High OH UV Rods
KEEPTOP
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High OH UV Rods – Optical Properties and Application Reference Table | |||
Type 1 | Type 2 | Type 3 | |
OH [ppm] typical | 700 | 400 | 1000 |
Cl [ppm] typical | 200 … 300 ppm | 200 … 300 ppm | < 0.15 |
Refractive index* | - 1 … -1.6 x 10-4 | - 1 … 0 x 10-4 | -1.6 … -2.5 x 10-4 |
Trace impurities | -1.6 … | ||
Features | Excellent transmission in UV (190 – 400 nm) Good transmission near the OH absorption band minima around 670, 800 and 1,030 nm High resistance to gamma irradiation at 800 nm Low UV solarization | Excellent transmission in UV (260 – 400 nm) Good transmission near the OH absorption band minima around 670, 800 and 1,030 nm Low UV solarization at 308 nm | Chlorine free material For price sensitive applications |
Depending on the application, high and low OH materials are available.
Core Material for Multi-mode or Plastic Clad Silica Fibers:
As a material which later forms the light-conducting core of the fiber. These rods should be made of a material which has a low absorption in the desired wavelength region. This rod must then be provided with a cladding. This fiber either is a plastic clad pure silica core fiber (PCS) or the rod is given a quartz glass cladding with a lower refractive index (multi-mode fiber).
Photonic Crystal Fibers (PCF):
For forming a preform for photonic crystal fibers (PCF) (stacking of different glass pieces, or drilling holes into the rods).
Handle Material:
As an aid for the production of specialty fibers.
Quarts rods Dimensions:
D28x850 mm
D31x900 mm
D15x1200 mm
Or customized
Packing: wooden drum
High OH UV Rods – Optical Properties and Application Reference Table | |||
Type 1 | Type 2 | Type 3 | |
OH [ppm] typical | 700 | 400 | 1000 |
Cl [ppm] typical | 200 … 300 ppm | 200 … 300 ppm | < 0.15 |
Refractive index* | - 1 … -1.6 x 10-4 | - 1 … 0 x 10-4 | -1.6 … -2.5 x 10-4 |
Trace impurities | -1.6 … | ||
Features | Excellent transmission in UV (190 – 400 nm) Good transmission near the OH absorption band minima around 670, 800 and 1,030 nm High resistance to gamma irradiation at 800 nm Low UV solarization | Excellent transmission in UV (260 – 400 nm) Good transmission near the OH absorption band minima around 670, 800 and 1,030 nm Low UV solarization at 308 nm | Chlorine free material For price sensitive applications |
Depending on the application, high and low OH materials are available.
Core Material for Multi-mode or Plastic Clad Silica Fibers:
As a material which later forms the light-conducting core of the fiber. These rods should be made of a material which has a low absorption in the desired wavelength region. This rod must then be provided with a cladding. This fiber either is a plastic clad pure silica core fiber (PCS) or the rod is given a quartz glass cladding with a lower refractive index (multi-mode fiber).
Photonic Crystal Fibers (PCF):
For forming a preform for photonic crystal fibers (PCF) (stacking of different glass pieces, or drilling holes into the rods).
Handle Material:
As an aid for the production of specialty fibers.
Quarts rods Dimensions:
D28x850 mm
D31x900 mm
D15x1200 mm
Or customized
Packing: wooden drum
1. Preform supplier warrants that the delivered preform meet this specification(Table 1&2). If the preform does not appear to meet a specification ad evaluated based on this specification and preform supplier agrees such non-conforming condition, preform supplier will replace or compensate.
2. Assuming optimum and stable drawing conditions and measurement equipment conditions, the drawn fiber is expected to achieve the performances as stated in table 3.
When 85% of the drawn fibre achieve the expected performance, settlement of the preform shall made according the relevant terms of the main contract .
When 85% of the drawn fiber does not achieve the expected performance and the main rejection is caused by preform quality, the supplier will compensate the fiber lose by preform.
3. The calculation definition of qualified fiber proportion is shown as follows:
Qualified Fiber proportion = Lqualified fiber length(km) / Lexpected drawing fiber length(km) * 100%
1. Preform supplier warrants that the delivered preform meet this specification(Table 1&2). If the preform does not appear to meet a specification ad evaluated based on this specification and preform supplier agrees such non-conforming condition, preform supplier will replace or compensate.
2. Assuming optimum and stable drawing conditions and measurement equipment conditions, the drawn fiber is expected to achieve the performances as stated in table 3.
When 85% of the drawn fibre achieve the expected performance, settlement of the preform shall made according the relevant terms of the main contract .
When 85% of the drawn fiber does not achieve the expected performance and the main rejection is caused by preform quality, the supplier will compensate the fiber lose by preform.
3. The calculation definition of qualified fiber proportion is shown as follows:
Qualified Fiber proportion = Lqualified fiber length(km) / Lexpected drawing fiber length(km) * 100%
1. Each preform will be packed in a box so that it could not be damaged during transportation.
2. Reform shall be wrapped in PE sheet and must with the ID lable mark for identification.
3. Preform shall be wrapped in Air bubble PE sheet securely.
4. Preform shall be supplied into wooden box (8 preforms per carton) with foamed PU bulk package.
5. An ID card of basic imformation shall be attached to each preform.Detail are as follow.
1. Each preform will be packed in a box so that it could not be damaged during transportation.
2. Reform shall be wrapped in PE sheet and must with the ID lable mark for identification.
3. Preform shall be wrapped in Air bubble PE sheet securely.
4. Preform shall be supplied into wooden box (8 preforms per carton) with foamed PU bulk package.
5. An ID card of basic imformation shall be attached to each preform.Detail are as follow.