storage Temperature
    0-50°C (environment)
  • Humidity
    Non-condensing (environment)

Features

Wide Mode-Hop-Free Piezo Tuning

The TLB-6800 Vortex Plus lasers feature very wide and guaranteed mode-hop-free piezoelectric transducer tuning ranges from 25-120 GHz with sub-picometer resolution.

High Stability, Narrow Linewidth

High stability is provided by the Star-Flex tuning arm actuator design. The design provides stiff, reproducible rotational motion without any translation. In addition, precise temperature control of the laser cavity and diode allow us to reduce wavelength drift and power fluctuations. We have incorporated our unique magnetic dampening to minimize frequency jitter and drift. The accompanying TLB-6800-LN Tunable Laser Controller delivers high current with very low noise. All these combined allow us to guarantee very narrow linewidths of less than 200 kHz measured over 50 milliseconds.

Computer Control and LabVIEW™ Support

The TLB-6800-LN controller comes with both USB and RS-232 interfaces for optional remote control through a computer. We include a Windows application for plug-and-play control as well as Windows DLL and LabVIEW™ VI samples for greater programming flexibility. The TLB-6800-LN low noise controller allows you to easily fine tune and adjust the output power or bias current with the press of a button or via the USB/RS-232 interface with the click of a mouse. There is no need for an external function generator to drive the piezo of your tunable laser with the built in function generator. The TLB-6800-LN controller has easy to access front panel controls with an included output to synchronize with other devices.

Star-Flex Actuation

The Vortex Plus is New Focus' most stable laser and uses the same Star-Flex actuation that was introduced in the popular Vortex II laser. Star-Flex is a motion actuation design like no other. Thermal and finite element analyses led us to the Star-Flex design that provides stiff, reproducible rotational motion without any translation. Further reduction in jitter is accomplished with the patent-pending technique of magnetic damping providing minimal frequency jitter and drift.

Applications

  • Laser cooling
  • Atomic clocks
  • Spectroscopy
  • Metrology
  • Interferometry
  • Quantum applications