STANDARD TABLES
The following pages list the standard fibers, cables, connectors, lenses, and laser head adaptors available from OZ Optics. Accompanying
each table are technical notes to help you make the most informed decision possible. Use these tables to pick the best components foryour application. Non-standard components can be made available at the customer's request. Contact OZ Optics for more information.

Table 1A: Standard Singlemode Fibers
Bar
Code

1197
14579
1202
1204
17333
10106
10108
1215
1217

Part Number

QSMF-3202/125-0.25-L5
QSMF-4003/125-0.25-L5
QSMF-4883.5/125-0.25-L5
QSMF-4883.5/125-3-L5
SMF-633-4/
125-0.25-NF-L
SMF-633-4/
125-1-L
SMF-633-4/
125-3-L
SMF-780-5/
125-0.25-L
SMF-780-5/
125-3-L

OperatingWavelength
Range1 (nm)CutoffWavelength
(nm)2

Core
Diameter(µm)

Cladding
Diameter(µm)

Mode Field
Diameter (µm)

Attenuation(dB/km)Numerical
Aperture(Manufacturer's Specs)3

Effective
Numerical
Aperture(1/e2)3

320-400<300

2±1

125 ± 32.2 (Typical)

200 @ 340 to
360 nm0.12 ± 0.03

400-450<400

2.5/3.0

125 ± 24.0 (Typical)<60 @ 400 nm

0.12

450-650<4403.5 ± 0.5

125+3/-1

4.2 (Typical)<30 @ 488 nm

0.12

450-650<4403.5 ± 0.5

125 +3/-1

4.2 (Typical)<30 @ 488 nm

0.12

600-850<600

4125 ± 24.0 ± 0.5

<12

0.13

600-850<600

4.0

125 ± 24.0 ± 0.5

<12

0.13

600-850<600

4.0

125 ± 24.0 ± 0.5

<12

0.13

780-980<770

4.9

125 ± 15.4 ± 1.0

<4

0.11

780-980<770

4.9

125 ± 15.4 ± 1.0

<4

0.11

2.1 @ 980 nm
1.5 @ 1060 nm

0.14

0.11 @
1060 nm

0.25

0.093 @
320 nm
0.065 @
400 nm
0.074 @
488 nm
0.074 @
488 nm0.10 @
633 nm0.10 @
633 nm0.10 @
633 nm
0.092 @
780 nm
0.092 @
780 nmJacket or
Buffer
Diameter
(mm)4
0.25
0.25
0.25
3.0
0.25
0.9
3.0
0.25
3.0

1224

SMF-1060-6/
125-0.25-L

980-1550

<970

6.0

125 ± 0.5

5.9 ± 0.3 @980 nm
6.2± 0.3 @1060 nm1230

SMF-13009/125-0.25-L6

1290-1800

<1260

8.2

125 ± 0.7

9.2 ± 0.4 @1310 nm10.4 ± 0.8 @1550 nm<0.22 @ 1310 nm<0.35 @ 1550 nm

0.14

0.090 @
1300 nm0.095 @
1550 nm

0.25

1232

SMF-13009/125-1-L6

1290-1800

<1260

8.2

125 ± 0.7

9.2 ± 0.4 @1310 nm10.4 ± 0.8 @1550 nm<0.22 @ 1310 nm<0.35 @ 1550 nm

0.14

0.090 @
1300 nm0.095 @
1550 nm

0.9

11788

SMF-13009/125-2-L6

1290-1800

<1260

8.2

125 ± 0.7

9.2 ± 0.4 @1310 nm10.4 ± 0.8 @1550 nm<0.22 @ 1310 nm<0.35 @ 1550 nm

0.14

0.090 @
1300 nm0.095 @
1550 nm2.0

2749

SMF-13009/125-3-L6

1290-1800

<1260

8.2

125 ± 0.7

9.2 ± 0.4 @1310 nm10.4 ± 0.8 @1550 nm<0.22 @ 1310 nm<0.35 @ 1550 nm

0.14

0.090 @
1300 nm0.095 @
1550 nm

3.0

45429

SMF-20007/125-0.25-L

1850-2200

<1800

7

125 ± 18 µm @ 1950 nm

N/A

0.2

0.155 @
1950 nm0.25

Notes:
1
2
3

4
5
6

While the fibers will work over the entire operating range listed, it is recommended that one selects the fiber with the longest wavelength specifications that still operates
at your wavelength of interest. For instance, for 780 nm work we recommend selecting SMF-780-5/125 fiber over SMF-633-4/125 fiber.
If the fiber is used at wavelengths less than the cutoff wavelength, the fiber will still transmit light. However it will begin to behave like a multimode fiber. This is notdesired in most applications.
Most fiber manufacturers define the numerical aperture of their fibers based on the refractive indices of the core and cladding (i.e., NA = [NCO2 - NCL2]1/2). While thisdefinition is useful for step index multimode fibers, it is not a very accurate way to predict the far field behavior of light from singlemode fibers.
A more accurate technique is to use the Mode Field Diameter (MFD) for the light within the fiber to determine the far field. We can treat the output from the fibers as
being essentially Gaussian in behavior. If we then define the effective numerical aperture (NAeff) of the fiber as being the sine of the angle from the center to where theintensity drops to 1/e2 of the original value then one can show that NAeff = 2λ/πMFD. We have listed NAeff for each fiber at typical values for the mode field diameter andwavelength in the table.
The jacket diameters listed are for those fibers that come from the manufacturer pre-cabled. For short lengths of fibers OZ Optics can cable the fibers in a loose tube
cable. For instance, SMF-780-5/125-0.25-L fiber, which has a 0.25 mm coating diameter, can be cabled with a 0.9 mm diameter loose tubing to provide extra protection.
These fibers feature pure fused silica fiber cores for improved optical power handling.
Corning SMF-28 fiber is used for both 1300 nm and 1550 nm singlemode applications unless otherwise specified.

DTS0079

OZ Optics reserves the right to change any specifications without prior notice.

7 January 20161

Table 1B: Large Mode Area Fibers
Bar CodePart Number

OperatingWavelength
(nm)

Core
Diameter(µm)

Cladding
Diameter(µm)

Attenuation (dB/km)

Numerical Aperture

Buffer
Diameter(mm)

Buffer Material

36269

SMF-1060-20/125-0.25-L-LMA

1064

20

125

<10

0.10

0.25

Acrylate

35688

SMF-1060-25/125-0.25-L-LMA

1064

25

125

<10

0.10

0.25

Acrylate

35689

SMF-1060-25/250-0.4-L-LMA-DC

1064

25

250

<10

0.06

0.40

Acrylate

Table 2A: Standard Polarization Maintaining Fibers1
Attenuation(dB/km)Numerical
Aperture(Manufacturer's
Specs)4

Effective
Numerical
Aperture(1/e2)4

Jacket or
Buffer
Diameter(mm)5JacketMaterial

Polarization
Crosstalk(dB/100m)

2.3 @ 350 nm
2.6 @ 405 nm

<200

0.12

0.097

0.25

Dual
Acrylate

<-20

125

3.1 (Typical)

<100

0.11

3.5

125

3.8 (Typical)

<50

0.11

<620

4

125

4.5 (Typical)

<12

0.11

630-820

<620

4

125

4.5 (Typical)

<12

0.11

760-980

<750

5

125

5.5 ± 1<3

0.11

760-980

<750

5

125

5.5 ± 1<3

0.11

980-1300

<970

6

125

6.6 ± 1<3

0.11

980-1300

<970

6

125

6.6 ± 1<3

0.111290-1550

<1280

7

125

9.5 ± 1

<1.0

0.11

1460-1800

<1450

8.7

125

10.5 ± 1

<0.5

0.11

1460-1800

<1450

8.7

125

10.5 ± 1

<0.5

0.11

1850-2200

<1800

7.0

125 ± 1

8.0

NA

0.2

OperatingBar
Wavelength
Part Number
Code
Range2(nm)
QPMF-3502/125-0.25-L

27626
29228
1170
1172
1174
1181
2813
3382
8574
4570
1194
4550
44065

QPMF-4003/125-0.25-L6
QPMF-4883.5/125-1-L6
PMF-633-4/
125-0.25-L
PMF-633-4/
125-1-L
PMF-850-5/
125-0.4-L
PMF-850-5/
125-0.25-L
PMF-980-6/
125-0.4-L
PMF-980-6/
125-0.25-L
PMF-13007/125-0.25-L
PMF-15508/125-0.4-L
PMF-15508/125-0.25-L
PMF-20007/125-0.25-L

CutoffWavelength
(nm)3

Core
Diameter(µm)

Cladding
Diameter(µm)

Mode Field
Diameter(µm)

350-440

<340

2

125

405-480<400

3.0

480-630<470

630-8200.082 @
400 nm0.082 @
488 nm0.089 @
633 nm0.089 @
633 nm
0.098 @
850 nm
0.098 @
850 nm
0.095 @
980 nm
0.095 @
980 nm0.088 @
1310 nm0.094 @
1550 nm0.094 @
1550 nm0.155 @
1950 nm

0.9
0.9
0.25
0.9
0.40
0.25
0.40
0.25
0.25
0.40
0.25
0.25

Dual
Acrylate
Acrylate /
Nylon
Dual
Acrylate
Acrylate /
Nylon
Dual
Acrylate
Dual
Acrylate
Dual
Acrylate
Dual
Acrylate
Dual
Acrylate
Dual
Acrylate
Dual
Acrylate
Dual
Acrylate

<-20
<-25
<-25
<-25
<-25
<-25
<-25
<-25
<-25
<-25
<-25
<-20

Table 2B: PM Large Mode Area Fibers7
Bar CodePart Number

OperatingWavelength
Range2(nm)

CutoffWavelength
(nm)3

Core
Diameter(µm)

Numerical
Cladding
Attenuation
Aperture
Diameter(dB/km)(Manufacturer's(µm)
Specs)4

Jacket or
Buffer
Diameter(mm)5JacketMaterial

Polarization
Crosstalk(dB/100m)

37895

PMF-1064-10/125-0.25-L

980-1100

<980

10

125

<5.0

0.085

0.25

Dual
Acrylate

<-30

50553

PMF-1064-20/125-0.25-L-PLMA

920-1100

<900

20

125

<5.0

0.08

0.25

Dual
Acrylate

<-30

52625

PMF-1064-25/250-0.4-L-LMA

920-1100

<900

25

250

<5.0

0.08

0.1

Dual
Acrylate<-30

Notes:
1

All standard polarization maintaining (PM) fibers are based on the PANDA PM fiber structure. Other types are available on request.

2 While the fibers will work over the entire operating range listed, it is recommended that one selects the fiber with the longest wavelength specifications that still operates atyour wavelength of interest. For instance, for 820 nm work we recommend selecting PMF-850-5/125 fiber over PMF-633-4/125 fiber.
3 If the fiber is used at wavelengths less than the cutoff wavelength, the fiber will still transmit light. However it will begin to behave like a multimode fiber. It will no longer work

like a polarization maintaining fiber.
4 Most fiber manufacturers define the numerical aperture of their fibers based on the refractive indices of the core and cladding (i.e., NA = [NCO2 - NCL 2]1/2). While thisdefinition is useful for step index multimode fibers, for singlemode fibers, it is not a very accurate way to predict the far field behavior of light from the fiber. A moreaccurate technique is to use the Mode Field Diameter (MFD) for the light within the fiber to determine the far field. We can treat the output from the fibers as being
essentially Gaussian in behavior. If we then define the effective numerical aperture (NA eff) of the fiber as being the sine of the angle from the center to where the intensity
drops to 1/e2 of the original value then one can show that NAeff = 2λ/πMFD. We have listed NA eff for each fiber at typical values for the mode field diameter andwavelength in the table.
5

The jacket diameters listed are for those fiber that come from the manufacturer pre-cabled. For short lengths of fibers OZ Optics can cable the fibers in a loose tube cable.
For instance, PMF-1550-8/125-0.4-L fiber, which has a 0.4 mm coating diameter, can be cabled with a 0.9 mm diameter loose tubing to provide extra protection.

6

These fibers feature pure fused silica fiber cores for improved optical power handling.

7

Single clad passive PM fiber.
2

Table 3: Standard Graded Index Multimode Fibers1
Bar CodePart Number

OperatingWavelength Range(nm)

Core Diameter(µm)

Cladding
Diameter (µm)

Attenuation (dB/km)

Numerical Aperture2

Jacket or Buffer
Diameter (mm)16149

MMF-IRVIS-50/1250.25-L

400-1800

50 ± 3125 ± 2≤2.5 @ 850 nm≤0.8 @ 1300 nm

0.200 ± 0.015

0.25

1235

MMF-IRVIS-50/125-1-L

400-1800

50 ± 3125 ± 2≤2.5 @ 850 nm≤0.8 @ 1300 nm

0.200 ± 0.015

0.9

1236

MMF-IRVIS-50/125-3-L

400-1800

50 ± 3125 ± 2≤2.5 @ 850 nm≤0.8 @ 1300 nm

0.200 ± 0.015

3.0

3715

MMF-IRVIS-62.5/
125-0.25-L

400-1800

62.5 ± 3

125 ± 2≤3.0 @ 850 nm≤0.7 @ 1300 nm

0.275 ± 0.015

0.25

1237

MMF-IRVIS-62.5/
125-1-L

400-1800

62.5 ± 3

125 ± 2≤3.0 @ 850 nm≤0.7 @ 1300 nm

0.275 ± 0.015

0.9

1238

MMF-IRVIS-62.5/
125-3-L

125 ± 2≤3.0 @ 850 nm≤0.7 @ 1300 nm

0.275 ± 0.015

3.0

1240

MMF-IRVIS-100/
140-1-L

400-1800

100 ± 3140 ± 4≤6.0 @ 850 nm≤3.0 @ 1300 nm

0.29 ± 0.02

0.9

1241

MMF-IRVIS-100/
140-3-L

400-1800

100 ± 3140 ± 4≤6.0 @ 850 nm≤3.0 @ 1300 nm

0.29 ± 0.02

3.0

400-1800

62.5 ± 3

Notes:
1
2

Corning graded index fibers used for 50/125, 62.5/125, and 100/140 fiber sizes.
According to Corning's definition of the numerical aperture for graded index multimode fibers (EIA/TIA-455-177A), when all modes are uniformly excited in graded index
multimode fiber, then the intensity of the output light is 5% of the center intensity at the angle whose sine equals the numerical aperture. This is the definition used for ourcoupler, collimator, and focuser calculations when using these fibers. Assuming that the overall intensity pattern (i.e., ignoring modal noise) is Gaussian in behavior, we
can calculate the Gaussian beam size as 81.7% the size calculated from the numerical aperture.

Table 4: Standard Step Index Multimode Fibers For Visible And Ultraviolet Wavelengths
Core
Wavelength
Diameter
Range (nm)(µm)

Jacket or
Numerical
BufferAperture Diameter(mm)

Cladding
Diameter
(µm)

Other
Coatings(µm)

Attenuation(dB/km)1

10 ± 2125 ± 3N/A<100 @ 380-870 nm

0.10

0.25

Fused Silica

180-900

25 ± 4125 +3/-0

N/A<100 @ 380-870 nm

0.10

0.25

Fused Silica

QMMF-UVVIS-50/125-0.25-L

200-900

50 ± 1125 ± 3N/A<100 @ 300-900 nm<1000 @ 220-300 nm

0.22

0.25

Fused Silica

1253

QMMF-UVVIS-50/125-0.25-L-NA=0.12

200-900

50 ± 1125 ± 3N/A<100 @ 300-900 nm<1000 @ 220-300 nm

0.12

0.25

Fused Silica

1271

QMMF-UVVIS-100/140-0.25-L

200-900

100 ± 2140 ± 3N/A<100 @ 300-900 nm<1000 @ 220-300 nm

0.22

0.25

Fused Silica

1287

QMMF-UVVIS-200/240-0.4-L

200-900

200 ± 5240 ± 5Hard Coat
260 ± 5<100 @ 380-900 nm<1000 @ 250-380 nm

0.22

0.375

Fused Silica

27638

QMMJ-UVVIS-300/330-0.53-L

200-900

300 ± 6330 ± 7

Buffer430 ± 13<100 @ 300-900 nm<1000 @ 220-300nm

0.22

0.53

Fused Silica

Hard Coat
425 ± 10
Buffer540 ± 16
Hard Coat
630 ± 10
Buffer810 ± 25
Buffer980 ± 30
Hard Coat
630 ± 10<100 @ 380-900 nm<1000 @ 250-380 nm<100 @ 300-900 nm<1000 @ 220-300nm<100 @ 380-900 nm<1000 @ 250-380 nm<100 @ 300-900 nm<1000 @ 220-300 nm<100 @ 300-900 nm<1000 @ 220-300nm<100 @ 380-900 nm<1000 @ 250-380 nm

0.22

0.73

Fused Silica

0.22

0.64

Fused Silica

0.22

0.75

Fused Silica

0.22

1.2

Fused Silica

0.22

1.08

Fused Silica

0.22

1.4

Fused Silica

Bar
Code

Part Number

1247

QMMF-UVVIS-10/125-0.25-L-NA=0.1

180-900

1251

QMMF-UVVIS-25/125-0.25-L-NA=0.1

1259

1294

QMMF-UVVIS-365/400-0.73-L

200-900

365 ± 10400 ± 106068

QMMF-UVVIS-400/440-0.64-L

200-900

400 ± 8440 ± 91793

QMMF-UVVIS-550/600-0.75-L

200-900

550 ± 12600 ± 102838

QMMF-UVVIS-600/660-1.2-L

200-900

600 ± 12660 ± 1327640

QMMF-UVVIS-800/880-1-L

200-900

800 ± 16880 ± 181302

QMMF-UVVIS-940/1000-1.4-L

200-900940 ± 151000 ± 15

Cladding
Material

Notes:
1

The attenuation of these fibers is highly wavelength dependent. For detailed attenuation versus wavelength data contact OZ Optics.

2

For maximum power handling, the input light must be focused such that the focused spot size is about 70% of the fiber core size, while the NA of the focused rays should
be between 30% and 90% of the NA of the fiber. We strongly recommend using high power, air gap design connectors for very high power coupling applications.

3Power handling for pulsed laser light is dependent on the pulse energy, duration, and wavelength. Contact OZ for power handling for pulsed laser applications.

4

While OZ Optics believes this information to be reliable, it is only provided as a general guide, and can be greatly affected by individual circumstances. OZ Optics offers
no warranties as to its accuracy, and disclaims any liability in connection to its use.

3

Table 5: Standard Step Index Multimode Fibers For Infrared And Visible Wavelengths
Bar
Code

Part Number

Wavelength
Range (nm)Core
Diameter(µm)

Cladding
Diameter(µm)

Other Coatings(µm)

Attenuation(dB/km)1

Numerical
Aperture

Jacket or
Buffer
Diameter(mm)

Cladding
Material

1252

QMMF-IRVIS-50/125-0.25-L

350-2400

50 ± 2125 ± 3N/A

10dB peak @ 1390 nm<10 @ 630-1800 nm

0.22

0.25

Fused Silica

1263

QMMF-IRVIS-50/125-3-L

350-210050 ± 2125 ± 3N/A

20dB peak @ 1390 nm<10 @ 630-1800 nm

0.22

3.0

Fused Silica

1268

QMMF-IRVIS-100/140-0.25-L

350-2100

100 ± 2140 ± 3N/A

20dB peak @ 1390 nm<10 @ 630-1800 nm

0.22

0.25

Fused Silica

1282

QMMF-IRVIS-200/230-0.5-L

500-1500

200 ± 4230 +0/-10

N/A≤20 @ 530-1100 nm
29 @ 1300 nm

0.37

0.50

Polymer1288

QMMF-IRVIS-200/240-0.4-L

400-2100

200 ± 5240 ± 5Hard Coat 260 ± 5<10 @ 630-1900 nm

0.22

0.4

Fused Silica

2512

QMMF-IRVIS-300/330-0.65-L

500-1500

300 ± 6330 +5/-10

N/A

0.37

0.65

Polymer

3297

QMMF-IRVIS-365/400-0.73-L

400-2100365 ± 14400 ± 8Hard Coat 425 ± 10

0.22

0.73

Fused Silica

1809

QMMF-IRVIS-400/430-0.73-L

500-1500

400 ± 8430 +5/-10

N/A

0.37

0.73

Polymer

2739

QMMF-IRVIS-400/440-0.6-L

350-2100

400 ± 8440 ± 9Buffer 540 ± 17

0.22

0.64

Fused Silica

1298

QMMF-IRVIS-550/600-0.75-L

400-2100

550 ± 12600 ± 10

Hard Coat 630 ± 10

<10 @ 630-1900 nm

0.22

0.75

Fused Silica

N/A≤20 @ 530-1100 nm
29 @ 1300 nm

0.37

1.04

Polymer<10 @ 630-1900 nm

0.22

1.40

Fused Silica≤20 @ 530-1100 nm
29 @ 1300 nm

0.37

1.40

Polymer

1299

QMMF-IRVIS-600/630-1-L

500-1500

600 ± 10 630 +5/-10

1790

QMMF-IRVIS-940/1000-1.4-L

400-2100940 ± 151303

QMMF-IRVIS-1000/1035-1.4-L

500-1500

1000 ± 15 Hard Coat 1035 ± 151000 ± 15 1035 ± 15

N/A

≤20 @ 530-1100 nm
29 @ 1300 nm
20dB peak @ 1390 nm<10 @ 630-1800 nm≤20 @ 530-1100 nm
29 @ 1300 nm
20dB peak @ 1390 nm<10 @ 630-1800 nm

Notes:
1

The attenuation of these fibers is wavelength dependent. For detailed attenuation versus wavelength data contact OZ Optics.

2

For maximum power handling, the input light must be focused such that the focused spot size is about 70% of the fiber core size, while the NA of the focused rays should
be between 30% and 90% of the NA of the fiber. We strongly recommend using high power, air gap design connectors for very high power coupling applications.

3Power handling for pulsed laser light is dependent on the pulse energy, duration, and wavelength. Contact OZ for power handling for pulsed laser applications.

4

While OZ Optics believes this information to be reliable, it is only provided as a general guide, and can be greatly affected by individual circumstances. OZ Optics offers
no warranties as to its accuracy, and disclaims any liability in connection to its use.

4

Table 6A: Standard Connectors And Connector Finishes*
Connector
Code

Connector Type1

Endface Polish2

Return Loss Return Loss
Comments(Free Space)3 (Connected)41

1.8 mm diameter ferrule

Flat-14 dB

N/A5

Used for pigtailing only.

1A

1.8 mm diameter ferrule

8 Degree Angled-65 dB

N/A5

Used for pigtailing only.

1.25

1.25 mm diameter ferrule

Flat-14 dB

N/A5

Used for pigtailing only.

1.25A

1.25 mm diameter ferrule

8 Degree Angled-65 dB

N/A5

Used for pigtailing only.
Used for pigtailing only.

1.4

1.4 mm diameter ferrule

Flat-14 dB

N/A5

1.4A

1.4 mm diameter ferrule

8 Degree Angled-65 dB

N/A5

Used for pigtailing only.

2F

2 mm diameter ferrule

Flat-14 dB

N/A5

Used for pigtailing only.

2A

2 mm diameter ferrule

8 Degree Angled-65 dB

N/A5

Used for pigtailing only.
Used for pigtailing only.

2.5

2.5 mm diameter ferrule

Flat-14 dB

N/A5

2.5A

2.5 mm diameter ferrule

8 Degree Angled-65 dB

N/A5

Used for pigtailing only.

3

NTT-FCFlat-14 dB<-11 dBUse for multimode fibers.

3S

NTT-FC

Super PC

-14 dB<-40 dB

Standard single mode and polarization maintaining fiber connector.
Highly recommended.

3U

NTT-FC

Ultra PC

-14 dB<-50 dB

Lower return loss version of the 3S connector. Also highly
recommended for telecom.

3A

NTT-FC

8 Degree Angled PC (APC)-65 dB<-60 dB

Lowest return loss FC connector design.

3AF

NTT-FC

8 Degree Angled PC (APC)-65 dB

NA6

Special Angled flat version of the FC design to give low return loss,
excellent repeatability for free space couplers and collimators.

A3

Adjustable NTT-FC

Flat-14 dBNA6

For couplers and collimators designs with adjustable focus.

A3A

Adjustable NTT-FC

8 Degree Angled PC (APC)-65 dBNA6

Low return loss version of the A3 connector.

5

SMA 905Flat-14 dB<-11 dB

Recommended for large core multimode fibers.

5HP

SMA 905

Flat, Air Gap-14 dB<-11 dB6

SMA 906Flat-14 dB<-11 dB

Special version of the SMA-905 connector, with the tip of the fiber
epoxy free to avoid out-gassing.
Lower losses than SMA-905 when connecting 2 fibers. Not often
used.

8

AT&T-ST

Super PC

-14 dB<-40 dB

Common in multimode and singlemode telecom systems.

SC

SC

Super PC

-14 dB<-40 dB

Increasingly used in telecom.

SCU

SC

Ultra PC

-14 dB<-50 dB

Lower return loss version of the SC.

SCA

SC

8 Degree Angled PC (APC)-65 dB<-60 dB

Lowest return loss SC connector design.

LC

LC

Super PC

-14 dB<-40 dB

Small form factor connector, to increase connection density.

LCU

LC

Ultra PC

-14 dB<-50 dB

Lower return loss version of the LC.

LCA

LC

8 Degree Angled PC (APC)-65 dB<-60 dB

Low return loss version of the LC.

MU

MU

Super PC

-14 dB<-40 dB

Alternative to the LC design. Used more outside North America.

E

E2000

Super PC

-14 dB<-40 dB

Increasingly popular in Europe. Has built in safety shutter.

EA

E2000

8 Degree Angled PC (APC)-65 dB<-60 dB

Low return loss version of E2000 connector.

MD

DMI

Super PC

-14 dB<-40 dB

Miniature connector for dense connector packaging.

MDA

DMI

8 Degree Angled PC (APC)-65 dB<-60 dB

Low return loss version of DMI connector.

X

No Connector

No finish

N/A

N/A

Notes:
1

Connector type refers to the most common industry name for the connector.

2

See Table 6B for a detailed description of the different connector finishes.

3

Refers to the return loss seen reflected from the connector as light travels out of the fiber and into air.

4

Refers to the return loss seen when two identical connectors are mated using a sleeve thru connector.

5

These codes are for ferrules only, and are not designed to mate together in a connector.

6

These connectors are intended for use in free space applications only, such as collimators or focuser assemblies, not to be mated in a connector.

*

Special connectors for high power patchcords are also available. See the “High Power/Temperature Patch and Connectors” data sheet for details.

5

Table 6B: Description Of Connector Finishes
Polish Type

Appearance

Applications

Return Loss

Connectors

Multimode Fibers-11 dB1, 1.25, 1.4, 1.8 2F, 2.5,
3, 5, 5HP, 6, A3

Super PC

Standard Singlemode and PM Fibers-40 dB3S, 8, SC, LC, MU, E,
MD, M8Ultra PC

SM and PM systems needing low return loss
when parts are connected-50 dB3U, 8U, SCU, STU,
LCU

Angled PC (APC)

Systems needing lowest return losses at all times -60 dB

3A, SCA, LCA, A3A,
MDA

Angled Flat (AFC)Fiber to free space delivery systems needing
both low return losses and good repeatability
when mated to lenses

1A, 1.25A, 1.4A, 2A,
2.5A, 3AFFlat

-60 dB

6

Table 7: Standard Cable Construction
JacketCode

ID (mm)0.25 or 0.4

N/A

OD
(mm)

Material / Applications

Construction

PictureFiber

0.25 or Uncabled. Base coating on
0.4
the fiber only.
0.25mm

0.55
(REF)

1*

2*

1.04

0.9

(loose tube or tight buffer)1
Minimal Protection. Used
when space is an issue.

2.0

PVC jacketed cable, with
Kevlar fiber reinforcement.
Used with LC and MU
connectors.

HytrelTubing0.9mm
CoatedFiber

Polypropylene
TubingKevlarFibersCoatedFiber

PVC
Tubing2.0mm

KevlarFibersPolypropylene
Tubing

3*

1.04

3.0

None

Acrylate
Coating

0.125mm

PVC jacketed cable, with
Kevlar fiber reinforcement.1
Standard for mostapplications.

3.0mm
CoatedFiber

PVC
TubingStainless
Steel Coil

3A

1.57

3.0

Stainless steel coil armor, withblack PVC jacket. Used inindustrial environments, andwith high power lasers,

PVC
Tubing3.0mm

CoatedFiber
3.0 mmStainless Steel
Helical Coil

3AS

1.8

3.0

Stainless Steel (Helical) Cable.
Can be sterilized. Used mostly
with medical applications andhigh power lasers.
Fiber

5A

2.5

5.0

Stainless steel coil armor, withblack PVC jacket, Kevlar fiber
reinforcement. As per 3A
cable, but with extra
reinforcement for strain relief.

Stainless
Steel Coil

PVC
TubingFiber

BraidedFiber
Sheath5.0mm

Stainless Steel
Helical Coil

5AS

3.1

5.2

Stainless Steel (Helical) Cable.
Heavy duty version of 3AS
cable.

5.2 mmFiber

Notes:

1

If the fiber is already offered in our standard tables with a coating code of 1 or 3, then the fiber is already precabled with 900 micron tight buffering protecting
the coated fiber. Otherwise loose tubing is used to cable the fiber.

* OZ Optics offers different 0.9 OD loose tube jacketing materials (Hytrel, PVDF, Teflon) and a variety of colors. We also offer different colors for 2 mm OD and
3 mm OD PVC jacketing. Refer to the options below.

Custom Jacket Material and color codes for 0.9mm, 2mm, and 3mm cables
0.9mm OD loose Hytrel tubing jacket
1HYBL
BLUE
1HYBK
BLACK
1HYWT
WHITE (NATURAL)
1HYRD
RED
1HYVL
VIOLET
1HYYL
YELLOW
1HYGR
GREEN

0.9mm OD tight buffer jacket
1TBBL
BLUE
1TBBK
BLACK
1TBOR
ORANGE
1TBWT
WHITE
1TBYL
YELLOW

0.9mm OD loose PVDF tubing jacket
1PDBL
BLUE
1PDWT
WHITE

0.9mm OD loose Teflon tubing jacket
1TEBL
BLUE
1TEBR
BROWN
1TEYL
YELLOW

3mm OD PVC jacket
3PCBL
BLUE
3PCBK
BLACK
3PCOR
ORANGE
3PCYL
YELLOW

2PCBL
2PCYL

2mm OD PVC jacket
BLUE
WHITE

7

Table 8: Standard Laser Head Adapters1
Bar Code

Adapter Number (LH) Description

817

1

1"-32 TPI Male threaded adapter

830

21.75" O.D. Disk adapter with 4 holes on corners of a 1" square825

3

3/4"-32 TPI Male threaded adapter

826

45/8"-32 TPI Male threaded adapter

824
919
834
938
939
841
835
851
931
800
836
802
850
765
928
837
15351
15368
19791

5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23

1/2"-20 TPI Male threaded adapter
5/8"-25 TPI Male threaded adapter
1.75" O.D. Female Adapter for cylindrical lasers without any mounting holes
1.50" O.D. Female Adapter for cylindrical lasers without any mounting holes
35mm O.D. Female Adapter for cylindrical lasers without any mounting holes
1.25" O.D. Female Adapter for cylindrical lenses without any mounting holes
Post mount adapter with an M6 and a 1/4"-20 TPI hole
25mm O.D. Male Laser Head Adapter
M24x1 Male Laser Head Adapter
1.15" O.D. Disk Adapter with 4 holes on a 0.625" square
1.75" O.D. Disk Adapter with 4 holes on 1" square and 1"-32 TPI female thread in the middle
1/2"-40 TPI Male Laser Head Adapter
35mm O.D. Disk Adapter with 4 holes on a 27mm bolt circle
5/8"-24 TPI Female Laser Head Adapter
2.75" O.D. Disk Adapter with 3 holes on a 2.25" diameter bolt circle
1.75" O.D. Disk Adapter with 4 holes on a 35mm diameter bolt circle
1.75" O.D. Disk Adapter with 3 holes on a 1.15" diameter bolt circle
1.75" O.D. Disk Adapter with 3 holes on a 1.15" diameter bolt circle and 3/4"-32 TPI female thread in the middle
1.75" O.D. Disk Adapter with 4 holes on a 35mm diameter bolt circle and 1"-32 TPI female thread in the middle

Notes:
1

Mechanical drawings of the laser head adaptors can be found on our website at http://www.ozoptics.com/products/drawings.html

Table 9: Standard Achromat Lenses
Outer
Diameter
(mm)

Clear
Aperture(mm)

DesignWavelength(nm)

ReturnLosses(dB)1

Suitable Collimator and
Coupler Part Prefixes2

Suitable Focuser Part
Prefixes2

2.73

2

1.75

400-700-40

LPC-01, LPC-02, LPC-03,
HPUCO-2X, LPSC-03,
HPUC-2X

LPF-01, LPF-02, LPF-03,
HPUFO-2X

4.5

3.2

3

2.5

400-700

-40

6AC

6

5.2

3

2.5

400-700

-40

44060

7.5AC

7.5

4.45

6.25

5.6

400-1000

-40

15550

6AG3

6

4.4

6.35

3.5

300-4004-40

574

6.3AG4

6.3

2.5

12.5

2

400-700

-40

1631

10AC

10

7.6

6

5.5

400-700

-40

581

10AC

10

7.6

6

5.5

780-16005-40, -60

583

16AC

16

13.4

8

7.5

400-700

N/A

LPC-02, LPC-03, LPC-04,
LPC-0T, HPUCO-2X,
LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04,
LPC-0T, HPUCO-2X,
LPSC-03, HPUC-2X
HPUCO-2X, HPUC-2X

584

20AC

20

18.5

10

9.5

400-7005

N/A

HPUCO-2X, HPUC-2X

HPUFO-2X

3373

20AC

20

17

10

9.5

780-16005

N/A

HPUCO-2X, HPUC-2X

HPUFO-2X

588

25AC

25

22.4

12.5

12

400-700

N/A

HPUCO-2X, HPUC-2X

HPUFO-2X

589

25AC

25

22.2

12

11

780-16005

N/A

HPUCO-2X, HPUC-2X

HPUFO-2X

590

30AC

30

27.5

12

11

400-700

N/A

HPUCO-2X, HPUC-2X

HPUFO-2X

593

35AC

35

32.4

12.5

12

400-700

N/A

HPUCO-2X, HPUC-2X

HPUFO-2X

595

44AC

44

41.1

14

13

400-700

N/A

HPUCO-2X, HPUC-2X

HPUFO-2X

5888
596

44AC
50AC

44
50

41.1
46.4

14
20

13
19

780-16005
400-700

N/A
N/A

HPUCO-2X, HPUC-2X
HPUCO-2X, HPUC-2X

HPUFO-2X
HPUFO-2X

5039

50AC

50

46.4

20

19

780-16005

N/A

HPUCO-2X, HPUC-2X

HPUFO-2X

Focal Length Back Focal(mm)
Length (mm)Bar Code

Lens ID

570

3.5AC

3.5

20916

4.5AC

1804

LPC-01, LPC-02, LPC-03,
LPF-01, LPF-02, LPF-03,
HPUCO-2X, LPSC-03,
HPUFO-2X
HPUC-2X
LPC-01, LPC-02, LPC-03,
LPF-01, LPF-02, LPF-03,
HPUCO-2X, LPSC-03,
HPUFO-2X
HPUC-2X
LPC-02, LPC-03, LPC-04,
LPF-02, LPF-03, LPF-04,
LPC-0T, HPUCO-2X,
LPF-0T, HPUFO-2X
LPSC-03, HPUC-2X
LPC-01, LPC-02, LPC-03,
LPF-02, LPF-03, LPF-04,
LPC-04, LPC-0T, HPUCOLPF-0T, HPUFO-2X
2X, LPSC-03, HPUC-2X
HPUCO-2X, HPUC-2X
HPUFO-2X
LPF-02, LPF-03, LPF-04,
LPF-0T, HPUFO-2X
LPF-02, LPF-03, LPF-04,
LPF-0T, HPUFO-2X
HPUFO-2X

Notes:
1
2
3
4
5

Refers to LPC, LPF, and LPSC product prefix codes only. HPUC, HPUCO and HPUFO return losses depend on the connector type.
Refer to the data sheets on laser to fiber couplers, and fiber optic collimators and focusers for an explanation of these part number prefixes.
The 6AG lens is a doublet lens but it is not a true achromat lens. It is optimized to correct spherical aberration in the UV range, and not chromatic aberration. Whenordering parts using these lenses, please specify the actual operating wavelength for the device.
The 6.3AG lens is an air-spaced achromat specifically designed for very high power coupling applications.
While these lenses have MgF2 antireflection coatings for 780 nm to 1600 nm wavelengths, they are not achromatic over the wavelength specified. Instead they are
optimized to minimize aberration over the specified wavelength range. When ordering parts using these lenses, please specify the actual operating wavelength for the device. 8

Table 10A: Standard Grin Lenses
Bar
Lens ID
Code

Focal Length
(nm)

Back
Outer
DesignReturn
Focal
Diameter Wavelength Losses
Length
(mm)
(nm)
(dB)1
(mm)

5035

1.01GR

1.06 @ 1550 nm

0.13

1.0

1250-16003-40

LPC-01, LPC-02, LPC-03, LPC-05,
LPC-06, LPC-07, LPSC-03

LPF-01, LPF-02, LPF-03, LPF-05, LPF-06,
LPF-07421

1.81GR

1.78 @ 514 nm
1.84 @ 633 nm

0.17

1.8

488-6904-40

LPC-01, LPC-02, LPC-03, LPC-05,
LPC-06, LPSC-03

LPF-01, LPF-02, LPF-03, LPF-05, LPC-06

455

1.81GR

1.90 @ 830 nm

0.24

1.8

750-9004-40

LPC-01, LPC-02, LPC-03, LPC-05,
LPC-06, LPSC-03

LPF-01, LPF-02, LPF-03, LPF-05, LPC-06

493

1.81GR

1.95 @ 1550 nm

0.30

1.8

1250-16003-40, -50

LPC-01, LPC-02, LPC-03, LPC-05,
LPC-06, LPSC-03

LPF-01, LPF-02, LPF-03, LPF-05, LPC-06

458

1.9GR

1.94 @ 830 nm

-0.48

1.8

750-9004-40

N/A

LPF-01, LPF-02, LPF-03, LPF-05,
HPUFO-2X

500

1.9GR

1.99 @ 1550 nm

-0.50

1.8

1250-16003-40, -50 N/A

LPF-01, LPF-02, LPF-03, LPF-05,
HPUFO-2X

439

2.13GR

2.07 @ 830 nm

0.88

1.8

750-9004-40, -50

13303 2.13GR

2.10 @ 980 nm

0.89

1.8

810-13304

4124

2.13GR

2.13 @ 1550 nm

0.91

1.8

1250-16003

433

3.2GR

3.11 @ 633 nm

0.96

3.0

488-6904

2864

3.2GR

3.27 @ 1550 nm

1.01

3.0

1250-16003

2134

4.7GR

4.53 @ 633 nm

3.43

3.0

600-690

443

4.7GR

4.74 @ 780 nm

3.65

3.0

700-8504

2865

4.7GR

4.89 @ 1550 nm

3.76

3.0

1250-16003

445

6.6GR

6.22 @ 780 nm

4.71

4.0

700-8504

Suitable Collimator and Coupler
Part Prefixes2

LPC-01, LPC-02, LPC-03, LPC-05,
LPC-06, LPSC-03
LPC-01, LPC-02, LPC-03, LPC-05,-40, -50
LPC-06, LPSC-03
LPC-01, LPC-02, LPC-03, LPC-05,-40, -60
LPC-06, LPSC-03
LPC-01, LPC-02, LPC-03, HPUCO-2X,-40
LPSC-03, HPUC-2X
LPC-01, LPC-02, LPC-03, HPUCO-2X,-40
LPSC-03, HPUC-2X
LPC-01, LPC-02, LPC-03, HPUCO-2X,
LPSC-03, HPUC-2X
LPC-01, LPC-02, LPC-03, HPUCO-2X,-40
LPSC-03, HPUC-2X
LPC-01, LPC-02, LPC-03, HPUCO-2X,-40, -50
LPSC-03, HPUC-2X
-40

-40

LPC-02, LPC-03, LPC-04, HPUCO-2X
LPSC-03, HPUC-2X

Suitable Focuser Part Prefixes2

LPF-01, LPF-02, LPF-03, LPF-05, LPF-06
LPF-01, LPF-02, LPF-03, LPF-05, LPF-06
LPF-01, LPF-02, LPF-03, LPF-05, LPF-06
LPF-01, LPF-02, LPF-03, HPUFO-2X
LPF-01, LPF-02, LPF-03, HPUFO-2X
LPF-01, LPF-02, LPF-03, HPUFO-2X
LPF-01, LPF-02, LPF-03, HPUFO-2X
LPF-01, LPF-02, LPF-03, HPUFO-2X
LPF-02, LPF-03, LPF-04, HPUFO-2X

Notes:
1
2
3
4

Refers to LPC, LPF, and LPSC product prefix codes only. HPUC, HPUCO and HPUFO return losses depend on the connector type.
Refer to the data sheets on laser to fiber couplers, and fiber optic collimators and focusers for an explanation of these part number prefixes.
These lenses are achromatic in performance and will function properly over the entire wavelength range specified.
While these lenses have antireflection coatings for the wavelength ranges specified, they are not achromatic over the entire wavelength range. Only the lenses with thewavelength range listed as 1250-1600 nm are achromatic. When ordering parts for other wavelengths, please specify the actual operating wavelength for the device.

9

Table 10B: Standard C-Lenses
Bar
Lens ID
Code

Focal Length
(mm)

Back
Focal
Length(mm)

47807 1.01CL

1.05

0.13

1.0

1450-1650

20335 1.81CL

1.85

0.20

1.8

1510-1590

43202 2.61CL

2.61

0.5

1.8

440-700

42606 2.61CL

2.61

0.5

1.8

39944 2.61CL

2.68

0.23

43157 2.61CL

2.67

46603

3.2CL

46581

Outer
DesignReturnDiameter Wavelength Losses
(mm)
(nm)
(dB)1

Suitable Collimator and Coupler
Part Prefixes2

Suitable Focuser Part Prefixes2

LPC-01, LPC-02, LPC-03, LPC-05, LPC06, LPC-07, LPSC-03

LPF-01, LPF-02, LPF-03, LPF-05, LPF-06,
LPF-07-40,
LPC-01, LPC-02, LPC-03, LPC-05, LPC-50, -60 06, LPSC-03

LPF-01, LPF-02, LPF-03, LPF-05, LPF-06-40

LPC-01, LPC-02, LPC-03, LPC-05, LPC06, LPSC-03

LPF-01, LPF-02, LPF-03, LPF-05, LPF-06

770-890-40

LPC-01, LPC-02, LPC-03, LPC-05, LPC06, LPSC-03

LPF-01, LPF-02, LPF-03, LPF-05, LPF-06

1.8

1030-1090-40, -50

LPC-01, LPC-02, LPC-03, LPC-05, LPC06, LPSC-03

LPF-01, LPF-02, LPF-03, LPF-05, LPF-06

0.5

1.8

1290-1650-40,
LPC-01, LPC-02, LPC-03, LPC-05, LPC-50, -60 06, LPSC-03

LPF-01, LPF-02, LPF-03, LPF-05, LPF-06

3.2

0.95

3.0

600-700-40

LPC-01, LPC-02, LPC-03, LPSC-03

LPF-01, LPF-02, LPF-03

3.2CL

3.2

0.6

3.0

770-870-40

LPC-01, LPC-02, LPC-03, LPSC-03

LPF-01, LPF-02, LPF-03

41358

3.2CL

3.2

0.6

3.0

1030-1090-40, -50 LPC-01, LPC-02, LPC-03, LPSC-03

LPF-01, LPF-02, LPF-03

45426

3.2CL

3.2

0.95

3.0

1450-1650-40,
LPC-01, LPC-02, LPC-03, LPSC-03-50, -60

LPF-01, LPF-02, LPF-03

45674 4.75CL

4.75

3.56

3.0

450-650-40

LPC-01, LPC-02, LPC-03, LPSC-03

LPF-01, LPF-02, LPF-03

45617 4.75CL

4.75

3.56

3.0

600-700-40

LPC-01, LPC-02, LPC-03, LPSC-03

LPF-01, LPF-02, LPF-03

46604 4.75CL

4.79

3.6

3.0

700-900-40

LPC-01, LPC-02, LPC-03, LPSC-03

LPF-01, LPF-02, LPF-03-40

Notes:
1
2
3

4

Refers to LPC, LPF, and LPSC product prefix codes only. HPUC, HPUCO and HPUFO return losses depend on the connector type.
Refer to the data sheets on laser to fiber couplers, and fiber optic collimators and focusers for an explanation of these part number prefixes.
While these lenses have antireflection coatings for the wavelength ranges specified, they are not achromatic over the wavelength range. When ordering parts using
these lenses, please specify the actual wavelength for the device.
Refer to the data sheets on laser to fiber couplers and on fiber optic collimator and focusers for an explanation of these part number prefixes.

Table 10C: Standard Axial GRIN Lenses
Focal Length
(mm)

Back
Focal
Length(mm)

Outer
Diameter(mm)

DesignWavelength(nm)

ReturnLosses(dB)1

Suitable Collimator and Coupler
Part Prefixes2

Suitable Focuser Part Prefixes2

27079 10AGR

10

8

10

1064

-40

HPUCO-2X, HPUC-2X

HPUFO-2X

45422 10AGR

10

8

10

1250-1600-40, -50, -60

HPUCO-2X, HPUC-2X

HPUFO-2X

35815 18AGR

18

16.5

10

1064

-40

HPUCO-2X, HPUC-2X

HPUFO-2X

31911 18AGR

18

16.5

10

1000-1600-40

HPUCO-2X, HPUC-2X

HPUFO-2X

40010 30AGR

30

28.5

10

1064

-40

HPUCO-2X, HPUC-2X

HPUFO-2X

2730

30AGR

30

28.5

10

1550

40, -50, -60

HPUCO-2X, HPUC-2X

HPUFO-2X

2817

50AGR

50

49.1

20

850

-40

HPUCO-2X, HPUC-2X

HPUFO-2X

4070

50AGR

50

48.2

20

1250-1600

40, -50, -60

HPUCO-2X, HPUC-2X

HPUFO-2X

BC

Lens ID

Notes:
1

Refers to LPC, LPF, and LPSC product prefix codes only. HPUC, HPUCO and HPUFO return losses depend on the connector type.

2

Refer to the data sheets on laser to fiber couplers, and fiber optic collimators and focusers for an explanation of these part number prefixes.

3

Axial GRIN lenses are used for large beam, small spot size, high beam energy and where excellent wavefront quality is important. These premium lenses also benefit
from chromatic correction.
The design wavelength is the nominal center wavelength of the AR coating. For single wavelength specification, the typical bandwidth is ±30nm.

410Table 11A: Standard Aspheric Lenses
Bar
Lens ID
Code

Focal Length
(mm)

Back
AR Coating
Outer
Clear
Return
Focal
Wavelength
Diameter Aperture
LossesLength
Range
(mm)
(mm)
(dB)2
(mm)
(nm)1

501

1.1AS

1.13 @ 830 nm

1.154

2.4

1.13

600-1050

503

1.1AS

1.14 @ 1550 nm

1.164

2.4

1.13

1000-1650

Suitable Collimator and Coupler
Part Prefixes3

Suitable Focuser Part Prefixes3

N/A4

LPF-01,LPF-02, LPF-03, HPUFO-2X-40, -60 N/A4

LPF-01,LPF-02, LPF-03, HPUFO-2X-40

LPC-01, LPC-02, LPC-03, HPUCO-2X,-40
LPSC-03, HPUC-2X
LPC-01, LPC-02, LPC-03, HPUCO-2X,-40
LPSC-03, HPUC-2X
LPC-01, LPC-02, LPC-03, HPUCO-2X,-40, -60
LPSC-03, HPUC-2X
LPC-01, LPC-02, LPC-03, HPUCO-2X,-40
LPSC-03, HPUC-2X
LPC-01, LPC-02, LPC-03, HPUCO-2X,-40
LPSC-03, HPUC-2X
LPC-01, LPC-02, LPC-03, HPUCO-2X,-40, -60
LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40, -60
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40, -60
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-01, LPC-02, LPC-03, HPUCO-2X,-40
LPSC-03, HPUC-2X
LPC-01, LPC-02, LPC-03, HPUCO-2X,-40
LPSC-03, HPUC-2X
LPC-01, LPC-02, LPC-03, HPUCO-2X,-40, -60
LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40, -60
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40, -60
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X

3130

1.4AS

1.44 @ 633 nm

0.87

2.4

1.6

375-650

504

1.4AS

1.45 @ 830 nm

0.88

2.4

1.6

600-1050

505

1.4AS

1.47 @ 1550 nm

0.90

2.4

1.6

1000-1650

517

2AS

1.99 @ 633 nm

1.08

3.0

2.0

375-650519

2AS

2.00 @ 830 nm

1.09

3.0

2.0

600-1050

524

2AS

2.03 @ 1550 nm

1.10

3.0

2.0

1000-1650

506

2.7AS

2.70 @ 633 nm

1.73

4.0

3.0

375-650

507

2.7AS

2.73 @ 830 nm

1.76

4.0

3.0

600-1050

2055

2.7AS

2.76 @ 1550 nm

1.79

4.0

3.0

1000-1650

529

3.9AS

3.87 @ 633 nm

2.23

6.33

4.3

375-650

533

3.9AS

3.90 @ 830 nm

2.26

6.33

4.3

600-1050

536

3.9AS

3.95 @ 1550 nm

2.31

6.33

4.3

1000-1650

4512

5AS

4.95 @ 633 nm

4.31

2.00

1.5

375-6504514

5AS

5.00 @ 830 nm

4.36

2.00

1.5

600-1050

4516

5AS

5.07 @ 1550 nm

4.43

2.00

1.5

1000-1650

553

6.2AS

6.19 @ 633 nm

3.39

7.2

5.0

375-650

556

6.2AS

6.25 @ 830 nm

3.45

7.2

5.0

600-1050

557

6.2AS

6.34 @ 1550 nm

3.54

7.2

5.0

1000-1650

41436

7.5AS

7.43 @ 633nm

5.8

6.51

4.5

375-650

37036

7.5AS

7.5 @ 810nm

5.9

6.51

4.5

600-1050

10695

7.5AS

7.59 @ 1550nm

6.0

6.51

4.5

1000-1650

20066

8AS

7.90 @ 633 nm

5.73

9.94

8.6

345-650-40

LPC-08, HPUCO-2X, HPUC-2X

LPF-08, HPUFO-2X

560

8AS

8.00 @ 830 nm

5.83

9.94

8.6

600-1050-40

LPC-08, HPUCO-2X, HPUC-2X

LPF-08, HPUFO-2X

1803

8AS

8.11 @ 1550 nm

5.94

9.94

8.6

1000-1650-40, -60 LPC-08, HPUCO-2X, HPUC-2X

LPF-08, HPUFO-2X

2863

11AS

11.00 @ 633 nm

7.82

7.2

5.5

375-650562

11AS

11.14 @ 830 nm

7.96

7.2

5.5

600-1050

565

11AS

11.32 @ 1550 nm

8.14

7.2

5.5

1000-1650

20153 13.9AS

13.86 @ 633 nm

11.99

6.325

5.1

345-650

15053 13.9AS

13.95 @ 830 nm

12.08

6.325

5.1

600-1050

4515

13.9AS 14.24 @ 1550 nm

12.37

6.325

5.1

1000-1650

17173

18AS

18.2 @ 633 nm

16.8

6.50

5.5

375-650

16399

18AS

18.4 @ 830 nm

17.0

6.50

5.5

600-1050

15117

18AS

18.68 @ 1550 nm

17.28

6.50

5.5

1000-1650

LPC-02, LPC-03, LPC-04, LPC-0T,
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40, -60
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40, -60
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X
LPC-02, LPC-03, LPC-04, LPC-0T,-40, -60
LPC-08, HPUCO-2X, LPSC-03, HPUC-2X

LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X-40

LPF-01,LPF-02, LPF-03, HPUFO-2X
LPF-01,LPF-02, LPF-03, HPUFO-2X
LPF-01,LPF-02, LPF-03, HPUFO-2X
LPF-01,LPF-02, LPF-03, HPUFO-2X
LPF-01,LPF-02, LPF-03, HPUFO-2X
LPF-01,LPF-02, LPF-03, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-01,LPF-02, LPF-03, HPUFO-2X
LPF-01,LPF-02, LPF-03, HPUFO-2X
LPF-01,LPF-02, LPF-03, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X
LPF-02, LPF-03, LPF-04, LPF-0T,
LPF-08, HPUFO-2X

Notes:
1

2
3
4

While the coatings on the lenses are broadband in nature, the lenses themselves are not achromatic over the entire wavelength range. The lenses with the wavelength
range listed as 1000-1650 nm are achromatic over a 1250 to 1600 nm range. When ordering parts for other wavelengths, please specify the exact operating wavelength
for the device.
Refers to LPC, LPF and LPSC product prefix codes only. HPUC, HPUCO and HPUFO return losses depend on the connector type.
Refer to the data sheets on laser to fiber couplers, and fiber optic collimators and focusers for an explanation of these part number prefixes.
11
These lenses are designed for focuser applications only. For this lens only the working distance specified is the distance which produces a magnification of 4:1.

Table 11B: Aspherized Glass Lenses with Polymer1
Clear
Standard
ReturnDiameter
Aperture Wavelengths Losses
(mm)
(mm)
(nm)
(dB)2

Bar
Code

Lens ID

Focal Length(mm)

Back Focal
Length (mm)

40009

4.4AS

4.4

2.2

5.50

4.4

350-650

N/A

40040

4.4AS

4.4

2.2

5.50

4.4

780-1080

N/A

40041

4.4AS

4.4

2.2

5.50

4.4

1250-1650

N/A

39232

6.25AS

6.25

4.8

6.50

4.4

440-700

N/A

40051

6.25AS

6.25

4.8

6.50

4.4

780-1080

N/A

40052

6.25AS

6.25

4.8

6.50

4.4

1250-1650

N/A

40045

7.9AS

7.9

6.5

6.50

4.8

470-690

N/A

40046

7.9AS

7.9

6.5

6.50

4.8

780-1080

N/A

40047

7.9AS

7.9

6.5

6.50

4.8

1250-1650

N/A

40042

10.9AS

10.9

9.7

7.20

6.6

470-690

N/A

40043

10.9AS

10.9

9.7

7.20

6.6

780-1080

N/A

40044

10.9AS

10.9

9.7

7.20

6.6

1250-1650

N/A

40048

11.0AS

11

9.6

6.00

4.4

470-690

N/A

40049

11.0AS

11

9.6

6.00

4.4

780-1080

N/A

40050

11.0AS

11

9.6

6.00

4.4

1250-1650

N/A

Suitable Collimator and Coupler
Part Prefixes3

Suitable Focuser Part Prefixes3

HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02
HPUCO-2X, HPUC-2X, LPC-0T,
LPC-08, LPC-04, LPC-03, LPC-02

HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02
HPUFO-2X, LPF-0T, LPF-08,
LPF-04, LPF-03, LPF-02

Notes:
1

Suitable for low power applications. A thin layer of liquid UV cured polymer is moulded over the outer glass surface, providing diffraction limited beam quality and low
wave front abberation.
2 Refers to LPC, LPF and LPSC product prefix codes only. HPUC, HPUCO and HPUFO return losses depend on the connector type.
3 Refer to the data sheets on laser to fiber couplers, and fiber optic collimators and focusers for an explanation of these part number prefixes.

Table 12: Standard Plano-Convex and Biconvex Lenses
Clear
Standard
ReturnDiameter
Aperture Wavelengths Losses
(mm)
(mm)
(nm)
(dB)1

Bar
Code

Lens
ID

Focal Length(mm)

Back Focal
Length (mm)

598

5BQ

5.82 @ 350 nm

4.73 @ 350 nm

65180-400

599

5BQ

6.05 @ 633 nm
6.14 @ 1064 nm

4.95 @ 633 nm

65

450-650,
1010-1110

604

10BQ

10

9

10

9

1914

10.77 @ 350 nm 9.43 @ 350 nm
11.21 @ 633 nm
10BQ
9.87 @ 633 nm
11.39 @ 1064 nm
15PX 15.0 @ 633 nm 13.3 @ 633 nm

10

612

25PQ

12.5

603

28.0 @ 1064 nm 26.7 @ 1064 nm

Suitable Collimator and Coupler
Part Prefixes2

Suitable Focuser Part Prefixes2-25, -40

LPC-02, LPC-03, LPC-04, LPC-08,
HPUCO-2X, LPSC-03, HPUC-2X

LPF-02, LPF-03, LPF-04,
LPF-08, HPUFO-2X-25, -40

LPC-02, LPC-03, LPC-04, LPC-08,
HPUCO-2X, LPSC-03, HPUC-2X

LPF-02, LPF-03, LPF-04, LPF-08,
HPUFO-2X

N/A

LPC-08, HPUCO-2X, HPUC-2X

LPF-08, HPUFO-2X

N/A

LPC-08, HPUCO-2X, HPUC-2X

LPF-08, HPUFO-2X

9

180-400
450-650,
1010-1110
400-700

N/A

HPUCO-2X, HPUC-2X

HPUFO-2X

11.5

1010-1110

N/A

HPUCO-2X, HPUC-2X

HPUFO-2X

Notes:
1
2

Refers to LPC, LPF and LPSC product prefix codes only. HPUC, HPUCO and HPUFO return losses depend on the connector type.
Refer to the data sheets on laser to fiber couplers, and fiber optic collimators and focusers for an explanation of these part number prefixes.

12