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Single Mode Hybrid Fiber Optic Patch Cables


  • FC/PC to FC/APC and FC/PC to SMA Cables
  • 1, 2, or 5 m Long Cables
  • Custom Cables Also Available

One End Labeled with Part 
Number for Easy Identification

P5-SMF28E-FC-1

SMA Connector

FC/APC Connector

FC/PC Connector

Related Items

Custom Patch Cables

Features

  • Single Mode Fiber Optic Adapter Cables for Signal Transmission from 305 nm to 2100 nm
  • FC/PC to FC/APC or FC/PC to SMA Connector Options
  • Narrow Key FC/PC and FC/APC Connectors
  • Custom Cables Offered

Thorlabs' hybrid fiber optic patch cables feature FC/PC and FC/APC connectors or FC/PC and SMA connectors. These cables simplify connections at interfaces in fiber applications. FC/PC and FC/APC connectors features a high-quality machine polish for return losses of 50 dB or greater, while SMA connectors are hand polished to ensure optimal ferrule height tolerance (0.3860" - 0.3863").

All cables include a Ø3 mm FT030-Y Protective Jacket and two protective caps that shield the ferrule ends from dust and other hazards. Additional CAPF Plastic Fiber Caps and CAPFM Metal Threaded Fiber Caps for FC/PC- and FC/APC-terminated ends or CAPM Rubber Fiber Caps and CAPMM Metal Threaded Fiber Caps for SMA-terminated ends are also sold separately. Mating sleeves are also available to connect FC to FC, SMA to SMA, and FC to SMA connectors. These mating sleeves minimize back reflections and ensure proper alignment of fiber cores.

For shorter wavelengths, Thorlabs also offers Low-Insertion-Low Patch Cables, which feature handpicked single mode fiber with tighter core concentricity specifications for lower insertion loss and higher transmission. We also offer AR-Coated Single Mode Patch Cables, which have an antireflective coating on one fiber end for higher performance in fiber-to-free space applications. If you cannot find the appropriate stock patch cable your application requires, Thorlabs also offers custom patch cables with same-day shipping.

Item #P5-305A-PCAPC-1P5-405B-PCAPC-1
P2-405B-PCSMA-1
P5-460B-PCAPC-1
P2-460B-PCSMA-1
P5-630A-PCAPC-1
P2-630A-PCSMA-1
P5-780A-PCAPC-1
P2-780A-PCSMA-1
Fiber SM300 SM400 SM450 SM600 780HP
Operating Wavelength 320 - 430 nm 405 - 532 nm 488 - 633 nma 633 - 780 nmb 780 - 970 nm
Cutoff Wavelength ≤310 nm 305 - 400 nm 350 - 470 nma 500 - 600 nm 730 ± 30 nm
Mode Field Diameter
(MFD)c
2.0 - 2.4 µm @ 350 nm 2.5 - 3.4 µm @ 480 nm 2.8 - 4.1 µm @ 488 nm 3.6 - 5.3 µm @ 633 nm 5.0 ± 0.5 µm
@ 850 nm
Cladding Diameter 125 ± 1.0 µm 125 ± 1.0 µm 125 ± 1.0 µm 125 ± 1.0 µm 125 ± 1.5 µm
Coating Diameter 245 ± 15 µm 245 ± 15 µm 245 ± 15 µm 245 ± 15 µm 245 ± 15 µm
Attenuation (Max)d ≤70 dB/km @ 350 nm ≤50 dB/km @ 430 nm
≤30 dB/km @ 532 nm
≤50 dB/km @ 488 nm ≤15 dB/km @ 633 nm <3.2 dB/km @ 850 nm
NA 0.12 - 0.14 0.12 - 0.14 0.10 - 0.14 0.10 - 0.14 0.13
Return Losse FC/PC Connectors: 50 dB Typical (40 dB Min)
FC/APC Connectors: 60 dB Typical
Insertion Loss (Typ.)
(FC/PC and FC/APC Connectors)f
3.0 dB Loss (Connector to Connector) @ 375 nm 2.5 dB Loss (Connector to Connector) @ 405 nm 2.5 dB Loss (Connector to Connector) @ 488 nm 2.0 dB Loss (Connector to Connector) @ 633 nm 1.5 dB Loss (Connector to Connector) @ 780 nm
Connectorsg FC/PC to FC/APC
(30126C3 to 30126A3)
P5: FC/PC to FC/APC (30126C3 to 30126A3)
P2: FC/PC to SMA (30126C3 to 10125A)
Length 1 m
Protective Jacketing Ø3 mm, Yellow
FT030-Y
  • Fiber is hand selected to ensure higher cutoff wavelength. For SM operation near the cutoff wavelength, launch conditions need to be taken into consideration.
  • Wavelength range is illustrative and not guaranteed.
  • MFD is nominal, calculated value, estimated at the operating wavelength(s).
  • Attenuation is specified for unterminated fiber.
  • Return Loss is defined for the unterminated connector. For example, if your source is connected to the FC/PC end, your return loss will be the FC/APC measurement of 60 dB.
  • Insertion Loss is not specified for SMA connectors because they use an air gap for fiber-to-fiber connections, which can result in higher back reflections.
  • All FC/PC and FC/APC connectors feature a 2.0 mm narrow key.
Item #P5-830A-PCAPC-1
P2-830A-PCSMA-1
P5-980A-PCAPC-1
P5-980A-PCSMA-1
P5-SMF28E-FC
P2-SMF28-PCSMA-1
P5-2000-PCAPC-1
P2-2000-PCSMA-1
Fiber SM800-5.6-125 SM980-5.8-125 SMF-28e+ SM2000
Operating Wavelength 830 - 980 nm 980 - 1550 nma 1260 - 1625 nm 1700 - 2100 nm
Cutoff Wavelength 660 - 800 nm 870 - 970 nm <1260 nm <1700 nm
Mode Field Diameter
(MFD)b
4.7 - 6.9 µm @ 830 nm 5.3 - 6.4 µm @ 980 nm 9.2 ± 0.4 µm @ 1310 nm
10.5 ± 0.5 µm @ 1550 nm
13 µm
Cladding Diameter 125 ± 1.0 µm 125 ± 1.0 µm 125 ± 1.0 µm 125 ± 1.0 µm
Coating Diameter 245 ± 15 µm 245 ± 15 µm 245 ± 5 µm 245 ± 10 µm
Attenuation (Max)c <5 dB/km  ≤2.0 dB/km 0.33 - 0.35 dB/km @ 1310 nm
0.19 - 0.20 dB/km @ 1550 nm
20 dB/km
@1900 nmd
NA 0.10 - 0.14 0.13 - 0.15 0.14 0.11
Return Losse 50 dB (FC/PC Connectors)
60 dB (FC/APC Connectors)
Insertion Loss (Typ.)
(FC/PC and FC/APC Connectors)f
1.5 dB Loss (Connector to Connector)
@ 830 nm
1.0 dB Loss (Connector to Connector)
@ 980 nm
0.7 dB Loss (Connector to Connector)
@ 1064 nm
0.3 dB Loss (Connector to Connector)
@ 1310 nm
0.3 dB Loss (Connector to Connector)
@ 2000 nm
Connectorsg P5: FC/PC to FC/APC (30126C3 to 30126A3)
P2: FC/PC to SMA (30126C3 to 10125A)
Length 1 m 1 m 1 m (for Items Ending in -1)
2 m (for Items Ending in -2)
5 m (for Items Ending in -5)
1 m
Protective Jacketing Ø3 mm, Yellow
FT030-Y
  • Wavelength range is illustrative and not guaranteed.
  • MFD is nominal, calculated value, estimated at the operating wavelength(s)
  • Attenuation is specified for unterminated fiber.
  • Attenuation of SM2000 fiber is highly dependent on wavelength.
  • Return Loss is defined for the unterminated connector. For example, if your source is connected to the FC/PC end, your return loss will be the FC/APC measurement of 60 dB.
  • Insertion Loss is not specified for SMA connectors because they use an air gap for fiber-to-fiber connections, which can result in higher back reflections.
  • All FC/PC and FC/APC connectors feature a 2.0 mm narrow key.
Power Handling Limitations Imposed by Optical Fiber
Click to Enlarge
Undamaged Fiber End
Power Handling Limitations Imposed by Optical Fiber
Click to Enlarge
Damaged Fiber End

Laser Induced Damage in Optical Fibers

The following tutorial details damage mechanisms in unterminated (bare) and terminated optical fibers, including damage mechanisms at both the air-to-glass interface and within the glass of the optical fiber. Please note that while general rules and scaling relations can be defined, absolute damage thresholds in optical fibers are extremely application dependent and user specific. This tutorial should only be used as a guide to estimate the damage threshold of an optical fiber in a given application. Additionally, all calculations below only apply if all cleaning and use recommendations listed in the last section of this tutorial have been followed. For further discussion about an optical fiber’s power handling abilities within a specific application, contact Thorlabs’ Tech Support.

Damage at the Free Space-to-Fiber Interface

There are several potential damage mechanisms that can occur at the free space-to-fiber interface when coupling light into a fiber. These come into play whether the fiber is used bare or terminated in a connector.

Silica Optical Fiber Maximum Power Densities
TypeTheoretical Damage ThresholdPractical Safe Value
CW
(Average Power)
1 MW/cm2250 kW/cm2
10 ns Pulsed
(Peak Power)
5 GW/cm21 GW/cm2

Unterminated (Bare) Fiber
Damage mechanisms in bare optical fiber can be modeled similarly to bulk optics, and industry-standard damage thresholds for UV Fused Silica substrates can be applied to silica-based fiber (refer to the table to the right). The surface areas and beam diameters involved at the air-to-glass interface are extremely small compared to bulk optics, especially with single mode (SM) fiber, resulting in very small damage thresholds.

The effective area for SM fiber is defined by the mode field diameter (MFD), which is the effective cross-sectional area through which light propagates in the fiber. A free-space beam of light must be focused down to a spot of roughly 80% of this diameter to be coupled into the fiber with good efficiency. MFD increases roughly linearly with wavelength, which yields a roughly quadratic increase in damage threshold with wavelength. Additionally, a beam coupled into SM fiber typically has a Gaussian-like profile, resulting in a higher power density at the center of the beam compared with the edges, so a safety margin must be built into the calculated damage threshold value if the calculations assume a uniform density.

Multimode (MM) fiber’s effective area is defined by the core diameter, which is typically far larger than the MFD in SM fiber. Kilowatts of power can be typically coupled into multimode fiber without damage, due to the larger core size and the resulting reduced power density.

It is typically uncommon to use single mode fibers for pulsed applications with high per-pulse powers because the beam needs to be focused down to a very small area for coupling, resulting in a very high power density. It is also uncommon to use SM fiber with ultraviolet light because the MFD becomes extremely small; thus, power handling becomes very low, and coupling becomes very difficult.

Example Calculation
For SM400 single mode fiber operating at 400 nm with CW light, the mode field diameter (MFD) is approximately Ø3 µm. For good coupling efficiency, 80% of the MFD is typically filled with light. This yields an effective diameter of Ø2.4 µm and an effective area of 4.52 µm2:

Area = πr2 = π(MFD/2)2 = π • 1.22 µm2 = 4.52 µm2

This can be extrapolated to a damage threshold of 11.3 mW. We recommend using the "practical value" maximum power density from the table above to account for a Gaussian power distribution, possible coupling misalignment, and contaminants or imperfections on the fiber end face:

250 kW/cm2 = 2.5 mW/µm2

4.25 µm2 • 2.5 mW/µm2 = 11.3 mW

Terminated Fiber
Optical fiber that is terminated in a connector has additional power handling considerations. Fiber is typically terminated by being epoxied into a ceramic or steel ferrule, which forms the interfacing surface of the connector. When light is coupled into the fiber, light that does not enter the core and propagate down the fiber is scattered into the outer layers of the fiber, inside the ferrule.

The scattered light propagates into the epoxy that holds the fiber in the ferrule. If the light is intense enough, it can melt the epoxy, causing it to run onto the face of the connector and into the beam path. The epoxy can be burned off, leaving residue on the end of the fiber, which reduces coupling efficiency and increases scattering, causing further damage. The lack of epoxy between the fiber and ferrule can also cause the fiber to be decentered, which reduces the coupling efficiency and further increases scattering and damage.

The power handling of terminated optical fiber scales with wavelength for two reasons. First, the higher per photon energy of short-wavelength light leads to a greater likelihood of scattering, which increases the optical power incident on the epoxy near the end of the connector. Second, shorter-wavelength light is inherently more difficult to couple into SM fiber due to the smaller MFD, as discussed above. The greater likelihood of light not entering the fiber’s core again increases the chance of damaging scattering effects. This second effect is not as common with MM fibers because their larger core sizes allow easier coupling in general, including with short-wavelength light.

Fiber connectors can be constructed to have an epoxy-free air gap between the optical fiber and ferrule near the fiber end face. This design feature, commonly used with multimode fiber, allows some of the connector-related damage mechanisms to be avoided. Our high-power multimode fiber patch cables use connectors with this design feature.

Combined Damage Thresholds
As a general guideline, for short-wavelength light at around 400 nm, scattering within connectors typically limits the power handling of optical fiber to about 300 mW. Note that this limit is higher than the limit set by the optical power density at the fiber tip. However, power handing limitations due to connector effects do not diminish as rapidly with wavelength when compared to power density effects. Thus, a terminated fiber’s power handling is "connector-limited" at wavelengths above approximately 600 nm and is "fiber-limited" at lower wavelengths.

The graph to the right shows the power handling limitations imposed by the fiber itself and a surrounding connector. The total power handling of a terminated fiber at a given wavelength is limited by the lower of the two limitations at that wavelength. The fiber-limited (blue) line is for SM fibers. An equivalent line for multimode fiber would be far above the SM line on the Y-axis. For terminated multimode fibers, the connector-limited (red) line always determines the damage threshold.

Please note that the values in this graph are rough guidelines detailing estimates of power levels where damage is very unlikely with proper handling and alignment procedures. It is worth noting that optical fibers are frequently used at power levels above those described here. However, damage is likely in these applications. The optical fiber should be considered a consumable lab supply if used at power levels above those recommended by Thorlabs.

Damage Within Optical Fibers

In addition to damage mechanisms at the air-to-glass interface, optical fibers also display power handling limitations due to damage mechanisms within the optical fiber itself. Two categories of damage within the fiber are damage from bend losses and damage from photodarkening.

Bend Losses
Bend losses occur when a fiber is bent to a point where light traveling in the core is incident on the core/cladding interface at an angle higher than the critical angle, making total internal reflection impossible.Under these circumstances, light escapes the fiber, often in one localized area. The light escaping the fiber typically has a high power density, which can cause burns to the fiber as well as any surrounding furcation tubing.

A special category of optical fiber, called double-clad fiber, can reduce the risk of bend-loss damage by allowing the fiber’s cladding (2nd layer) to also function as a waveguide in addition to the core. By making the critical angle of the cladding/coating interface higher than the critical angle of the core/clad interface, light that escapes the core is loosely confined within the cladding. It will then leak out over a distance of centimeters or meters instead of at one localized spot within the fiber, minimizing damage. Thorlabs manufactures and sells 0.22 NA double-clad multimode fiber, which boasts very high, megawatt range power handling.

Photodarkening
A second damage mechanism within optical fiber, called photodarkening or solarization, typically occurs over time in fibers used with ultraviolet or short-wavelength visible light. The pure silica core of standard multimode optical fiber can transmit ultraviolet light, but the attenuation at these short wavelengths increases with the time exposed to the light. The mechanism that causes photodarkening is largely unknown, but several strategies have been developed to combat it. Fibers with a very low hydroxyl ion (OH) content have been found to resist photodarkening. Other dopants, including fluorine, can also reduce photodarkening.

Germanium-doped silica, which is commonly used for the core of single mode fiber for red or IR wavelengths, can experience photodarkening with blue visible light. Thus, pure silica core single mode fibers are typically used with short wavelength visible light. Single mode fibers are typically not used with UV light due to the small MFD at these wavelengths, which makes coupling extremely difficult.

Even with the above strategies in place, all fibers eventually experience photodarkening when used with UV light, and thus, fibers used with these wavelengths should be considered consumables.

Tips for Maximizing an Optical Fiber's Power Handling Capability

With a clear understanding of the power-limiting mechanisms of an optical fiber, strategies can be implemented to increase a fiber’s power handling capability and reduce the risk of damage in a given application. All of the calculations above only apply if the following strategies are implemented.

One of the most important aspects of a fiber’s power-handling capability is the quality of the end face. The end face should be clean and clear of dirt and other contaminants that can cause scattering of coupled light. Additionally, if working with bare fiber, the end of the fiber should have a good quality cleave, and any splices should be of good quality to prevent scattering at interfaces.

The alignment process for coupling light into optical fiber is also important to avoid damage to the fiber. During alignment, before optimum coupling is achieved, light may be easily focused onto parts of the fiber other than the core. If a high power beam is focused on the cladding or other parts of the fiber, scattering can occur, causing damage.

Additionally, terminated fibers should not be plugged in or unplugged while the light source is on, again so that focused beams of light are not incident on fragile parts of the connector, possibly causing damage.

Bend losses, discussed above, can cause localized burning in an optical fiber when a large amount of light escapes the fiber in a small area. Fibers carrying large amounts of light should be secured to a steady surface along their entire length to avoid being disturbed or bent.

Additionally, choosing an appropriate optical fiber for a given application can help to avoid damage. Large-mode-area fibers are a good alternative to standard single mode fibers in high-power applications. They provide good beam quality with a larger MFD, thereby decreasing power densities. Standard single mode fibers are also not generally used for ultraviolet applications or high-peak-power pulsed applications due to the high spatial power densities these applications present.

Click the Support Documentation icon document icon or Part Number below to view the available support documentation
Part NumberProduct Description
P2-2000-PCSMA-1 Support Documentation P2-2000-PCSMA-1:Single Mode Patch Cable, 1700 - 2100 nm, FC/PC to SMA, 1 m Long
P2-405B-PCSMA-1 Support Documentation P2-405B-PCSMA-1:Single Mode Patch Cable, 405 - 532 nm, FC/PC to SMA, 1 m Long
P2-460B-PCSMA-1 Support Documentation P2-460B-PCSMA-1:Single Mode Patch Cable, 488 - 633 nm, FC/PC to SMA, 1 m Long
P2-630A-PCSMA-1 Support Documentation P2-630A-PCSMA-1:Single Mode Patch Cable, 633 - 780 nm, FC/PC to SMA, 1 m Long
P2-780A-PCSMA-1 Support Documentation P2-780A-PCSMA-1:Single Mode Patch Cable, 780 - 970 nm , FC/PC to SMA, 1 m Long
P2-830A-PCSMA-1 Support Documentation P2-830A-PCSMA-1:Single Mode Patch Cable, 830 - 980 nm, FC/PC to SMA, 1 m Long
P2-980A-PCSMA-1 Support Documentation P2-980A-PCSMA-1:Single Mode Patch Cable, 980 - 1550 nm, FC/PC to SMA, 1 m Long
P2-SMF28-PCSMA-1 Support Documentation P2-SMF28-PCSMA-1:Single Mode Patch Cable, 1260 - 1625 nm, FC/PC to SMA, 1 m Long
P5-2000-PCAPC-1 Support Documentation P5-2000-PCAPC-1:Single Mode Patch Cable, 1700 - 2100 nm, FC/PC to FC/APC, 1 m Long
P5-305A-PCAPC-1 Support Documentation P5-305A-PCAPC-1:Single Mode Patch Cable, 320- 430 nm, FC/PC to FC/APC, 1 m Long
Part NumberProduct Description
P5-405B-PCAPC-1 Support Documentation P5-405B-PCAPC-1:Single Mode Patch Cable, 405 - 532 nm, FC/PC to FC/APC, 1 m Long
P5-460B-PCAPC-1 Support Documentation P5-460B-PCAPC-1:Single Mode Patch Cable, 488 - 633 nm, FC/PC to FC/APC, 1 m Long
P5-630A-PCAPC-1 Support Documentation P5-630A-PCAPC-1:Single Mode Patch Cable, 633 - 780 nm, FC/PC to FC/APC, 1 m Long
P5-780A-PCAPC-1 Support Documentation P5-780A-PCAPC-1:Single Mode Patch Cable, 780 - 970 nm, FC/PC to FC/APC, 1 m Long
P5-830A-PCAPC-1 Support Documentation P5-830A-PCAPC-1:Single Mode Patch Cable, 830 - 980 nm, FC/PC to FC/APC, 1 m Long
P5-980A-PCAPC-1 Support Documentation P5-980A-PCAPC-1:Single Mode Patch Cable, 980 - 1550 nm, FC/PC to FC/APC, 1 m Long
P5-SMF28E-FC-1 Support Documentation P5-SMF28E-FC-1:Single Mode Patch Cable, 1260 - 1625 nm, FC/PC to FC/APC, 1 m Long
P5-SMF28E-FC-2 Support Documentation P5-SMF28E-FC-2:Single Mode Patch Cable, 1260 - 1625 nm, FC/PC to FC/APC, 2 m Long
P5-SMF28E-FC-5 Support Documentation P5-SMF28E-FC-5:Single Mode Patch Cable, 1260 - 1625 nm, FC/PC to FC/APC, 5 m Long

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Posted Comments:
Poster:jlow
Posted Date:2012-12-20 14:12:00.0
Response from Jeremy at Thorlabs: The radius of curvature can be anywhere between 5 mm to 25 mm.
Poster:christopher.long
Posted Date:2012-12-12 07:48:40.483
Hi, could you give me more specs on the APC connectors in the patch cable? I want to know the radius of curvature of the end. Thanks!
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320 - 430 nm Hybrid Single Mode Patch Cable

Item #ConnectorsFiber
Type
Operating
Wavelength
Cutoff
Wavelength
Mode Field
Diameter
Cladding
Diameter
Max
Attenuationa
NAJacket
P5-305A-PCAPC-1 FC/PC to FC/APC SM300 320 - 430 nm ≤310 nm 2.0 - 2.4 µm @ 350 nm 125 ± 1.0 µm ≤70 dB/km @ 350 nm 0.12 - 0.14 FT030-Y
  • Max Attenuation data is for unterminated fiber.
Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal/Imperial Price Available / Ships
P5-305A-PCAPC-1 Support Documentation
P5-305A-PCAPC-1Single Mode Patch Cable, 320- 430 nm, FC/PC to FC/APC, 1 m Long
$86.80
Today

405 - 532 nm Hybrid Single Mode Patch Cables

Item #ConnectorsFiber
Type
Operating
Wavelength
Cutoff
Wavelength
Mode Field
Diameter
Cladding
Diameter
Max
Attenuationa
NAJacket
P5-405B-PCAPC-1 FC/PC to FC/APC SM400 405 - 532 nm 305 - 400 nm 2.5 - 3.4 µm @ 480 nm 125 ± 1.0 µm ≤50 dB/km @ 430 nm
≤30 dB/km @ 532 nm
0.12 - 0.14 FT030-Y
P2-405B-PCSMA-1 FC/PC to SMA
  • Max Attenuation data is for unterminated fiber.
Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal/Imperial Price Available / Ships
P5-405B-PCAPC-1 Support Documentation
P5-405B-PCAPC-1Single Mode Patch Cable, 405 - 532 nm, FC/PC to FC/APC, 1 m Long
$86.80
Today
P2-405B-PCSMA-1 Support Documentation
P2-405B-PCSMA-1Single Mode Patch Cable, 405 - 532 nm, FC/PC to SMA, 1 m Long
$78.13
Today

450 - 600 nm Hybrid Single Mode Patch Cables

Item #ConnectorsFiber
Type
Operating
Wavelengtha
Cutoff
Wavelengtha
Mode Field
Diameter
Cladding
Diameter
Max
Attenuationb
NAJacket
P5-460B-PCAPC-1 FC/PC to FC/APC SM450 488 - 633 nm 350 - 470 nm 2.8 - 4.1 µm @ 488 nm 125 ± 1.0 µm ≤50 dB/km @ 488 nm 0.10 - 0.14 FT030-Y
P2-460B-PCSMA-1 FC/PC to SMA
  • Fiber is hand selected to ensure higher cutoff wavelength. For SM operation near the cutoff wavelength, launch conditions need to be taken into consideration.
  • Max Attenuation data is for unterminated fiber.
Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal/Imperial Price Available / Ships
P5-460B-PCAPC-1 Support Documentation
P5-460B-PCAPC-1Single Mode Patch Cable, 488 - 633 nm, FC/PC to FC/APC, 1 m Long
$82.31
Today
P2-460B-PCSMA-1 Support Documentation
P2-460B-PCSMA-1Single Mode Patch Cable, 488 - 633 nm, FC/PC to SMA, 1 m Long
$78.13
Today

600 - 800 nm Hybrid Single Mode Patch Cables

Item #ConnectorsFiber
Type
Operating
Wavelength
Cutoff
Wavelength
Mode Field
Diameter
Cladding
Diameter
Max
Attenuationb
NAJacket
P5-630A-PCAPC-1 FC/PC to FC/APC SM600 633 - 780 nma 500 - 600 nm 3.6 - 5.3 µm @ 633 nm 125 ± 1.0 µm ≤15 dB/km 0.10 - 0.14 FT030-Y
P2-630A-PCSMA-1 FC/PC to SMA
  • Wavelength range is illustrative and not guaranteed. The wavelength range is the spectral region between the cutoff wavelength and the bend edge and represents the region where the fiber transmits the TEM00 mode with low attenuation. For this fiber, the bend edge wavelength is typically 200 nm longer than the cutoff wavelength.
  • Max Attenuation data is for unterminated fiber.
Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal/Imperial Price Available / Ships
P5-630A-PCAPC-1 Support Documentation
P5-630A-PCAPC-1Customer Inspired!Single Mode Patch Cable, 633 - 780 nm, FC/PC to FC/APC, 1 m Long
$73.44
Today
P2-630A-PCSMA-1 Support Documentation
P2-630A-PCSMA-1Customer Inspired!Single Mode Patch Cable, 633 - 780 nm, FC/PC to SMA, 1 m Long
$74.26
Today

780 - 970 nm Hybrid Single Mode Patch Cables

Item #ConnectorsFiber
Type
Operating
Wavelength
Cutoff
Wavelength
Mode Field
Diameter
Cladding
Diameter
Max
Attenuationa
NAJacket
P5-780A-PCAPC-1 FC/PC to FC/APC 780HP 780 - 970 nm 730 ± 30 nm 5.0 ± 0.5 µm
@ 850 nm
125 ± 1.5 µm <3.2 dB/km
@ 850 nm
0.13 FT030-Y
P2-780A-PCSMA-1 FC/PC to SMA
  • Max Attenuation data is for unterminated fiber.
Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal/Imperial Price Available / Ships
P5-780A-PCAPC-1 Support Documentation
P5-780A-PCAPC-1Single Mode Patch Cable, 780 - 970 nm, FC/PC to FC/APC, 1 m Long
$89.76
Today
P2-780A-PCSMA-1 Support Documentation
P2-780A-PCSMA-1Single Mode Patch Cable, 780 - 970 nm , FC/PC to SMA, 1 m Long
$74.36
Today

830 nm Hybrid Single Mode Patch Cables

Item #ConnectorsFiber TypeOperating
Wavelength
Cutoff
Wavelength
Mode Field
Diameter
Cladding
Diameter
Max
Attenuationa
NAJacket
P5-830A-PCAPC-1 FC/PC to FC/APC SM800-5.6-125 830 - 980 nmb 660 - 800 nm 4.7 - 6.9 µm
@ 830 nm
125 ± 1.0 µm <5 dB/km 0.10 - 0.14 FT030-Y
P2-830A-PCSMA-1 FC/PC to SMA
  • Max Attenuation data is for unterminated fiber.
  • The Design Wavelength of 830 nm is the wavelength at which the fiber is typically used. The wavelength range is the spectral region between the cutoff wavelength and the bend edge and represents the region where the fiber transmits the TEM00 mode with low attenuation. For this fiber, the bend edge wavelength is typically 200 nm longer than the cutoff wavelength.
Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal/Imperial Price Available / Ships
P5-830A-PCAPC-1 Support Documentation
P5-830A-PCAPC-1Customer Inspired!Single Mode Patch Cable, 830 - 980 nm, FC/PC to FC/APC, 1 m Long
$70.48
Today
P2-830A-PCSMA-1 Support Documentation
P2-830A-PCSMA-1Single Mode Patch Cable, 830 - 980 nm, FC/PC to SMA, 1 m Long
$74.46
Today

970 - 1650 nm Hybrid Single Mode Patch Cables

Item #ConnectorsFiber
Type
Operating
Wavelength
Cutoff
Wavelength
Mode Field
Diameter
Cladding
Diameter
Max
Attenuationa
NAJacket
P5-980A-PCAPC-1 FC/PC to FC/APC SM980-5.8-125 980 - 1550 nm 870 - 970 nm 5.3 - 6.4 µm @ 980 nm 125 ± 1.0 µm ≤2.0 dB/km 0.13 - 0.15 FT030-Y
P2-980A-PCSMA-1 FC/PC to SMA
  • Max Attenuation data is for unterminated fiber.
Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal/Imperial Price Available / Ships
P5-980A-PCAPC-1 Support Documentation
P5-980A-PCAPC-1Customer Inspired!Single Mode Patch Cable, 980 - 1550 nm, FC/PC to FC/APC, 1 m Long
$71.50
Today
P2-980A-PCSMA-1 Support Documentation
P2-980A-PCSMA-1Customer Inspired!Single Mode Patch Cable, 980 - 1550 nm, FC/PC to SMA, 1 m Long
$74.26
Today

1260 - 1625 nm SMF-28e+ Hybrid Single Mode Patch Cables

Item #ConnectorsFiber
Type
Operating
Wavelength
Cutoff
Wavelength
Mode Field
Diameter
Cladding
Diameter
Max
Attenuationb
NAJacket
P5-SMF28E-FC-1 FC/PC to FC/APC SMF-28e+ 1260 - 1625 nma <1260 nm 9.2 ± 0.4 µm @ 1310 nm
10.4 ± 0.5 μm @ 1550 nm
125 ± 0.7 µm 0.33 - 0.35 dB/km @ 1310 nm
0.19 - 0.20 dB/km @ 1550 nm
0.14 FT030-Y
P5-SMF28E-FC-2
P5-SMF28E-FC-5
P2-SMF28-PCSMA-1 FC/PC to SMA
  • Wavelength range is illustrative and not guaranteed.
  • Max Attenuation data is for unterminated fiber.
Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal/Imperial Price Available / Ships
P5-SMF28E-FC-1 Support Documentation
P5-SMF28E-FC-1Single Mode Patch Cable, 1260 - 1625 nm, FC/PC to FC/APC, 1 m Long
$48.90
Today
P5-SMF28E-FC-2 Support Documentation
P5-SMF28E-FC-2Single Mode Patch Cable, 1260 - 1625 nm, FC/PC to FC/APC, 2 m Long
$49.60
Today
P5-SMF28E-FC-5 Support Documentation
P5-SMF28E-FC-5Single Mode Patch Cable, 1260 - 1625 nm, FC/PC to FC/APC, 5 m Long
$50.80
Today
P2-SMF28-PCSMA-1 Support Documentation
P2-SMF28-PCSMA-1Single Mode Patch Cable, 1260 - 1625 nm, FC/PC to SMA, 1 m Long
$74.93
Today

1700 - 2100 nm Hybrid Single Mode Patch Cables

Item #ConnectorsFiber
Type
Operating
Wavelength
Cutoff
Wavelength
Mode Field
Diameter
Cladding
Diameter
Max
Attenuationa
NAJacket
P5-2000-PCAPC-1 FC/PC to FC/APC SM2000 1700 - 2100 nm <1700 nm 13 µm @ 2000 nm 125 ± 1 µm 20 dB/km
@1900 nmb
0.11 FT030-Y
P2-2000-PCSMA-1 FC/PC to SMA
  • Max Attenuation data is for unterminated fiber.
  • Attenuation of SM2000 fiber is highly dependent on wavelength.

Note: In the past, the SMF-28e+ fiber was commonly used for 2 µm applications. Therefore, the SM2000 fiber is specifically designed to be coupled or spliced with the SMF-28e+ fiber.

Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal/Imperial Price Available / Ships
P5-2000-PCAPC-1 Support Documentation
P5-2000-PCAPC-1Single Mode Patch Cable, 1700 - 2100 nm, FC/PC to FC/APC, 1 m Long
$84.66
Today
P2-2000-PCSMA-1 Support Documentation
P2-2000-PCSMA-1Single Mode Patch Cable, 1700 - 2100 nm, FC/PC to SMA, 1 m Long
$83.87
Today
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