STGLO-C-Green
Hollow-core Fiber
optimized for 500-700nm range.
Physical Properties |
Core
contour |
Hypocyclo�de |
Inner
core � |
63 μm � 1 |
Outer
fiber � |
300 μm � 3% |
Fiber
coating layer |
Primary polymer
coating |
Optical Properties |
Center
Wavelength |
800nm / 1600 nm |
Attenuation @ 532nm |
30 dB/km �10 |
Dispersion @ 532nm |
1.5 ps/nm.km � 0.5 |
Transmission Band** |
200 nm |
Mode
field Diameter |
24 μm � 1 |
3dB
bend loss radius |
10 cm � 2 |
**Attenuation
lower than 100 dB/km for the 500-700nm
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Typical attenuation and dispersion
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Output near field profile |
Output far field profile |
|
STGLO-C-TiSa_Er-7C
Kagome Hollow-Core
Fiber with optimized performance for 800nm and 1550nm. Ideal for Ti-Saph
and Erbium based lasers.
Physical Properties |
Core
contour |
Hypocyclo�de with
negative curvature parameter b=1* |
Inner
core � |
63 μm � 1 |
Outer
fiber � |
300 μm � 3% |
Fiber
coating layer |
Primary polymer
coating |
Optical Properties |
Center
Wavelength |
800 / 1600 nm |
Attenuation @ 532nm |
<80 dB/km �10 |
Dispersion @ 532nm |
1 ps/nm.km � 0.5 |
Transmission Band** |
>100nm / >300nm |
Mode
field Diameter |
44 μm � 1 |
3dB
bend loss radius |
5 cm � 2 |
**Attenuation
lower than 100 dB/km for the 1300-1750nm
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Typical attenuation and dispersion
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Typical output near field profile @ 800nm |
|
STGLO-C-Yb-7C
Hollow-Core Fiber optimized for 900-1100nm range. Ideal for Yb and
Nd:YAG based lasers.
Physical Properties |
Core
contour |
Hypocyclo�de with
negative curvature parameter b>0.7* |
Inner
core � |
57 μm � 1 |
Outer
fiber � |
320 μm � 3% |
Fiber
coating layer |
Primary polymer
coating |
Optical Properties |
Center
Wavelength |
1030 nm |
Attenuation @ 532nm |
<100 dB/km
|
Dispersion @ 532nm |
1 ps/nm.km � 0.5 |
Transmission Band** |
300 nm |
Mode
field Diameter |
39 μm � 1 |
3dB
bend loss radius |
5 cm � 2 |
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Typical attenuation and dispersion
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Output near field profile |
Output far field profile |
|
STGLO-C-Er-7C
Hollow-Core Fiber optimized for 1550nm.
Ideal for Erbium lasers.
Physical Properties |
Core
contour |
Hypocyclo�de with
negative curvature parameter b=0.8* |
Inner
core � |
61 μm � 1 |
Outer
fiber � |
432 μm � 3% |
Fiber
coating layer |
Primary polymer
coating |
Optical Properties |
Center
Wavelength |
1030 nm |
Attenuation @ 532nm |
<100 dB/km
|
Dispersion @ 532nm |
1 ps/nm.km � 0.5 |
Transmission Band** |
300 nm |
Mode
field Diameter |
39 μm � 1 |
3dB
bend loss radius |
5 cm � 2 |
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Typical attenuation and dispersion
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Output near field profile |
Output far field profile |
|
STGLO-C-2μm-7C
Hollow-Core Fiber optimized for 2-3μm range.
Physical Properties |
Core
contour |
Hypocyclo�de with
negative curvature parameter b>0.7* |
Inner
core � |
56 μm � 1 |
Outer
fiber � |
415 μm � 3% |
Fiber
coating layer |
Primary polymer
coating |
Optical Properties |
Center
Wavelength |
2000 nm |
Attenuation @ 532nm |
60 dB/km
|
Dispersion @ 532nm |
1 ps/nm.km � 0.5 |
Transmission Band** |
>350 nm |
Mode
field Diameter |
42 μm � 1 |
3dB
bend loss radius |
5 cm � 2 |
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Typical attenuation and dispersion
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Output near field profile |
Output far field profile |
|
STGLO PHOTONIC MICROCELL�
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Photonic Micro-Cell (PMC)� technology is
based on Hollow-Core Photonic Crystal Fiber (HC-PCF) and the process of
filling the fiber with a chosen gas to offer photonic functionalities
such as (i) Optical frequency conversion, (ii) Ultra-high power pulsed
laser delivery (iii) Laser pulse compression or (iv) Frequency
standards.
A PMC is a stand-alone and modular component that consists of a HC-PCF
filled with gas and fiber terminations. The presence of gas within an
optical fibre on a micron scale provides a million-fold increase in the
gas-laser efficiency compared to traditional lasing methods and opens up
the unique ability for functionalization. For example, with a Raman gas
one can produce new wavelengths and hence create new applications. There
are different variants of HC-PCF used within the PMC family of
components. The Inhibited-Coupling guiding HC-PCF such as Kagome fiber
produces particularly good results with a high damage threshold and a
very wide bandwidth.
The PMC comes in different forms tailored to either the applications or
the laser power requirements or to specific housing requirements. Below
is a list of the different PMC forms we can deliver
PMC-TERMINATION TYPE |
FEATURES / APPLICATIONS |
ALL-FIBER PMC |
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An optical fiber made of a length of HC-PCF
filled with gas and spliced to a solid optical fiber.
- Gas type: Typically any molecular
gas. Atomic vapor
- Gas pressure ranges: from High
vacuum pressure to several bars.
- Splice loss: typically 1
dB/splice.
- Ideal for low power laser
applications such as telecommunications,
instrumentations, frequency standards, Frequency
conversion.
|
GAS-FILLABLE & TRAVEL STAGE MOUNTABLE
PMC-TERMINATION |
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This PMC has at least one of its
terminations exhibiting a gas-fillable cell. This cell is
mountable on standard translation stages for quick and
efficient laser coupling.
- Gas injection
- Rugged tube-over-fiber
- Micro-bending elimination
- Macro-bending restraint
- Dust contamination prevention
- Ideal for high power applications
such as ultra-short pulse laser beam delivery, laser
pulse compression, frequency converter.
|
TUBULAR CELL PMC-TERMINATION |
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This PMC has at least one of its
terminations exhibiting a tubular cell. This cell can be
mounted on and/or integrated in standard opto-mechanical
holders or systems.
|
Laser doppler vibrometer |