Fiber Optic Rotary Joint Patch Cables for Optogenetics


  • Prevents Fiber Damage from Specimen Movement
  • Ø1.25 mm or Ø2.5 mm Ceramic Ferrule on One End
  • Versions for Ø200 µm or Ø400 µm Core Cannulae

Rotary Joint Detail

SM05 Mounting Threads

To Specimen

To Light Source

Rotating Section

Integrated Rotary Joint
Prevents Fiber Damage

Ø2.5 mm Ferrule End

SMA Connector

RJPSF2

RJASF2

Stainless Steel Tubing and Sleeves Prevent Damage from Specimen

Lightweight Heat-Shrink Tubing Minimizes Pressure on Specimen

Related Items


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Rotary Joint Patch Cable Features

Our articulated patch cables provide a complete fiber optic solution, connecting to the light source on one end and the implanted cannula on the other.

Rotary Joint Cable with LED
Click to Enlarge

SMA (Shown) or FC/PC Connector Connects to LED (Shown) or Laser Light Sources, Respectively

Rotary Joint
Click for Details

Rotary Joint Prevents Tangling and Damage to Optical Fiber from Specimen Movement

Rotary Joint Cable with Cannula
Click to Enlarge

Ø1.25 mm or Ø2.5 mm (Shown) Ferrule End Connects to Implanted Fiber Optic Cannula using a ADAF1 Mating Sleeve

Features

  • Articulated Rotary Joint Protects Against Fiber Damage Caused by Moving Specimen
  • Integrated 0.39 NA, Ø200 µm or Ø400 µm Core Patch Cables
  • Single Cable Connection Between Cannula and Light Source
  • Available with FC/PC or SMA Connector and Ø1.25 mm or Ø2.5 mm Ferrule End
  • Metal Bearings Provide Extremely Smooth Rotation
  • Ø200 µm Core Patch Cables with Ø2.5 mm Ferrule End are Available with Stainless Steel Tubing
  • SM05-Threaded Housing for Secure Mounting

Integrated Design
Our articulated rotary joint patch cables, also known as commutators, are a one-piece solution for optogenetics experiments. The built-in rotary joint interface allows the cable to freely rotate, reducing the risk of damage in optogenetics experiments. Rather than using two fiber patch cables with a separate rotary joint interface, the permanently attached fiber optics directly connect to the light source on one end and the specimen implant on the other. The lens-free design allows the rotary joint to operate over a wide wavelength range.

For a rotary joint interface with removable patch cables, Thorlabs offers the RJ1 1x1 Rotary Joint for FC/PC Multimode Patch Cables. This rotary joint operates over a 400 nm to 700 nm wavelength range, and with FC/PC ports, fibers can be selected with specific cores, NAs, and jacketing types to optimize an experiment.


Click to Enlarge

Rotary Joint Patch Cable 
Mounted Using our C059TC

Rotary Joint
The rotary joint is precision machined and has sealed metal bearings for extremely smooth rotation, long lifetime, and low signal strength variations as the joint rotates. The rotary joint features an external SM05 (0.535"-40) mounting thread for compatibility with our Ø1/2" optic mounts. The Ø0.59" body of the joint can also be quickly mounted using our C059TC clamp, allowing drop-in installation of these cables. See the Mounting Options tab for examples of mounts constructed with Thorlabs' optomechanics equipment.

Fiber Optics
The permanently attached fiber optic leads are designed to provide a complete optogenetics solution for connecting a light source to an implanted fiber optic cannula. They are built with FT200EMT Ø200 µm core or FT400EMT Ø400 µm core, 0.39 NA fiber. 2 m of fiber is on the light source side of the rotary joint, and 1 m is on the specimen side. The fiber on the light source side of the rotary joint includes standard FT020 orange tubing, while the specimen side is protected by either lightweight black tubing, which minimizes cable mass, or stainless steel tubing, which protects the fiber from the specimen. Models are available with Ø1.25 mm or Ø2.5 mm ferrule ends for cannula interconnection. Choose from an FC/PC or SMA connector for compatibility with all of Thorlabs' optogenetics light sources.

Each rotary joint cable includes two protective caps that shield the ferrule ends from dust
and other hazards. Additional CAPF Fiber Caps for FC/PC-terminated and Ø2.5 mm ferrule ends, CAPM Rubber Caps for SMA-terminated ends, and CAPL Fiber Caps for Ø1.25 mm ferrule ends are also sold separately.

Ferrule Size and Fiber Core Size
Our rotary joint patch cables have either a Ø1.25 mm or Ø2.5 mm ceramic ferrule end. Using a lightweight, compact Ø1.25 µm (LC) ferrule minimizes stress on the specimen and offer the ability to implant several cannulae near the same location for applications such as bilateral stimulation. A Ø2.5 mm ferrule end provides easier handling and a more robust connection to the specimen. Smaller fiber core sizes, such as Ø200 µm, are less invasive, making them ideal for smaller specimens. Larger core sizes, such as Ø400 µm, offer a more robust solution for larger specimens, as well as higher power light sources.

Cannula and Component Compatibility
Cannulae and patch cables with different ferrule materials can be mixed and matched without introducing significant additional signal losses. However, fiber core sizes, numerical apertures (NA), and ferrule diameters should match for proper connection and maximum signal strength. Ø1.25 mm ferrules can be connected using an ADAL1 mating sleeve or ADAL3 interconnect, while Ø2.5 mm ferrules use an ADAF1 mating sleeve or ADAF2 interconnect.

Custom Rotary Joint Cables

The fiber leads of these cables are permanently attached to the rotary joint for higher performance and provide a one piece, integrated fiber optic solution. For compatibility with a wide range of cannulae, light sources, and experimental setups, we can produce custom rotary joint cables using fibers with different core sizes and NAs. We can also produce cables with different connectors or any length of fiber on each end of the joint. For best performance, the fiber core size should be 200 µm or greater. We also offer Standard Rotary Joint Cables, with SMA or FC/PC connectors on each end. Contact Tech Support to order a custom rotary joint cable.

Optogenetics Product Family for In Vivo Applications

Thorlabs offers a wide variety of products designed to support in vivo optogenetics applications. Please visit the OG Selection Guide tab above to see a full listing of available products for different applications.

Optogenetics System Schematic

Specifications
Item # RJPFL2 RJPSL2 RJPFF2 RJPSF2 RJAFF2 RJASF2 RJPFL4 RJPSL4 RJPFF4 RJPSF4
Ferrule End Ø1.25 mm Ø2.5 mm Ø1.25 mm Ø2.5 mm
Light Source Connector FC/PC SMA FC/PC SMA FC/PC SMA FC/PC SMA FC/PC SMA
Fiber Type FT200EMT FT400EMT
Fiber Core Size Ø200 µm Ø400 µm
Fiber NA 0.39
Wavelength Range 400 - 2200 nm (Click for Plot)
Length 3 m (1 m on Specimen Side of Rotary Joint, 2 m on Light Source Side)
Fiber Jacket Light Source Side Ø2 mm, Orange PVC (FT020)
Specimen Side Ø1/16" (Ø1.6 mm) Black Heat Shrink Ø2.3 mm (FT023SS)
Furcation Tubing
Ø1/16" (Ø1.6 mm) Black Heat Shrink
Rotary Joint Specifications
Total Transmission Through Rotary Jointa >63% (Insertion Loss <2.0 dB)
Variation in Transmission During Rotationa ±8% (±0.4 dB)
Start-Up Torque <0.01 N•m
<150 µN•m (Typical)
Operating Temperature <50 °C
  • Specified for a laser input; LED sources may exhibit lower transmission.

Fiber Specs

Item # Suffix Fiber Type NA Core /
Cladding
Core
Diameter
Cladding
Diameter
Coating
Diameter
Max Core
Offset
Bend Radius
(Short Term /
Long Term)
-L2 or -F2 FT200EMT 0.39 ± 0.02 Pure Silica / TECS Hard Cladding 200 ± 5 μm 225 ± 5 μm 500 ± 30 μm 5 µm 21 mm / 42 mm
-L4 or -F4 FT400EMT 400 ± 8 μm 425 ± 10 μm 730 ± 30 μm 7 µm 43 mm / 86 mm

Rotary Joint Mounting Options

The rotary joint included in our articulated patch cables features external SM05 (0.535"-40) threading on the non-rotating section. This allows the rotary joint to be mounted into our standard optomechanical hardware and positioned above a specimen enclosure. A selection of example mounts are shown below and to the right, and each can be configured based on enclosure size. Additionally, rotary joints can be custom mounted in enclosure walls or ceilings (bottom right) using either our SM05 tap or by gluing the rotary joint into a ~Ø1/2" hole.

Rotary Joint Detail
Click to Enlarge

The rotary joint is engraved with the part number and has external SM05 (0.535"-40) threading for convenient mounting.

Clamp to 1/2" Post

This mounting option utilizes our C059TC Tube Clamp to easily secure the stationary end of our rotary joints. This clamp allows you to swap between cables without disassembling your setup.

To build this mount, first screw a TR3 post to the breadboard using the SS25S050 setscrew. Next, mount the C059TC to the end of the post with an SH8S025 cap screw. Then, simply place the rotary joint and clamp down on the thicker, static section, letting the rotating section move freely. Tighten the captive locking screw on the clamp using a 5/64" hex key. 

View Imperial Product List
Item #QtyDescription
C059TC1Clamp for Ø0.59" (Ø14.9 mm) Rotary Joint Patch Cables
TR31Ø1/2" Optical Post, SS, 8-32 Setscrew, 1/4"-20 Tap, L = 3"
SS25S05011/4"-20 Stainless Steel Setscrew, 1/2" Long, 25 Pack
SH8S02518-32 Stainless Steel Cap Screw, 1/4" Long, 50 Pack
MB61Aluminum Breadboard 6" x 6" x 1/2", 1/4"-20 Taps
View Metric Product List
Item #QtyDescription
C059TC1Clamp for Ø0.59" (Ø14.9 mm) Rotary Joint Patch Cables
TR75/M1Ø12.7 mm Optical Post, SS, M4 Setscrew, M6 Tap, L = 75 mm
SH6MS121M6 x 1.0 Stainless Steel Cap Screw, 12 mm Long, 25 Pack
SH4MS061M4 x 0.7 Stainless Steel Cap Screw, 6 mm Long, 50 Pack
MB1515/M1Aluminum Breadboard, 150 mm x 150 mm x 12.7 mm, M6 Taps

High Mass Ø1.5" Post Mount

This mounting option uses our Ø1.5" optical post to create a highly stable rotary joint mount. The high mass post and breadboard keep the rotary joint firmly in place. The P10 Ø1.5" post and TR8 Ø1/2" post may be substituted with other posts of different lengths, plus the C1511 post clamp may be positioned anywhere along the Ø1.5" post to accommodate different specimen enclosure sizes.

To build this mount, first mount the rotary joint in the LMR05 mount: Unthread the retaining ring inside the LMR05 mount. Then, pull the orange cable through the LMR05, and thread the rotary joint into the mount. Next, mount the LMR05 to the tapered end of the TR8 post using the included setscrew. Remove the front plate of the C1511 and mount the TR8 to one of the front plate's 1/4" counterbores using one of the SH25S038 cap screws, making sure the rotary joint is oriented correctly while the screw is tightened. Reattach the mounting plate to the C1511 post clamp, and slide it onto the P10 post, tightening the screw to lock its position. Screw the PB2 base onto the end of the P10 post using a SS25S050 setscrew and attach it to the breadboard using four SH25S038 cap screws.

View Imperial Product List
Item #QtyDescription
LMR051Lens Mount with Retaining Ring for Ø1/2" Optics, 8-32 Tap
TR81Ø1/2" Optical Post, SS, 8-32 Setscrew, 1/4"-20 Tap, L = 8"
P101Ø1.5" Mounting Post, 1/4"-20 Taps, L = 10"
C15111Ø1.5" Post Mounting Clamp, 2.50" x 2.50"
PB21Mounting Post Base, Ø2.40" x 0.50" Thick
MB61Aluminum Breadboard 6" x 6" x 1/2", 1/4"-20 Taps
SH25S03811/4"-20 Stainless Steel Cap Screw, 3/8" Long, 25 Pack
SS25S05011/4"-20 Stainless Steel Setscrew, 1/2" Long, 25 Pack
View Metric Product List
Item #QtyDescription
LMR05/M1Lens Mount with Retaining Ring for Ø1/2" Optics, M4 Tap
TR200/M1Ø12.7 mm Optical Post, SS, M4 Setscrew, M6 Tap, L = 200 mm
P250/M1Ø1.5" Mounting Post, M6 Taps, L = 250 mm
MB1515/M1Aluminum Breadboard, 150 mm x 150 mm x 12.7 mm, M6 Taps
SH6MS101M6 x 1.0 Stainless Steel Cap Screw, 10 mm Long, 25 Pack
SH6MS121M6 x 1.0 Stainless Steel Cap Screw, 12 mm Long, 25 Pack
C1511/M1Ø1.5" Post Mounting Clamp, 63.5 mm x 63.5 mm, Metric
PB2/M1Metric Mounting Post Base, Ø61 mm x 12.7 mm Thick

Adjustable Ø1/2" Post Mount

This mounting option uses our Ø1/2" optical posts to create a quickly adjustable rotary joint mount. The breadboard base keeps the rotary joint firmly in place, while the RA90 post clamp allows the position of the rotary joint to be easily adjusted. The TR3 and TR4 Ø1/2" posts may be substituted with other posts of different lengths to accommodate different specimen enclosure sizes.

To build this mount, first mount the rotary joint in the LMR05 mount: Unthread the retaining ring inside the LMR05 mount. Then, pull the orange cable through the LMR05, and thread the rotary joint into the mount. Next, mount the LMR05 to the tapered end of the TR3 post using the included setscrew. Attach the TR4 post to the breadboard using the SS25S050 setscrew, and slide the RA90 onto the top of the post. Slide the TR3 into the other hole of the RA90, and tighten the thumbscrews to lock the position of the rotary joint.



View Imperial Product List
Item #QtyDescription
LMR051Lens Mount with Retaining Ring for Ø1/2" Optics, 8-32 Tap
TR41Ø1/2" Optical Post, SS, 8-32 Setscrew, 1/4"-20 Tap, L = 4"
RA901Right-Angle Clamp for Ø1/2" Posts, 3/16" Hex
TR31Ø1/2" Optical Post, SS, 8-32 Setscrew, 1/4"-20 Tap, L = 3"
MB61Aluminum Breadboard 6" x 6" x 1/2", 1/4"-20 Taps
SS25S05011/4"-20 Stainless Steel Setscrew, 1/2" Long, 25 Pack
View Metric Product List
Item #QtyDescription
LMR05/M1Lens Mount with Retaining Ring for Ø1/2" Optics, M4 Tap
TR100/M1Ø12.7 mm Optical Post, SS, M4 Setscrew, M6 Tap, L = 100 mm
RA90/M1Right-Angle Clamp for Ø1/2" Posts, 5 mm Hex
TR75/M1Ø12.7 mm Optical Post, SS, M4 Setscrew, M6 Tap, L = 75 mm
MB1515/M1Aluminum Breadboard, 150 mm x 150 mm x 12.7 mm, M6 Taps
SH6MS121M6 x 1.0 Stainless Steel Cap Screw, 12 mm Long, 25 Pack

 

Angle Bracket Mount

This mounting option uses our AB90 angle bracket for a low-profile, low-cost setup. The angle bracket's 1/4" counterbored slot in the base can be used to attach it to any wood, plastic, or metal surface using the appropriate screws.

To build this mount, first mount the rotary joint in the LMR05 mount: Unthread the retaining ring inside the LMR05 mount. Then, pull the orange cable through the LMR05, and screw the rotary joint into the mount. To mount the LMR05 mount to one of the counterbored slots in the AB90, stack the SD1 ring and W25S050 washer onto the SS8S075 screw and thread them through the AB90's counterbored slot (click photo for details).

View Imperial Product List
Item #QtyDescription
LMR051Lens Mount with Retaining Ring for Ø1/2" Optics, 8-32 Tap
AB901Right-Angle Bracket with Counterbored Slots
SH8S07518-32 Stainless Steel Cap Screw, 3/4" Long, 50 Pack
SD111/4" (M6) to #8 (M4) Counterbore Adapter Ring, 10 Pack
W25S05011/4" Washer, M6 Compatible, Stainless Steel, 100 Pack
View Metric Product List
Item #QtyDescription
LMR05/M1Lens Mount with Retaining Ring for Ø1/2" Optics, M4 Tap
AB901Right-Angle Bracket with Counterbored Slots
SH4MS201M4 x 0.7 Stainless Steel Cap Screw, 20 mm Long, 50 Pack
SD111/4" (M6) to #8 (M4) Counterbore Adapter Ring, 10 Pack
W8S0381#8 Washer, M4 Compatible, Stainless Steel, 100 Pack

Custom Enclosure Mount

The rotary joint can be mounted in an acrylic sheet (pictured), wood, plastic, or metal enclosure walls and ceilings that have an SM05-threaded (0.535"-40) hole.

Custom holes can be tapped using our 83373 SM05 tap. First, drill or mill out a Ø0.508" hole where the rotary joint is to be mounted. Next, mount the tap in a drill press and manually turn it into the hole to cut threads into the material. To mount the rotary joint, insert the rotary joint's threads into the enclosure wall from the inside.

Alternatively, a ~Ø1/2" hole can be drilled into the enclosure wall, and the rotary joint can be glued into place. Insert the threaded section into the hole from the inside of the enclosure, and do not allow glue to contact the rotating mechanism. We recommend using our G14250 5-minute epoxy.

Rotary Joint Plexiglas Mount
Click to Enlarge
View Product List
Item #QtyDescription
833731English (Imperial) Tap: 0.535"-40 Thread (SM05 Standard)

Posted Comments:
Marc mieuset  (posted 2020-09-17 18:42:04.357)
Hi, The RJPFF2, works with Monomode ? SM28 or else. Thanks. Marc
YLohia  (posted 2020-09-18 09:23:12.0)
Hello Marc, thank you for contacting Thorlabs. Yes, the RJPFF2 can be used on the output end of the SMF28 fibers (since the core size and the NA of the FT200EMT fiber used in the RJPFF2 are much larger than that of the SMF28 type fibers). However, please note that the insertion loss will be extremely high if you plug in the SMF28 fiber on the output of the RJPFF2.
simon.mcmullan  (posted 2017-06-26 12:10:12.513)
Hi We've suffered a fibre break near to our rotary; is there any way we can fix this? In particular, information on how to remove the ceramic ferrule from a rotary cable would be very useful. Kind regards Simon
tfrisch  (posted 2017-06-27 03:19:22.0)
Hello, thank you for contacting Thorlabs. Unfortunately, the ferrule is glued in place and cannot be removed for repair. I will reach out to you directly.
kellyz  (posted 2013-09-17 19:41:20.527)
Greetings! I would love to be able to purchase JUST the rotary joint from you. I usually work with 300um fiber, and the fiber that connects the rotary joint to the animal needs to be about 0.5m long. I usually order rotary joints from Doric, but if you guys are able to sell them separately, I'd certainly switch. Thanks! Kelly
jlow  (posted 2013-09-18 11:41:00.0)
Response from Jeremy at Thorlabs: The fiber ends are permanently attached to the rotary joint for better performance and to provide a one piece, integrated fiber optic solution. However, we can quote made-to-order rotary joint cables with any length of fiber on each end of the joint, as well as using fibers with different core sizes and NAs. For best performance, the fiber core size should be 200 µm or greater. I will contact you directly to discuss about this.

Optogenetics Selection Guide

Thorlabs offers a wide range of optogenetics components; the compatibility of these products in select standard configurations is discussed in detail here. Please contact Technical Support for assistance with items outside the scope of this guide, including custom fiber components for optogenetics.

 

Single-Site Stimulation

One Light Source to One Cannula Implant

The most straightforward method for in vivo light stimulation of a specimen is to use a single fiber optic with a single LED light source. The single wavelength LED is powered by an LED driver, and then the illumination output is fiber-coupled into a patch cable, which connects to the implanted cannula. See the graphics and expandable compatibility tables below for the necessary patch cables and cannulae to create this setup. To choose the appropriate LED and driver, see below or the full web presentation.

Click on Each Component for More Information

LED DriverLED DriverFiber-Coupled LEDFiber-Coupled LEDSMA to Ferrule Patch Cable with Optional Rotary JointSMA to Ferrule Patch Cable with Optional Rotary JointADAF2 InterconnectADAF2 InterconnectFiber Optic CannulaFiber Optic Cannula



 

Multilateral Stimulation

The ability to accurately and simultaneously direct light to multiple locations within a specimen is desired for many types of optogenetics experiments. For example, bilateral stimulation techniques typically target neurons in two spatially separated regions in order to induce a desired behavior. In more complex experiments involving the simultaneous inhibition and stimulation of neurons, delivering light of two different monochromatic wavelengths within close proximity enables the user to perform these experiments without implanting multiple cannulae, which can increase stress on the specimen.

Multilateral stimulation can be achieved with several different configurations depending on the application requirements. The sections below illustrate examples of different configurations using Thorlabs' optogenetics products.


Option 1: One Light Source to Two Cannula Implants Using Rotary Joint Splitter

Thorlabs' RJ2 1x2 Rotary Joint Splitter is designed for optogenetics applications and is used to split light from a single input evenly between two outputs. The rotary joint interface allows connected patch cables to freely rotate, reducing the risk of fiber damage caused by a moving specimen. See the graphic and compatibility table below for the necessary cables and cannulae to create this setup. For LEDs and drivers, see below or the full web presentation.

LED DriverFiber-Coupled LEDHybrid Patch Cable1x2 Rotary Joint SplitterOG Patch CableOG Patch CableADAF2 InterconnectADAF2 InterconnectFiber Optic CannulaFiber Optic CannulaFiber Optic Cannula

Option 2: One or Two Light Sources to Two Cannula Implants

If the intent is for one LED source to connect to two cannulae for simultaneous light modulation, then a bifurcated fiber bundle can be used to split the light from the LED into each respective cannula. For dual wavelength stimulation (mixing two wavelengths in a single cannula) or a more controlled split ratio between cannula, one can use a multimode coupler to connect one or two LEDs to the cannulae. If one cable end is left unused, the spare coupler cable end may be terminated by a light trap. See the graphic and compatibility table below for the necessary cables and cannulae to create this setup. For LEDs and drivers, see below or the full web presentation.

Click on Each Component Below for More Information

LED DriverLED DriverFiber-Coupled LEDFiber-Coupled LEDPatch CabletextY-CableMating SleeveMating SleeveMating SleeveMating SleeveFiber Optic CannulaFiber Optic CannulaFiber Optic CannulaFiber Optic Cannula

LED Driver2nd LED DriverLED Driver textFiber-Coupled LED2nd Fiber-Coupled LEDFiber-Coupled LED textMultimode CouplerMultimode Coupler TextADAF2 InterconnectADAF2 Interconnect TextADAF2 InterconnectADAF2 Interconnect TextFiber Optic CannulaFiber Optic CannulaFiber Optic CannulaFiber Optic Cannula


Option 3: One Light Sources to Seven Cannula Implants

If the intent is for one LED source to connect to seven cannulae for simultaneous light modulation, then a 1-to-7 fiber bundle can be used to split the light from the LED into each respective cannula. See the graphic and compatibility table below for the necessary cables and cannulae to create this setup. For LEDs and drivers, see below or the full web presentation.

Click on Each Component Below for More Information

 LED Driver


 

Two Light Sources into One Dual-Core Cannula Implant

For bilateral stimulation applications where the two cannulas need to be placed in close proximity (within ~1 mm), Thorlabs offers dual-core patch cables and cannulae that are designed for this specific application. Each core is driven by a separate light source, enabling users to stimulate and/or supress nerve cells in the same region of the specimen. See the graphic and compatibility table below for the necessary cables and cannulae to create this setup. For LEDs and drivers, see below or the full web presentation.

LED Driver2nd LED DriverLED Driver TextFiber-Coupled LED2nd Fiber-Coupled LEDFiber-Coupled LEDsDual-Core Patch CableDual-Core Patch CableADAF2 InterconnectADAF2 InterconnectFiber Optic CannulaFiber Optic Cannula

Click on Each Component for More Information

Part Selection Table (Click Links for Item Description Popup)
Common Fiber Properties
Core Diameter 200 µm
Wavelength Range 400 - 2200 nm
NA 0.39
Fiber Type FT200EMT
Ferrule Stylea FC (Ø2.5 mm)
Dual-Core Patch Cable FC/PC Input BFY32FL1
SMA905 Input BFY32SL1
Compatible Mating Sleeve/Interconnect ADAF1
ADAF2
ADAF4-5
Dual-Core Fiber Optic Cannulaec Stainless Steel CFM32L10
CFM32L20
  • FC components have a Ø2.5 mm ferrule end.
  • Patch cables for dual light source to single implant applications are highlighted in green above. Choose a patch cable with an input that matches your light source.
  • Available cannulae are highlighted in orange of the table above. Cannule within the same column are interchangeable.

 

LED Item # Wavelengtha Typical Opsin Output Powerb Color
M385F1c 385 nm EBFP, moxBFP 10.7 mW UV
M405F1c 405 nm mmilCFP, hcriGFP 3.7 mW UV
M430F1 430 nm ChR2 7.5 mW Violet
M455F3 455 nm ChIEF, bPAC 24.5 mW Royal Blue
M505F3 505 nm ChRGR, Opto-α1AR, Opto-β2AR 11.7 mW Cyan
M530F2 530 nm C1V1, VChR1 9.6 mW Green
M565F3 565 nm Arch, VChR1-SFO 13.5 mW Lime
M595F2 595 nm ChR2-SFO, eNpHR3.0 11.5 mW Amber
M625F2 625 nm ReChR 17.5 mW Red
  • Click the link for a spectrum and raw data.
  • Typical output power measured with a Ø400 µm Core, 0.39 NA multimode fiber.
  • Precautions must be taken to prevent looking directly at the UV light and UV light protective glasses must be worn to avoid eye damage. Exposure of the skin and other body parts to UV light should be avoided.

Illumination

Fiber-Coupled LEDs and Drivers

Our fiber-coupled LEDs are ideal light sources for optogenetics applications. They feature a variety of wavelength choices and a convenient interconnection to optogenetics patch cables. Thorlabs offers fiber-coupled LEDs with nominal wavelengths ranging from 280 nm to 1050 nm. See the table to the right for the LEDs with the most popular wavelengths for optogenetics. A table of compatible LED drivers can be viewed by clicking below.

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Rotary Joint Patch Cables with Ø200 µm Fiber and Ø1.25 mm Ferrules, Heat-Shrink Tubing

  • Heat-Shrink Tubing (Ø1/16") Minimizes Pressure on the Specimen
  • Patch Cable Length: 3 m
  • Compatible Cannulae: CFMLC12 Ceramic Cannulae and CFML12 Stainless Steel Cannulae
Fiber
Type
Wavelength Range
(Click for Plot)
Core Diameter NA Transmission through
Rotary Jointa
Cable Mass Ferrule
Diameter
Ferrule
Material
FT200EMT 400 - 2200 nm 200 µm ± 5 µm 0.39 >63% (<2.0 dB); ±8% (±0.4 dB)
Variation During Rotation
365 g 1.25 mm Ceramic
(Zirconia)
  • Specified for a laser input; LED sources may exhibit lower transmission.
Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal Price Available
RJPFL2 Support Documentation
RJPFL2FC/PC to Ø1.25 mm Ferrule Rotary Joint Patch Cable, Ø200 µm Core, 3 m Long
$379.46
7-10 Days
RJPSL2 Support Documentation
RJPSL2SMA to Ø1.25 mm Ferrule Rotary Joint Patch Cable, Ø200 µm Core, 3 m Long
$379.46
Today
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Rotary Joint Patch Cables with Ø200 µm Fiber and Ø2.5 mm Ferrules, Heat-Shrink Tubing

  • Heat-Shrink Tubing (Ø1/16") Minimizes Pressure on the Specimen
  • Patch Cable Length: 3 m
  • Compatible Cannulae: CFMC12 Ceramic Cannulae and CFM12 Stainless Steel Cannulae
Fiber
Type
Wavelength Range
(Click for Plot)
Core Diameter NA Transmission through
Rotary Jointa
Cable Mass Ferrule
Diameter
Ferrule
Material
FT200EMT 400 - 2200 nm 200 µm ± 5 µm 0.39 >63% (<2.0 dB); ±8% (±0.4 dB)
Variation During Rotation
342 g 2.5 mm Ceramic
(Zirconia)
  • Specified for a laser input; LED sources may exhibit lower transmission.
Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal Price Available
RJPFF2 Support Documentation
RJPFF2FC/PC to Ø2.5 mm Ferrule Rotary Joint Patch Cable, Ø200 µm Core, 3 m Long
$379.46
Today
RJPSF2 Support Documentation
RJPSF2SMA to Ø2.5 mm Ferrule Rotary Joint Patch Cable, Ø200 µm Core, 3 m Long
$379.46
Today
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Rotary Joint Patch Cables with Ø200 µm Fiber and Ø2.5 mm Ferrules, Armored

  • Stainless Steel Tubing Ø2.3 mm Provides Maximum Protection from the Specimen
  • Patch Cable Length: 3 m
  • Compatible Cannulae: CFMC12 Ceramic Cannulae and CFM12 Stainless Steel Cannulae
Fiber
Type
Wavelength Range
(Click for Plot)
Core Diameter NA Transmission through
Rotary Jointa
Cable Mass Ferrule
Diameter
Ferrule
Material
FT200EMT 400 - 2200 nm 200 µm ± 5 µm 0.39 >63% (<2.0 dB); ±8% (±0.4 dB)
Variation During Rotation
365 g 2.5 mm Ceramic
(Zirconia)
  • Specified for a laser input; LED sources may exhibit lower transmission.
Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal Price Available
RJAFF2 Support Documentation
RJAFF2FC/PC to Ø2.5 mm Ferrule Rotary Joint Patch Cable, Ø200 µm Core, Armored, 3 m Long
$384.44
Today
RJASF2 Support Documentation
RJASF2SMA to Ø2.5 mm Ferrule Rotary Joint Patch Cable, Ø200 µm Core, Armored, 3 m Long
$384.44
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Rotary Joint Patch Cables with Ø400 µm Fiber and Ø1.25 mm Ferrules, Heat-Shrink Tubing

  • Heat-Shrink Tubing (Ø1/16") Minimizes the Pressure on the Specimen
  • Patch Cable Length: 3 m
  • Compatible Cannulae: CFMLC14 Ceramic Cannulae and CFML14 Stainless Steel Cannulae
Fiber
Type
Wavelength Range
(Click for Plot)
Core Diameter NA Transmission through
Rotary Jointa
Cable Mass Ferrule
Diameter
Ferrule
Material
FT400EMT 400 - 2200 nm 400 µm ± 8 µm 0.39 >63% (<2.0 dB); ±8% (±0.4 dB)
Variation During Rotation
342 g 1.25 mm Ceramic
(Zirconia)
  • Specified for a laser input; LED sources may exhibit lower transmission.
Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal Price Available
RJPFL4 Support Documentation
RJPFL4FC/PC to Ø1.25 mm Ferrule Rotary Joint Patch Cable, Ø400 µm Core, 3 m Long
$411.70
Lead Time
RJPSL4 Support Documentation
RJPSL4SMA to Ø1.25 mm Ferrule Rotary Joint Patch Cable, Ø400 µm Core, 3 m Long
$411.70
Lead Time
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Rotary Joint Patch Cables with Ø400 µm Fiber and Ø2.5 mm Ferrules, Heat-Shrink Tubing

  • Heat-Shrink Tubing (Ø1/16") Minimizes the Pressure on the Specimen
  • Patch Cable Length: 3 m
  • Compatible Cannulae: CFMC14 Ceramic Cannulae and CFM14 Stainless Steel Cannulae
Fiber
Type
Wavelength Range
(Click for Plot)
Core Diameter NA Transmission through
Rotary Jointa
Cable Mass Ferrule
Diameter
Ferrule
Material
FT400EMT 400 - 2200 nm 400 µm ± 8 µm 0.39 >63% (<2.0 dB); ±8% (±0.4 dB)
Variation During Rotation
342 g 2.5 mm Ceramic
(Zirconia)
  • Specified for a laser input; LED sources may exhibit lower transmission.
Based on your currency / country selection, your order will ship from Newton, New Jersey  
+1 Qty Docs Part Number - Universal Price Available
RJPFF4 Support Documentation
RJPFF4FC/PC to Ø2.5 mm Ferrule Rotary Joint Patch Cable, Ø400 µm Core, 3 m Long
$411.70
Today
RJPSF4 Support Documentation
RJPSF4SMA to Ø2.5 mm Ferrule Rotary Joint Patch Cable, Ø400 µm Core, 3 m Long
$411.70
Today
Last Edited: Sep 18, 2013 Author: Dave Gardner